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Author SHA1 Message Date
Nicolò Boschi 2795e98699 fixes 2026-01-16 11:04:17 +01:00
Nicolò Boschi 4221814de7 fix 2026-01-16 10:12:52 +01:00
Nicolò Boschi 6859b5a60e fix 2026-01-16 09:59:36 +01:00
Nicolò Boschi c9c949b34f doc: refinement for 0.3.0 new features 2026-01-14 09:03:42 +01:00
359 changed files with 11600 additions and 54074 deletions
+26 -74
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@@ -153,15 +153,8 @@ jobs:
- name: Build docs
run: npm run build --workspace=hindsight-docs
test-rust-cli:
build-rust-cli:
runs-on: ubuntu-latest
env:
HINDSIGHT_API_LLM_PROVIDER: groq
HINDSIGHT_API_LLM_API_KEY: ${{ secrets.GROQ_API_KEY }}
HINDSIGHT_API_LLM_MODEL: openai/gpt-oss-20b
HINDSIGHT_API_URL: http://localhost:8888
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
UV_INDEX: pytorch=https://download.pytorch.org/whl/cpu
steps:
- uses: actions/checkout@v4
@@ -178,10 +171,6 @@ jobs:
hindsight-cli/target
key: ${{ runner.os }}-cargo-${{ hashFiles('**/Cargo.lock') }}
- name: Run unit tests
working-directory: hindsight-cli
run: cargo test
- name: Build CLI
working-directory: hindsight-cli
run: cargo build --release
@@ -193,6 +182,29 @@ jobs:
path: hindsight-cli/target/release/hindsight
retention-days: 1
test-rust-cli:
runs-on: ubuntu-latest
needs: build-rust-cli
env:
HINDSIGHT_API_LLM_PROVIDER: groq
HINDSIGHT_API_LLM_API_KEY: ${{ secrets.GROQ_API_KEY }}
HINDSIGHT_API_LLM_MODEL: openai/gpt-oss-20b
HINDSIGHT_API_URL: http://localhost:8888
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
UV_INDEX: pytorch=https://download.pytorch.org/whl/cpu
steps:
- uses: actions/checkout@v4
- name: Download CLI artifact
uses: actions/download-artifact@v4
with:
name: hindsight-cli
path: /tmp/cli
- name: Make CLI executable
run: chmod +x /tmp/cli/hindsight
- name: Install uv
uses: astral-sh/setup-uv@v5
with:
@@ -239,7 +251,7 @@ jobs:
- name: Run CLI smoke test
run: |
HINDSIGHT_CLI=hindsight-cli/target/release/hindsight ./hindsight-cli/smoke-test.sh
HINDSIGHT_CLI=/tmp/cli/hindsight ./hindsight-cli/smoke-test.sh
- name: Show API server logs
if: always()
@@ -765,7 +777,7 @@ jobs:
test-doc-examples:
runs-on: ubuntu-latest
needs: test-rust-cli
needs: build-rust-cli
env:
HINDSIGHT_API_LLM_PROVIDER: groq
HINDSIGHT_API_LLM_API_KEY: ${{ secrets.GROQ_API_KEY }}
@@ -875,66 +887,6 @@ jobs:
echo "=== API Server Logs ==="
cat /tmp/api-server.log || echo "No API server log found"
test-upgrade:
runs-on: ubuntu-latest
env:
HINDSIGHT_API_LLM_PROVIDER: groq
HINDSIGHT_API_LLM_API_KEY: ${{ secrets.GROQ_API_KEY }}
HINDSIGHT_API_LLM_MODEL: openai/gpt-oss-20b
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
UV_INDEX: pytorch=https://download.pytorch.org/whl/cpu
steps:
- uses: actions/checkout@v4
with:
fetch-depth: 0 # Full history needed for git clone of tags
- name: Fetch tags
run: git fetch --tags
- name: Install uv
uses: astral-sh/setup-uv@v5
with:
enable-cache: true
prune-cache: false
- name: Set up Python
uses: actions/setup-python@v5
with:
python-version-file: ".python-version"
- name: Cache HuggingFace models
uses: actions/cache@v4
with:
path: ~/.cache/huggingface
key: ${{ runner.os }}-huggingface-${{ hashFiles('hindsight-api/pyproject.toml') }}
restore-keys: |
${{ runner.os }}-huggingface-
- name: Install hindsight-dev dependencies
working-directory: ./hindsight-dev
run: uv sync --frozen --extra test --index-strategy unsafe-best-match
- name: Install current hindsight-api
working-directory: ./hindsight-api
run: uv sync --frozen --index-strategy unsafe-best-match
- name: Pre-download models
working-directory: ./hindsight-api
run: |
uv run python -c "
from sentence_transformers import SentenceTransformer, CrossEncoder
print('Downloading embedding model...')
SentenceTransformer('BAAI/bge-small-en-v1.5')
print('Downloading cross-encoder model...')
CrossEncoder('cross-encoder/ms-marco-MiniLM-L-6-v2')
print('Models downloaded successfully')
"
- name: Run upgrade tests
working-directory: ./hindsight-dev
run: uv run pytest upgrade_tests/ -v --tb=short
verify-generated-files:
runs-on: ubuntu-latest
env:
+1 -1
View File
@@ -29,7 +29,7 @@ nltk_data/
# Monitoring stack (Prometheus/Grafana binaries and data)
.monitoring/
.pgbouncer/
.pgbouncer
# Large benchmark datasets (will be downloaded automatically)
**/longmemeval_s_cleaned.json
+151 -1
View File
@@ -1,3 +1,153 @@
# AGENTS.md
See [CLAUDE.md](./CLAUDE.md) for project documentation and coding conventions.
This document captures architectural decisions and coding conventions for the Hindsight project.
## Documentation
- **Main documentation**: [hindsight-docs/docs/developer/](./hindsight-docs/docs/developer/)
- **Use case patterns**: [hindsight-docs/docs/cookbook/](./hindsight-docs/docs/cookbook/)
- **API reference**: Auto-generated from OpenAPI spec
## Project Structure
```
hindsight/ # Python package for embedded usage
hindsight-api/ # FastAPI server (core memory engine)
hindsight-cli/ # Rust CLI client
hindsight-embed/ # Embedded CLI (no server needed)
hindsight-control-plane/ # Next.js admin UI
hindsight-docs/ # Docusaurus documentation site
hindsight-dev/ # Development tools and benchmarks
hindsight-integrations/ # Framework integrations (LangChain, etc.)
hindsight-clients/ # Generated API clients (Python, TypeScript, Rust)
```
## Core Concepts
### Memory Banks
- Each bank is an isolated memory store (like a "brain" for one user/agent)
- Banks contain: memory units (facts), entities, documents, entity links
- Banks have a **disposition** (personality traits) and **background** (context)
- Bank isolation is strict - no cross-bank data leakage
### Memory Types
- **World facts**: General knowledge ("The sky is blue")
- **Experience facts**: Personal experiences ("I visited Paris in 2023")
- **Opinion facts**: Beliefs with confidence scores ("Paris is beautiful" - 0.9 confidence)
### Operations
- **Retain**: Store new memories (extracts facts, entities, relationships)
- **Recall**: Retrieve memories (semantic, BM25, graph, temporal search)
- **Reflect**: Deep analysis to form new insights/opinions
## API Design Decisions
### Single Bank Per Request
- All API endpoints (`recall`, `reflect`, `retain`) operate on a single bank
- Multi-bank queries are the **client/agent's responsibility** to orchestrate
- This keeps the API simple and the isolation model clear
### Disposition Traits (3-trait system)
- **Skepticism** (1-5): How skeptical vs trusting when forming opinions
- **Literalism** (1-5): How literally to interpret information
- **Empathy** (1-5): How much to consider emotional context
- These influence the `reflect` operation, not `recall`
- Background info also only affects `reflect` (opinion formation)
## Multi-Bank Architecture Patterns
See [hindsight-docs/docs/cookbook/](./hindsight-docs/docs/cookbook/) for detailed guides:
- **Per-User Memory**: One bank per user, simplest pattern
- **Support Agent + Shared Knowledge**: User bank + shared docs bank, client orchestrates
## Developer Guide
### Running the API Server
```bash
# From project root
./scripts/dev/start-api.sh
# With options
./scripts/dev/start-api.sh --reload --port 8888 --log-level debug
```
### Running Tests
```bash
# API tests
cd hindsight-api
uv run pytest tests/
# Specific test
uv run pytest tests/test_http_api_integration.py -v
```
### Generating OpenAPI Spec
After changing API endpoints, regenerate the OpenAPI spec and docs:
```bash
./scripts/generate-openapi.sh
```
This will:
1. Generate `openapi.json` at project root
2. Copy to `hindsight-docs/openapi.json`
3. Regenerate API reference documentation
### Generating API Clients
After updating the OpenAPI spec, regenerate all clients:
```bash
./scripts/generate-clients.sh
```
This generates:
- **Rust client**: `hindsight-clients/rust/` (via progenitor in build.rs)
- **Python client**: `hindsight-clients/python/` (via openapi-generator Docker)
- **TypeScript client**: `hindsight-clients/typescript/` (via @hey-api/openapi-ts)
Note: The maintained wrapper `hindsight_client.py` and `README.md` are preserved during regeneration.
### Running the Documentation Site
```bash
./scripts/dev/start-docs.sh
```
### Running the Control Plane
```bash
./scripts/dev/start-control-plane.sh
```
## Code Style
### Python (hindsight-api)
- Use `uv` for package management
- Async throughout (asyncpg, async FastAPI endpoints)
- Pydantic models for request/response validation
- No py files at project root - maintain clean directory structure
### TypeScript (control-plane, clients)
- Next.js with App Router for control plane
- Tailwind CSS with shadcn/ui components
### Rust (CLI)
- Async with tokio
- reqwest for HTTP client
- progenitor for API client generation
## Database
- PostgreSQL with pgvector extension
- Schema managed via Alembic migrations in `hindsight-api/alembic/`, db migrations happen during api startup, no manual commands
- Key tables: `banks`, `memory_units`, `documents`, `entities`, `entity_links`
# Branding
## Colors
- Primary: gradient from #0074d9 to #009296
+3 -34
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@@ -7,7 +7,8 @@ This file provides guidance to Claude Code (claude.ai/code) when working with co
Hindsight is an agent memory system that provides long-term memory for AI agents using biomimetic data structures. Memories are organized as:
- **World facts**: General knowledge ("The sky is blue")
- **Experience facts**: Personal experiences ("I visited Paris in 2023")
- **Mental models**: Consolidated knowledge synthesized from facts ("User prefers functional programming patterns")
- **Opinion facts**: Beliefs with confidence scores ("Paris is beautiful" - 0.9 confidence)
- **Observations**: Complex mental models derived from reflection
## Development Commands
@@ -100,7 +101,7 @@ cd hindsight-control-plane && npm run dev
Main operations:
- **Retain**: Store memories, extracts facts/entities/relationships
- **Recall**: Retrieve memories via 4 parallel strategies (semantic, BM25, graph, temporal) + reranking
- **Reflect**: Disposition-aware reasoning using memories and mental models.
- **Reflect**: Deep analysis forming new opinions/observations (disposition-aware)
### Database
PostgreSQL with pgvector. Schema managed via Alembic migrations in `hindsight-api/hindsight_api/alembic/`. Migrations run automatically on API startup.
@@ -198,38 +199,6 @@ When adding or modifying parameters in the dataplane API (hindsight-api), you mu
- Pydantic models for request/response
- Ruff for linting (line-length 120)
- No Python files at project root - maintain clean directory structure
- **Never use multi-item tuple return values** - prefer dataclass or Pydantic model for structured returns
### Type Safety with Pydantic Models
**NEVER use raw `dict` types for structured data.** Always use Pydantic models:
- Use Pydantic `BaseModel` for all data structures passed between functions
- Add `@field_validator` for type coercion (e.g., ensuring datetimes are timezone-aware)
- Avoid `dict.get()` patterns - use typed model attributes instead
- Parse external data (JSON, API responses) into Pydantic models at the boundary
- This catches type errors at parse time, not deep in business logic
```python
# BAD - error-prone dict access
def process(data: dict) -> str:
return data.get("name", "") # No validation, silent failures
# GOOD - typed and validated
class UserData(BaseModel):
name: str
created_at: datetime
@field_validator("created_at", mode="before")
@classmethod
def ensure_tz_aware(cls, v):
if isinstance(v, str):
v = datetime.fromisoformat(v.replace("Z", "+00:00"))
if v.tzinfo is None:
return v.replace(tzinfo=timezone.utc)
return v
def process(data: UserData) -> str:
return data.name # Type-safe, validated at construction
```
### TypeScript Style
- Next.js App Router for control plane
-16
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@@ -80,22 +80,6 @@ Control plane selector labels
app.kubernetes.io/component: control-plane
{{- end }}
{{/*
Worker labels
*/}}
{{- define "hindsight.worker.labels" -}}
{{ include "hindsight.labels" . }}
app.kubernetes.io/component: worker
{{- end }}
{{/*
Worker selector labels
*/}}
{{- define "hindsight.worker.selectorLabels" -}}
{{ include "hindsight.selectorLabels" . }}
app.kubernetes.io/component: worker
{{- end }}
{{/*
Create the name of the service account to use
*/}}
@@ -55,11 +55,6 @@ spec:
{{- end }}
- name: HINDSIGHT_API_DATABASE_URL
value: {{ include "hindsight.databaseUrl" . | quote }}
{{- /* Disable internal worker when dedicated workers are enabled */}}
{{- if .Values.worker.enabled }}
- name: HINDSIGHT_API_WORKER_ENABLED
value: "false"
{{- end }}
{{- range $key, $value := .Values.api.env }}
- name: {{ $key }}
value: {{ $value | quote }}
@@ -1,25 +0,0 @@
{{- if .Values.worker.enabled }}
apiVersion: v1
kind: Service
metadata:
name: {{ include "hindsight.fullname" . }}-worker
labels:
{{- include "hindsight.worker.labels" . | nindent 4 }}
{{- if .Values.podAnnotations }}
annotations:
{{- /* Common Prometheus annotations for metrics scraping */}}
prometheus.io/scrape: "true"
prometheus.io/port: {{ .Values.worker.service.port | quote }}
prometheus.io/path: "/metrics"
{{- end }}
spec:
# Headless service for StatefulSet (enables stable DNS names like worker-0.worker.namespace)
clusterIP: None
ports:
- port: {{ .Values.worker.service.port }}
targetPort: {{ .Values.worker.service.targetPort }}
protocol: TCP
name: http
selector:
{{- include "hindsight.worker.selectorLabels" . | nindent 4 }}
{{- end }}
@@ -1,110 +0,0 @@
{{- if .Values.worker.enabled }}
apiVersion: apps/v1
kind: StatefulSet
metadata:
name: {{ include "hindsight.fullname" . }}-worker
labels:
{{- include "hindsight.worker.labels" . | nindent 4 }}
spec:
serviceName: {{ include "hindsight.fullname" . }}-worker
replicas: {{ .Values.worker.replicaCount }}
selector:
matchLabels:
{{- include "hindsight.worker.selectorLabels" . | nindent 6 }}
template:
metadata:
annotations:
{{- if not .Values.existingSecret }}
checksum/secret: {{ include (print $.Template.BasePath "/secret.yaml") . | sha256sum }}
{{- end }}
{{- with .Values.podAnnotations }}
{{- toYaml . | nindent 8 }}
{{- end }}
labels:
{{- include "hindsight.worker.selectorLabels" . | nindent 8 }}
spec:
{{- if .Values.serviceAccount.create }}
serviceAccountName: {{ include "hindsight.serviceAccountName" . }}
{{- end }}
securityContext:
{{- toYaml .Values.podSecurityContext | nindent 8 }}
containers:
- name: worker
securityContext:
{{- toYaml .Values.securityContext | nindent 10 }}
image: "{{ .Values.worker.image.repository }}:{{ .Values.worker.image.tag | default .Values.version }}"
imagePullPolicy: {{ .Values.worker.image.pullPolicy }}
command: ["hindsight-worker"]
ports:
- name: http
containerPort: {{ .Values.worker.service.targetPort }}
protocol: TCP
{{- if .Values.existingSecret }}
envFrom:
- secretRef:
name: {{ .Values.existingSecret }}
{{- end }}
env:
{{- /* POSTGRES_PASSWORD must be defined before DATABASE_URL for $(VAR) interpolation */}}
{{- if not .Values.postgresql.enabled }}
- name: POSTGRES_PASSWORD
valueFrom:
secretKeyRef:
name: {{ include "hindsight.secretName" . }}
key: postgres-password
{{- end }}
- name: HINDSIGHT_API_DATABASE_URL
value: {{ include "hindsight.databaseUrl" . | quote }}
{{- /* Worker ID uses pod name (StatefulSet provides stable names like worker-0, worker-1) */}}
- name: HINDSIGHT_API_WORKER_ID
valueFrom:
fieldRef:
fieldPath: metadata.name
{{- /* Inherit LLM config from api.env */}}
{{- range $key, $value := .Values.api.env }}
- name: {{ $key }}
value: {{ $value | quote }}
{{- end }}
{{- /* Worker-specific env vars */}}
{{- range $key, $value := .Values.worker.env }}
- name: {{ $key }}
value: {{ $value | quote }}
{{- end }}
{{- /* Only use secrets when not using existingSecret */}}
{{- if not .Values.existingSecret }}
{{- /* Inherit secrets from api.secrets */}}
{{- range $key, $value := .Values.api.secrets }}
- name: {{ $key }}
valueFrom:
secretKeyRef:
name: {{ include "hindsight.secretName" $ }}
key: {{ $key }}
{{- end }}
{{- /* Worker-specific secrets (can override api.secrets) */}}
{{- range $key, $value := .Values.worker.secrets }}
- name: {{ $key }}
valueFrom:
secretKeyRef:
name: {{ include "hindsight.secretName" $ }}
key: {{ $key }}
{{- end }}
{{- end }}
livenessProbe:
{{- toYaml .Values.worker.livenessProbe | nindent 10 }}
readinessProbe:
{{- toYaml .Values.worker.readinessProbe | nindent 10 }}
resources:
{{- toYaml .Values.worker.resources | nindent 10 }}
{{- with .Values.nodeSelector }}
nodeSelector:
{{- toYaml . | nindent 8 }}
{{- end }}
{{- with .Values.affinity }}
affinity:
{{- toYaml . | nindent 8 }}
{{- end }}
{{- with .Values.tolerations }}
tolerations:
{{- toYaml . | nindent 8 }}
{{- end }}
{{- end }}
-57
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@@ -67,63 +67,6 @@ api:
# HINDSIGHT_API_LLM_API_KEY: "your-api-key"
# HINDSIGHT_API_LLM_BASE_URL: "https://api.groq.com/openai/v1"
# Worker settings (distributed task processing)
# When enabled, dedicated worker pods process tasks and the API's internal worker is disabled
worker:
enabled: false
replicaCount: 2
image:
repository: ghcr.io/vectorize-io/hindsight-api
pullPolicy: IfNotPresent
# tag defaults to .Values.version if not specified
service:
# Service for metrics scraping (headless for StatefulSet)
port: 8889
targetPort: 8889
# Resource limits and requests
resources:
limits:
cpu: 2000m
memory: 4Gi
requests:
cpu: 500m
memory: 1Gi
# Liveness and readiness probes
livenessProbe:
httpGet:
path: /health
port: 8889
initialDelaySeconds: 30
periodSeconds: 10
timeoutSeconds: 5
failureThreshold: 3
readinessProbe:
httpGet:
path: /health
port: 8889
initialDelaySeconds: 10
periodSeconds: 5
timeoutSeconds: 3
failureThreshold: 3
# Worker-specific environment variables
env:
# Poll interval in milliseconds (how often to check for new tasks)
HINDSIGHT_API_WORKER_POLL_INTERVAL_MS: "500"
# Number of tasks to claim per poll cycle
HINDSIGHT_API_WORKER_BATCH_SIZE: "10"
# Max retries before marking a task as failed
HINDSIGHT_API_WORKER_MAX_RETRIES: "3"
# HTTP port for metrics/health (matches service.targetPort)
HINDSIGHT_API_WORKER_HTTP_PORT: "8889"
# Secret environment variables (inherited from api.secrets if not specified)
secrets: {}
# Image settings for control plane
controlPlane:
enabled: true
-59
View File
@@ -244,65 +244,6 @@ def run_db_migration(
typer.echo("Database migrations completed successfully")
async def _decommission_worker(db_url: str, worker_id: str, schema: str = "public") -> int:
"""Release all tasks owned by a worker, setting them back to pending status."""
is_pg0, instance_name, _ = parse_pg0_url(db_url)
if is_pg0:
typer.echo(f"Starting embedded PostgreSQL (instance: {instance_name})...")
resolved_url = await resolve_database_url(db_url)
conn = await asyncpg.connect(resolved_url)
try:
table = _fq_table("async_operations", schema)
result = await conn.fetch(
f"""
UPDATE {table}
SET status = 'pending', worker_id = NULL, claimed_at = NULL, updated_at = now()
WHERE worker_id = $1 AND status = 'processing'
RETURNING operation_id
""",
worker_id,
)
return len(result)
finally:
await conn.close()
@app.command(name="decommission-worker")
def decommission_worker(
worker_id: str = typer.Argument(..., help="Worker ID to decommission"),
schema: str = typer.Option("public", "--schema", "-s", help="Database schema"),
yes: bool = typer.Option(False, "--yes", "-y", help="Skip confirmation prompt"),
):
"""Release all tasks owned by a worker (sets status back to pending).
Use this command when a worker has crashed or been removed without graceful shutdown.
All tasks that were being processed by the worker will be released back to the queue
so other workers can pick them up.
"""
config = HindsightConfig.from_env()
if not config.database_url:
typer.echo("Error: Database URL not configured.", err=True)
typer.echo("Set HINDSIGHT_API_DATABASE_URL environment variable.", err=True)
raise typer.Exit(1)
if not yes:
typer.confirm(
f"This will release all tasks owned by worker '{worker_id}' back to pending. Continue?",
abort=True,
)
typer.echo(f"Decommissioning worker '{worker_id}' (schema: {schema})...")
count = asyncio.run(_decommission_worker(config.database_url, worker_id, schema))
if count > 0:
typer.echo(f"Released {count} task(s) from worker '{worker_id}'")
else:
typer.echo(f"No tasks found for worker '{worker_id}'")
def main():
app()
@@ -1,112 +0,0 @@
"""mental_models_v4
Revision ID: h3c4d5e6f7g8
Revises: g2a3b4c5d6e7
Create Date: 2026-01-08 00:00:00.000000
This migration implements the v4 mental models system:
1. Deletes existing observation memory_units (observations now in mental models)
2. Adds mission column to banks (replacing background)
3. Creates mental_models table with final schema
Mental models can reference entities when an entity is "promoted" to a mental model.
Summary content is stored as JSONB observations with per-observation fact attribution.
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "h3c4d5e6f7g8"
down_revision: str | Sequence[str] | None = "g2a3b4c5d6e7"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Apply mental models v4 changes."""
schema = _get_schema_prefix()
# Step 1: Delete observation memory_units (cascades to unit_entities links)
# Observations are now handled through mental models, not memory_units
op.execute(f"DELETE FROM {schema}memory_units WHERE fact_type = 'observation'")
# Step 2: Drop observation-specific index (if it exists)
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_observation_date")
# Step 3: Add mission column to banks (replacing background)
op.execute(f"ALTER TABLE {schema}banks ADD COLUMN IF NOT EXISTS mission TEXT")
# Migrate: copy background to mission if background column exists
# Use DO block to check column existence first (idempotent for re-runs)
schema_name = context.config.get_main_option("target_schema") or "public"
op.execute(f"""
DO $$
BEGIN
IF EXISTS (
SELECT 1 FROM information_schema.columns
WHERE table_schema = '{schema_name}' AND table_name = 'banks' AND column_name = 'background'
) THEN
UPDATE {schema}banks
SET mission = background
WHERE mission IS NULL;
END IF;
END $$;
""")
# Remove background column (replaced by mission)
op.execute(f"ALTER TABLE {schema}banks DROP COLUMN IF EXISTS background")
# Step 4: Create mental_models table with final v4 schema (if not exists)
op.execute(f"""
CREATE TABLE IF NOT EXISTS {schema}mental_models (
id VARCHAR(64) NOT NULL,
bank_id VARCHAR(64) NOT NULL,
subtype VARCHAR(32) NOT NULL,
name VARCHAR(256) NOT NULL,
description TEXT NOT NULL,
entity_id UUID,
observations JSONB DEFAULT '{{"observations": []}}'::jsonb,
links VARCHAR[],
tags VARCHAR[] DEFAULT '{{}}',
last_updated TIMESTAMP WITH TIME ZONE,
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
PRIMARY KEY (id, bank_id),
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE,
FOREIGN KEY (entity_id) REFERENCES {schema}entities(id) ON DELETE SET NULL,
CONSTRAINT ck_mental_models_subtype CHECK (subtype IN ('structural', 'emergent', 'pinned', 'learned'))
)
""")
# Step 5: Create indexes for efficient queries (if not exist)
op.execute(f"CREATE INDEX IF NOT EXISTS idx_mental_models_bank_id ON {schema}mental_models(bank_id)")
op.execute(f"CREATE INDEX IF NOT EXISTS idx_mental_models_subtype ON {schema}mental_models(bank_id, subtype)")
op.execute(f"CREATE INDEX IF NOT EXISTS idx_mental_models_entity_id ON {schema}mental_models(entity_id)")
# GIN index for efficient tags array filtering
op.execute(f"CREATE INDEX IF NOT EXISTS idx_mental_models_tags ON {schema}mental_models USING GIN(tags)")
def downgrade() -> None:
"""Revert mental models v4 changes."""
schema = _get_schema_prefix()
# Drop mental_models table (cascades to indexes)
op.execute(f"DROP TABLE IF EXISTS {schema}mental_models CASCADE")
# Add back background column to banks
op.execute(f"ALTER TABLE {schema}banks ADD COLUMN IF NOT EXISTS background TEXT")
# Migrate mission back to background
op.execute(f"UPDATE {schema}banks SET background = mission WHERE background IS NULL")
# Remove mission column
op.execute(f"ALTER TABLE {schema}banks DROP COLUMN IF EXISTS mission")
# Note: Cannot restore deleted observations - they are lost on downgrade
@@ -1,41 +0,0 @@
"""delete_opinions
Revision ID: i4d5e6f7g8h9
Revises: h3c4d5e6f7g8
Create Date: 2026-01-15 00:00:00.000000
This migration removes opinion facts from memory_units.
Opinions are no longer a separate fact type - they are now represented
through mental model observations with confidence scores.
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "i4d5e6f7g8h9"
down_revision: str | Sequence[str] | None = "h3c4d5e6f7g8"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Delete opinion memory_units."""
schema = _get_schema_prefix()
# Delete opinion memory_units (cascades to unit_entities links)
# Opinions are now handled through mental model observations
op.execute(f"DELETE FROM {schema}memory_units WHERE fact_type = 'opinion'")
def downgrade() -> None:
"""Cannot restore deleted opinions."""
# Note: Cannot restore deleted opinions - they are lost on downgrade
pass
@@ -1,95 +0,0 @@
"""mental_model_versions
Revision ID: j5e6f7g8h9i0
Revises: i4d5e6f7g8h9
Create Date: 2026-01-16 00:00:00.000000
This migration adds versioning support for mental models:
1. Creates mental_model_versions table to store observation snapshots
2. Adds version column to mental_models for tracking current version
This enables changelog/diff functionality for mental model observations.
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "j5e6f7g8h9i0"
down_revision: str | Sequence[str] | None = "i4d5e6f7g8h9"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Create mental_model_versions table and add version tracking."""
schema = _get_schema_prefix()
# Create mental_model_versions table for storing observation snapshots
op.execute(f"""
CREATE TABLE {schema}mental_model_versions (
id SERIAL PRIMARY KEY,
mental_model_id VARCHAR(64) NOT NULL,
bank_id VARCHAR(64) NOT NULL,
version INT NOT NULL,
observations JSONB NOT NULL DEFAULT '{{"observations": []}}'::jsonb,
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
FOREIGN KEY (mental_model_id, bank_id)
REFERENCES {schema}mental_models(id, bank_id) ON DELETE CASCADE,
UNIQUE (mental_model_id, bank_id, version)
)
""")
# Index for efficient version queries (get latest, list versions)
op.execute(f"""
CREATE INDEX idx_mental_model_versions_lookup
ON {schema}mental_model_versions(mental_model_id, bank_id, version DESC)
""")
# Add version column to mental_models to track current version
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD COLUMN IF NOT EXISTS version INT NOT NULL DEFAULT 0
""")
# Migrate existing mental models: create version 1 for any that have observations
op.execute(f"""
INSERT INTO {schema}mental_model_versions (mental_model_id, bank_id, version, observations, created_at)
SELECT id, bank_id, 1, observations, COALESCE(last_updated, created_at)
FROM {schema}mental_models
WHERE observations IS NOT NULL
AND observations != '{{"observations": []}}'::jsonb
AND (observations->'observations') IS NOT NULL
AND jsonb_array_length(observations->'observations') > 0
""")
# Update version to 1 for migrated mental models
op.execute(f"""
UPDATE {schema}mental_models
SET version = 1
WHERE observations IS NOT NULL
AND observations != '{{"observations": []}}'::jsonb
AND (observations->'observations') IS NOT NULL
AND jsonb_array_length(observations->'observations') > 0
""")
def downgrade() -> None:
"""Remove mental_model_versions table and version column."""
schema = _get_schema_prefix()
# Drop index
op.execute(f"DROP INDEX IF EXISTS {schema}idx_mental_model_versions_lookup")
# Drop versions table
op.execute(f"DROP TABLE IF EXISTS {schema}mental_model_versions")
# Remove version column from mental_models
op.execute(f"ALTER TABLE {schema}mental_models DROP COLUMN IF EXISTS version")
@@ -1,58 +0,0 @@
"""add_directive_subtype
Revision ID: k6f7g8h9i0j1
Revises: j5e6f7g8h9i0
Create Date: 2026-01-16 00:00:00.000000
This migration adds 'directive' to the mental_models subtype constraint.
Directives are hard rules with user-provided observations that the reflect agent must follow.
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "k6f7g8h9i0j1"
down_revision: str | Sequence[str] | None = "j5e6f7g8h9i0"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Add 'directive' to mental_models subtype constraint."""
schema = _get_schema_prefix()
# Drop existing constraint
op.execute(f"ALTER TABLE {schema}mental_models DROP CONSTRAINT IF EXISTS ck_mental_models_subtype")
# Create new constraint with 'directive' added
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD CONSTRAINT ck_mental_models_subtype
CHECK (subtype IN ('structural', 'emergent', 'pinned', 'learned', 'directive'))
""")
def downgrade() -> None:
"""Remove 'directive' from mental_models subtype constraint."""
schema = _get_schema_prefix()
# First delete any directives (cannot downgrade if they exist)
op.execute(f"DELETE FROM {schema}mental_models WHERE subtype = 'directive'")
# Drop constraint with directive
op.execute(f"ALTER TABLE {schema}mental_models DROP CONSTRAINT IF EXISTS ck_mental_models_subtype")
# Recreate original constraint without directive
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD CONSTRAINT ck_mental_models_subtype
CHECK (subtype IN ('structural', 'emergent', 'pinned', 'learned'))
""")
@@ -1,109 +0,0 @@
"""add_worker_columns
Revision ID: l7g8h9i0j1k2
Revises: k6f7g8h9i0j1
Create Date: 2026-01-19 00:00:00.000000
This migration adds columns to async_operations for distributed worker support:
- worker_id: ID of the worker that claimed the task
- claimed_at: When the task was claimed
- retry_count: Number of retry attempts
- task_payload: The serialized task dictionary
"""
from collections.abc import Sequence
import sqlalchemy as sa
from alembic import context, op
from sqlalchemy.dialects import postgresql
# revision identifiers, used by Alembic.
revision: str = "l7g8h9i0j1k2"
down_revision: str | Sequence[str] | None = "k6f7g8h9i0j1"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Add worker columns to async_operations."""
schema = _get_schema_prefix()
# Add worker_id column (ID of worker that claimed the task)
op.add_column(
"async_operations",
sa.Column("worker_id", sa.Text(), nullable=True),
schema=context.config.get_main_option("target_schema") or None,
)
# Add claimed_at column (when task was claimed by worker)
op.add_column(
"async_operations",
sa.Column("claimed_at", postgresql.TIMESTAMP(timezone=True), nullable=True),
schema=context.config.get_main_option("target_schema") or None,
)
# Add retry_count column (number of retry attempts)
op.add_column(
"async_operations",
sa.Column("retry_count", sa.Integer(), server_default="0", nullable=False),
schema=context.config.get_main_option("target_schema") or None,
)
# Add task_payload column (serialized task dictionary)
op.add_column(
"async_operations",
sa.Column(
"task_payload",
postgresql.JSONB(astext_type=sa.Text()),
nullable=True,
),
schema=context.config.get_main_option("target_schema") or None,
)
# Add index for efficient worker polling (pending tasks ordered by creation time)
op.execute(
f"CREATE INDEX idx_async_operations_pending_claim ON {schema}async_operations (status, created_at) "
f"WHERE status = 'pending' AND task_payload IS NOT NULL"
)
# Add index for finding tasks by worker_id (for decommissioning)
op.execute(
f"CREATE INDEX idx_async_operations_worker_id ON {schema}async_operations (worker_id) WHERE worker_id IS NOT NULL"
)
def downgrade() -> None:
"""Remove worker columns from async_operations."""
schema = _get_schema_prefix()
# Drop indexes
op.execute(f"DROP INDEX IF EXISTS {schema}idx_async_operations_pending_claim")
op.execute(f"DROP INDEX IF EXISTS {schema}idx_async_operations_worker_id")
# Drop columns
op.drop_column(
"async_operations",
"task_payload",
schema=context.config.get_main_option("target_schema") or None,
)
op.drop_column(
"async_operations",
"retry_count",
schema=context.config.get_main_option("target_schema") or None,
)
op.drop_column(
"async_operations",
"claimed_at",
schema=context.config.get_main_option("target_schema") or None,
)
op.drop_column(
"async_operations",
"worker_id",
schema=context.config.get_main_option("target_schema") or None,
)
@@ -1,41 +0,0 @@
"""mental_model_id_to_text
Revision ID: m8h9i0j1k2l3
Revises: l7g8h9i0j1k2
Create Date: 2026-01-19 00:00:00.000000
This migration changes the mental_models.id column from VARCHAR(64) to TEXT
to support longer model IDs (e.g., entity names that exceed 64 characters).
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "m8h9i0j1k2l3"
down_revision: str | Sequence[str] | None = "l7g8h9i0j1k2"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Change mental_models.id from VARCHAR(64) to TEXT."""
schema = _get_schema_prefix()
# Alter the id column type from VARCHAR(64) to TEXT
op.execute(f"ALTER TABLE {schema}mental_models ALTER COLUMN id TYPE TEXT")
def downgrade() -> None:
"""Revert mental_models.id from TEXT to VARCHAR(64)."""
schema = _get_schema_prefix()
# Note: This may fail if any id values exceed 64 characters
op.execute(f"ALTER TABLE {schema}mental_models ALTER COLUMN id TYPE VARCHAR(64)")
@@ -1,134 +0,0 @@
"""learnings_and_pinned_reflections
Revision ID: n9i0j1k2l3m4
Revises: m8h9i0j1k2l3
Create Date: 2026-01-21 00:00:00.000000
This migration:
1. Creates the 'learnings' table for automatic bottom-up consolidation
2. Creates the 'pinned_reflections' table for user-curated living documents
3. Adds consolidation tracking columns to the 'banks' table
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "n9i0j1k2l3m4"
down_revision: str | Sequence[str] | None = "m8h9i0j1k2l3"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Create learnings and pinned_reflections tables."""
schema = _get_schema_prefix()
# 1. Create learnings table
op.execute(f"""
CREATE TABLE {schema}learnings (
id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
bank_id VARCHAR(64) NOT NULL,
text TEXT NOT NULL,
proof_count INT NOT NULL DEFAULT 1,
history JSONB DEFAULT '[]'::jsonb,
mission_context VARCHAR(64),
pre_mission_change BOOLEAN DEFAULT FALSE,
embedding vector(384),
tags VARCHAR[] DEFAULT ARRAY[]::VARCHAR[],
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
updated_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now()
)
""")
# Add foreign key constraint
op.execute(f"""
ALTER TABLE {schema}learnings
ADD CONSTRAINT fk_learnings_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# Indexes for learnings
op.execute(f"CREATE INDEX idx_learnings_bank_id ON {schema}learnings(bank_id)")
op.execute(f"""
CREATE INDEX idx_learnings_embedding ON {schema}learnings
USING hnsw (embedding vector_cosine_ops)
""")
op.execute(f"CREATE INDEX idx_learnings_tags ON {schema}learnings USING GIN(tags)")
# Full-text search for learnings
op.execute(f"""
ALTER TABLE {schema}learnings ADD COLUMN search_vector tsvector
GENERATED ALWAYS AS (to_tsvector('english', text)) STORED
""")
op.execute(f"CREATE INDEX idx_learnings_text_search ON {schema}learnings USING gin(search_vector)")
# 2. Create pinned_reflections table
op.execute(f"""
CREATE TABLE {schema}pinned_reflections (
id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
bank_id VARCHAR(64) NOT NULL,
name VARCHAR(256) NOT NULL,
source_query TEXT NOT NULL,
content TEXT NOT NULL,
embedding vector(384),
tags VARCHAR[] DEFAULT ARRAY[]::VARCHAR[],
last_refreshed_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now()
)
""")
# Add foreign key constraint
op.execute(f"""
ALTER TABLE {schema}pinned_reflections
ADD CONSTRAINT fk_pinned_reflections_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# Indexes for pinned_reflections
op.execute(f"CREATE INDEX idx_pinned_reflections_bank_id ON {schema}pinned_reflections(bank_id)")
op.execute(f"""
CREATE INDEX idx_pinned_reflections_embedding ON {schema}pinned_reflections
USING hnsw (embedding vector_cosine_ops)
""")
op.execute(f"CREATE INDEX idx_pinned_reflections_tags ON {schema}pinned_reflections USING GIN(tags)")
# Full-text search for pinned_reflections
op.execute(f"""
ALTER TABLE {schema}pinned_reflections ADD COLUMN search_vector tsvector
GENERATED ALWAYS AS (to_tsvector('english', COALESCE(name, '') || ' ' || content)) STORED
""")
op.execute(f"""
CREATE INDEX idx_pinned_reflections_text_search ON {schema}pinned_reflections
USING gin(search_vector)
""")
# 3. Add consolidation tracking columns to banks table
op.execute(f"""
ALTER TABLE {schema}banks
ADD COLUMN IF NOT EXISTS last_consolidated_at TIMESTAMP WITH TIME ZONE
""")
op.execute(f"""
ALTER TABLE {schema}banks
ADD COLUMN IF NOT EXISTS mission_changed_at TIMESTAMP WITH TIME ZONE
""")
def downgrade() -> None:
"""Drop learnings and pinned_reflections tables."""
schema = _get_schema_prefix()
# Drop tables
op.execute(f"DROP TABLE IF EXISTS {schema}learnings CASCADE")
op.execute(f"DROP TABLE IF EXISTS {schema}pinned_reflections CASCADE")
# Remove columns from banks
op.execute(f"ALTER TABLE {schema}banks DROP COLUMN IF EXISTS last_consolidated_at")
op.execute(f"ALTER TABLE {schema}banks DROP COLUMN IF EXISTS mission_changed_at")
@@ -1,113 +0,0 @@
"""migrate_mental_models_data
Revision ID: o0j1k2l3m4n5
Revises: n9i0j1k2l3m4
Create Date: 2026-01-21 00:00:00.000000
This migration:
1. Migrates existing 'pinned' mental models to the new 'pinned_reflections' table
2. Migrates existing 'learned' mental models to the new 'learnings' table
3. Deletes non-directive mental models (structural, emergent, pinned, learned)
4. Drops the mental_model_versions table (no longer used)
5. Adds a CHECK constraint that only 'directive' subtype is allowed
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "o0j1k2l3m4n5"
down_revision: str | Sequence[str] | None = "n9i0j1k2l3m4"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Migrate data and clean up old mental models."""
schema = _get_schema_prefix()
# 1. Migrate 'pinned' mental models to pinned_reflections
# For pinned models, the first observation's content becomes the pinned reflection content
op.execute(f"""
INSERT INTO {schema}pinned_reflections (bank_id, name, source_query, content, tags, created_at)
SELECT
bank_id,
name,
description AS source_query,
COALESCE(
observations->'observations'->0->>'content',
description,
''
) AS content,
tags,
created_at
FROM {schema}mental_models
WHERE subtype = 'pinned'
ON CONFLICT DO NOTHING
""")
# 2. Migrate 'learned' mental models to learnings
# Each observation in a learned model becomes a separate learning
op.execute(f"""
INSERT INTO {schema}learnings (bank_id, text, proof_count, tags, created_at)
SELECT
mm.bank_id,
obs->>'content' AS text,
GREATEST(1, COALESCE(jsonb_array_length(obs->'evidence'), 1)) AS proof_count,
mm.tags,
mm.created_at
FROM {schema}mental_models mm,
LATERAL jsonb_array_elements(mm.observations->'observations') AS obs
WHERE mm.subtype = 'learned'
AND obs->>'content' IS NOT NULL
AND obs->>'content' != ''
ON CONFLICT DO NOTHING
""")
# 3. Delete all non-directive mental models (they've been migrated or are obsolete)
op.execute(f"""
DELETE FROM {schema}mental_models
WHERE subtype != 'directive'
""")
# 4. Drop the mental_model_versions table (no longer used)
op.execute(f"DROP TABLE IF EXISTS {schema}mental_model_versions CASCADE")
# 5. Drop old constraints and add new one that only allows 'directive'
op.execute(f"ALTER TABLE {schema}mental_models DROP CONSTRAINT IF EXISTS ck_mental_models_subtype")
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD CONSTRAINT ck_mental_models_subtype CHECK (subtype = 'directive')
""")
def downgrade() -> None:
"""Reverse the migration (data migration is one-way, so this just removes constraints)."""
schema = _get_schema_prefix()
# Remove the directive-only constraint
op.execute(f"ALTER TABLE {schema}mental_models DROP CONSTRAINT IF EXISTS ck_mental_models_subtype")
# Re-create mental_model_versions table
op.execute(f"""
CREATE TABLE IF NOT EXISTS {schema}mental_model_versions (
id SERIAL PRIMARY KEY,
bank_id VARCHAR(64) NOT NULL,
model_id VARCHAR(128) NOT NULL,
version INT NOT NULL,
observations JSONB NOT NULL,
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now()
)
""")
op.execute(
f"CREATE INDEX IF NOT EXISTS idx_mm_versions_lookup ON {schema}mental_model_versions(bank_id, model_id, version DESC)"
)
# Note: Data migration cannot be reversed - pinned_reflections and learnings data remains
@@ -1,194 +0,0 @@
"""new_knowledge_architecture
Revision ID: p1k2l3m4n5o6
Revises: o0j1k2l3m4n5
Create Date: 2026-01-21 00:00:00.000000
This migration implements the new knowledge architecture:
1. Drops the 'learnings' table (mental models are now in memory_units)
2. Renames 'pinned_reflections' to 'reflections'
3. Drops the 'mental_models' table completely
4. Creates 'directives' table for hard rules
5. Adds mental model support columns to 'memory_units' (proof_count, source_memory_ids, history)
The new architecture:
- Directives: Hard rules in their own table
- Mental Models: Stored in memory_units with fact_type='mental_model'
- Reflections: User-curated documents (renamed from pinned_reflections)
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "p1k2l3m4n5o6"
down_revision: str | Sequence[str] | None = "o0j1k2l3m4n5"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Implement new knowledge architecture."""
schema = _get_schema_prefix()
# 1. Drop the learnings table (mental models will be in memory_units)
op.execute(f"DROP TABLE IF EXISTS {schema}learnings CASCADE")
# 2. Rename pinned_reflections to reflections
op.execute(f"ALTER TABLE IF EXISTS {schema}pinned_reflections RENAME TO reflections")
# Rename indexes for reflections
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_pinned_reflections_bank_id RENAME TO idx_reflections_bank_id")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_pinned_reflections_embedding RENAME TO idx_reflections_embedding")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_pinned_reflections_tags RENAME TO idx_reflections_tags")
op.execute(
f"ALTER INDEX IF EXISTS {schema}idx_pinned_reflections_text_search RENAME TO idx_reflections_text_search"
)
# Rename foreign key constraint
op.execute(f"""
ALTER TABLE {schema}reflections
DROP CONSTRAINT IF EXISTS fk_pinned_reflections_bank_id
""")
op.execute(f"""
ALTER TABLE {schema}reflections
ADD CONSTRAINT fk_reflections_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# 3. Drop the mental_models table completely
op.execute(f"DROP TABLE IF EXISTS {schema}mental_models CASCADE")
# 4. Create directives table
op.execute(f"""
CREATE TABLE {schema}directives (
id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
bank_id VARCHAR(64) NOT NULL,
name VARCHAR(256) NOT NULL,
content TEXT NOT NULL,
priority INT NOT NULL DEFAULT 0,
is_active BOOLEAN NOT NULL DEFAULT TRUE,
tags VARCHAR[] DEFAULT ARRAY[]::VARCHAR[],
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
updated_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now()
)
""")
# Add foreign key and indexes for directives
op.execute(f"""
ALTER TABLE {schema}directives
ADD CONSTRAINT fk_directives_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
op.execute(f"CREATE INDEX idx_directives_bank_id ON {schema}directives(bank_id)")
op.execute(f"CREATE INDEX idx_directives_bank_active ON {schema}directives(bank_id, is_active)")
op.execute(f"CREATE INDEX idx_directives_tags ON {schema}directives USING GIN(tags)")
# 5. Add mental model support columns to memory_units
# proof_count: Number of memories that support this mental model
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD COLUMN IF NOT EXISTS proof_count INT DEFAULT 1
""")
# source_memory_ids: Array of memory IDs that consolidated into this mental model
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD COLUMN IF NOT EXISTS source_memory_ids UUID[] DEFAULT ARRAY[]::UUID[]
""")
# history: JSONB array tracking changes to mental models
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD COLUMN IF NOT EXISTS history JSONB DEFAULT '[]'::jsonb
""")
# Add index for finding mental models
op.execute(f"""
CREATE INDEX IF NOT EXISTS idx_memory_units_mental_models
ON {schema}memory_units(bank_id, fact_type)
WHERE fact_type = 'mental_model'
""")
# 6. Update fact_type check constraint to include 'mental_model'
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation', 'mental_model'))
""")
def downgrade() -> None:
"""Reverse the migration."""
schema = _get_schema_prefix()
# Restore original fact_type check constraint (without 'mental_model')
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation'))
""")
# Drop mental model columns from memory_units
op.execute(f"ALTER TABLE {schema}memory_units DROP COLUMN IF EXISTS proof_count")
op.execute(f"ALTER TABLE {schema}memory_units DROP COLUMN IF EXISTS source_memory_ids")
op.execute(f"ALTER TABLE {schema}memory_units DROP COLUMN IF EXISTS history")
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_mental_models")
# Drop directives table
op.execute(f"DROP TABLE IF EXISTS {schema}directives CASCADE")
# Rename reflections back to pinned_reflections
op.execute(f"ALTER TABLE IF EXISTS {schema}reflections RENAME TO pinned_reflections")
# Restore indexes
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_bank_id RENAME TO idx_pinned_reflections_bank_id")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_embedding RENAME TO idx_pinned_reflections_embedding")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_tags RENAME TO idx_pinned_reflections_tags")
op.execute(
f"ALTER INDEX IF EXISTS {schema}idx_reflections_text_search RENAME TO idx_pinned_reflections_text_search"
)
# Restore foreign key
op.execute(f"""
ALTER TABLE {schema}pinned_reflections
DROP CONSTRAINT IF EXISTS fk_reflections_bank_id
""")
op.execute(f"""
ALTER TABLE {schema}pinned_reflections
ADD CONSTRAINT fk_pinned_reflections_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# Re-create learnings table
op.execute(f"""
CREATE TABLE IF NOT EXISTS {schema}learnings (
id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
bank_id VARCHAR(64) NOT NULL,
text TEXT NOT NULL,
proof_count INT NOT NULL DEFAULT 1,
history JSONB DEFAULT '[]'::jsonb,
mission_context VARCHAR(64),
pre_mission_change BOOLEAN DEFAULT FALSE,
embedding vector(384),
tags VARCHAR[] DEFAULT ARRAY[]::VARCHAR[],
created_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now(),
updated_at TIMESTAMP WITH TIME ZONE NOT NULL DEFAULT now()
)
""")
op.execute(f"""
ALTER TABLE {schema}learnings
ADD CONSTRAINT fk_learnings_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# Note: mental_models table recreation is complex and would need separate handling
@@ -1,50 +0,0 @@
"""fix_mental_model_fact_type
Revision ID: q2l3m4n5o6p7
Revises: p1k2l3m4n5o6
Create Date: 2026-01-21 13:30:00.000000
Fix the fact_type check constraint to include 'mental_model'.
This is a fix for p1k2l3m4n5o6 which should have included this change.
"""
from collections.abc import Sequence
from alembic import context, op
# revision identifiers, used by Alembic.
revision: str = "q2l3m4n5o6p7"
down_revision: str | Sequence[str] | None = "p1k2l3m4n5o6"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Add 'mental_model' to the fact_type check constraint."""
schema = _get_schema_prefix()
# Drop the old constraint and add the new one with mental_model included
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation', 'mental_model'))
""")
def downgrade() -> None:
"""Remove 'mental_model' from the fact_type check constraint."""
schema = _get_schema_prefix()
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation'))
""")
@@ -1,47 +0,0 @@
"""Add reflect_response JSONB column to reflections
Revision ID: r3m4n5o6p7q8
Revises: q2l3m4n5o6p7
Create Date: 2026-01-21
This migration adds a reflect_response JSONB column to store the full
reflect API response payload, including based_on facts and trace data.
Note: Table was renamed from pinned_reflections to reflections in p1k2l3m4n5o6.
"""
from collections.abc import Sequence
from alembic import context, op
revision: str = "r3m4n5o6p7q8"
down_revision: str | Sequence[str] | None = "q2l3m4n5o6p7"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Add reflect_response JSONB column to reflections."""
schema = _get_schema_prefix()
# Add reflect_response column to store the full reflect API response
op.execute(f"""
ALTER TABLE {schema}reflections
ADD COLUMN IF NOT EXISTS reflect_response JSONB
""")
def downgrade() -> None:
"""Remove reflect_response column from reflections."""
schema = _get_schema_prefix()
op.execute(f"""
ALTER TABLE {schema}reflections
DROP COLUMN IF EXISTS reflect_response
""")
@@ -1,53 +0,0 @@
"""Add consolidated_at column to memory_units for incremental consolidation tracking.
This allows consolidation to track progress at the memory level rather than
using a bank-level watermark. If consolidation crashes, already-processed
memories won't be reprocessed.
Revision ID: s4n5o6p7q8r9
Revises: r3m4n5o6p7q8
Create Date: 2025-01-22
"""
from collections.abc import Sequence
from alembic import context, op
revision: str = "s4n5o6p7q8r9"
down_revision: str | Sequence[str] | None = "r3m4n5o6p7q8"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
schema = _get_schema_prefix()
# Add consolidated_at column to memory_units
op.execute(
f"""
ALTER TABLE {schema}memory_units
ADD COLUMN IF NOT EXISTS consolidated_at TIMESTAMPTZ DEFAULT NULL
"""
)
# Create index for efficient querying of unconsolidated memories
op.execute(
f"""
CREATE INDEX IF NOT EXISTS idx_memory_units_unconsolidated
ON {schema}memory_units (bank_id, created_at)
WHERE consolidated_at IS NULL AND fact_type IN ('experience', 'world')
"""
)
def downgrade() -> None:
schema = _get_schema_prefix()
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_unconsolidated")
op.execute(f"ALTER TABLE {schema}memory_units DROP COLUMN IF EXISTS consolidated_at")
@@ -1,134 +0,0 @@
"""Rename mental_model fact_type to observation and reflections table to mental_models
Revision ID: t5o6p7q8r9s0
Revises: s4n5o6p7q8r9
Create Date: 2026-01-26
This migration implements the terminology rename:
1. mental_model (fact_type in memory_units) -> observation
2. reflections table -> mental_models table
The new terminology:
- Observations: Consolidated knowledge synthesized from facts (was mental_model)
- Mental Models: Stored reflect responses (was reflections)
"""
from collections.abc import Sequence
from alembic import context, op
revision: str = "t5o6p7q8r9s0"
down_revision: str | Sequence[str] | None = "s4n5o6p7q8r9"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Rename mental_model -> observation and reflections -> mental_models."""
schema = _get_schema_prefix()
# 1. Update fact_type values: mental_model -> observation
op.execute(f"""
UPDATE {schema}memory_units
SET fact_type = 'observation'
WHERE fact_type = 'mental_model'
""")
# 2. Update the CHECK constraint - remove mental_model, keep observation
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation'))
""")
# 3. Rename the index for observations (was for mental_models)
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_mental_models")
op.execute(f"""
CREATE INDEX IF NOT EXISTS idx_memory_units_observations
ON {schema}memory_units(bank_id, fact_type)
WHERE fact_type = 'observation'
""")
# 4. Update the unconsolidated index to not filter by fact_type since observations
# are now the consolidated type
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_unconsolidated")
op.execute(f"""
CREATE INDEX IF NOT EXISTS idx_memory_units_unconsolidated
ON {schema}memory_units (bank_id, created_at)
WHERE consolidated_at IS NULL AND fact_type IN ('experience', 'world')
""")
# 5. Rename reflections table to mental_models
op.execute(f"ALTER TABLE IF EXISTS {schema}reflections RENAME TO mental_models")
# 6. Rename indexes for mental_models (was reflections)
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_bank_id RENAME TO idx_mental_models_bank_id")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_embedding RENAME TO idx_mental_models_embedding")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_tags RENAME TO idx_mental_models_tags")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_reflections_text_search RENAME TO idx_mental_models_text_search")
# 7. Rename foreign key constraint
op.execute(f"""
ALTER TABLE {schema}mental_models
DROP CONSTRAINT IF EXISTS fk_reflections_bank_id
""")
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD CONSTRAINT fk_mental_models_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
def downgrade() -> None:
"""Reverse: observation -> mental_model and mental_models -> reflections."""
schema = _get_schema_prefix()
# 1. Rename mental_models table back to reflections
op.execute(f"ALTER TABLE IF EXISTS {schema}mental_models RENAME TO reflections")
# 2. Rename indexes back
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_mental_models_bank_id RENAME TO idx_reflections_bank_id")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_mental_models_embedding RENAME TO idx_reflections_embedding")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_mental_models_tags RENAME TO idx_reflections_tags")
op.execute(f"ALTER INDEX IF EXISTS {schema}idx_mental_models_text_search RENAME TO idx_reflections_text_search")
# 3. Rename foreign key back
op.execute(f"""
ALTER TABLE {schema}reflections
DROP CONSTRAINT IF EXISTS fk_mental_models_bank_id
""")
op.execute(f"""
ALTER TABLE {schema}reflections
ADD CONSTRAINT fk_reflections_bank_id
FOREIGN KEY (bank_id) REFERENCES {schema}banks(bank_id) ON DELETE CASCADE
""")
# 4. Update fact_type values: observation -> mental_model
op.execute(f"""
UPDATE {schema}memory_units
SET fact_type = 'mental_model'
WHERE fact_type = 'observation'
""")
# 5. Update the CHECK constraint back
op.execute(f"ALTER TABLE {schema}memory_units DROP CONSTRAINT IF EXISTS memory_units_fact_type_check")
op.execute(f"""
ALTER TABLE {schema}memory_units
ADD CONSTRAINT memory_units_fact_type_check
CHECK (fact_type IN ('world', 'experience', 'opinion', 'observation', 'mental_model'))
""")
# 6. Rename index back
op.execute(f"DROP INDEX IF EXISTS {schema}idx_memory_units_observations")
op.execute(f"""
CREATE INDEX IF NOT EXISTS idx_memory_units_mental_models
ON {schema}memory_units(bank_id, fact_type)
WHERE fact_type = 'mental_model'
""")
@@ -1,41 +0,0 @@
"""Change mental_models.id from UUID to TEXT
Revision ID: u6p7q8r9s0t1
Revises: t5o6p7q8r9s0
Create Date: 2026-01-27
This migration changes the mental_models.id column from UUID to TEXT
to support user-defined text identifiers like 'team-communication' instead of UUIDs.
"""
from collections.abc import Sequence
from alembic import context, op
revision: str = "u6p7q8r9s0t1"
down_revision: str | Sequence[str] | None = "t5o6p7q8r9s0"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Change mental_models.id from UUID to TEXT."""
schema = _get_schema_prefix()
# Change the id column type from UUID to TEXT
# Existing UUIDs will be converted to their string representation
op.execute(f"ALTER TABLE {schema}mental_models ALTER COLUMN id TYPE TEXT USING id::TEXT")
def downgrade() -> None:
"""Revert mental_models.id from TEXT to UUID."""
schema = _get_schema_prefix()
# Note: This will fail if any id values are not valid UUIDs
op.execute(f"ALTER TABLE {schema}mental_models ALTER COLUMN id TYPE UUID USING id::UUID")
@@ -1,50 +0,0 @@
"""Add max_tokens and trigger columns to mental_models
Revision ID: v7q8r9s0t1u2
Revises: u6p7q8r9s0t1
Create Date: 2026-01-27
This migration adds:
- max_tokens column: token limit for content generation during refresh
- trigger column: JSONB for trigger settings (e.g., refresh_after_consolidation)
"""
from collections.abc import Sequence
from alembic import context, op
revision: str = "v7q8r9s0t1u2"
down_revision: str | Sequence[str] | None = "u6p7q8r9s0t1"
branch_labels: str | Sequence[str] | None = None
depends_on: str | Sequence[str] | None = None
def _get_schema_prefix() -> str:
"""Get schema prefix for table names (required for multi-tenant support)."""
schema = context.config.get_main_option("target_schema")
return f'"{schema}".' if schema else ""
def upgrade() -> None:
"""Add max_tokens and trigger columns to mental_models."""
schema = _get_schema_prefix()
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD COLUMN IF NOT EXISTS max_tokens INT NOT NULL DEFAULT 2048
""")
# trigger column stores trigger settings as JSONB
# Default: refresh_after_consolidation = false (not "real time")
op.execute(f"""
ALTER TABLE {schema}mental_models
ADD COLUMN IF NOT EXISTS trigger JSONB NOT NULL DEFAULT '{{"refresh_after_consolidation": false}}'::jsonb
""")
def downgrade() -> None:
"""Remove max_tokens and trigger columns from mental_models."""
schema = _get_schema_prefix()
op.execute(f"ALTER TABLE {schema}mental_models DROP COLUMN IF EXISTS max_tokens")
op.execute(f"ALTER TABLE {schema}mental_models DROP COLUMN IF EXISTS trigger")
File diff suppressed because it is too large Load Diff
+190 -10
View File
@@ -1,4 +1,4 @@
"""Hindsight MCP Server implementation using FastMCP (HTTP transport)."""
"""Hindsight MCP Server implementation using FastMCP."""
import json
import logging
@@ -8,7 +8,8 @@ from contextvars import ContextVar
from fastmcp import FastMCP
from hindsight_api import MemoryEngine
from hindsight_api.mcp_tools import MCPToolsConfig, register_mcp_tools
from hindsight_api.engine.response_models import VALID_RECALL_FACT_TYPES
from hindsight_api.models import RequestContext
# Configure logging from HINDSIGHT_API_LOG_LEVEL environment variable
_log_level_str = os.environ.get("HINDSIGHT_API_LOG_LEVEL", "info").lower()
@@ -51,15 +52,194 @@ def create_mcp_server(memory: MemoryEngine) -> FastMCP:
# Use stateless_http=True for Claude Code compatibility
mcp = FastMCP("hindsight-mcp-server", stateless_http=True)
# Configure and register tools using shared module
config = MCPToolsConfig(
bank_id_resolver=get_current_bank_id,
include_bank_id_param=True, # HTTP MCP supports multi-bank via parameter
tools=None, # All tools
retain_fire_and_forget=False, # HTTP MCP supports sync/async modes
)
@mcp.tool()
async def retain(
content: str,
context: str = "general",
async_processing: bool = True,
bank_id: str | None = None,
) -> str:
"""
Store important information to long-term memory.
register_mcp_tools(mcp, memory, config)
Use this tool PROACTIVELY whenever the user shares:
- Personal facts, preferences, or interests
- Important events or milestones
- User history, experiences, or background
- Decisions, opinions, or stated preferences
- Goals, plans, or future intentions
- Relationships or people mentioned
- Work context, projects, or responsibilities
Args:
content: The fact/memory to store (be specific and include relevant details)
context: Category for the memory (e.g., 'preferences', 'work', 'hobbies', 'family'). Default: 'general'
async_processing: If True, queue for background processing and return immediately. If False, wait for completion. Default: True
bank_id: Optional bank to store in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or get_current_bank_id()
if target_bank is None:
return "Error: No bank_id configured"
contents = [{"content": content, "context": context}]
if async_processing:
# Queue for background processing and return immediately
result = await memory.submit_async_retain(
bank_id=target_bank, contents=contents, request_context=RequestContext()
)
return f"Memory queued for background processing (operation_id: {result.get('operation_id', 'N/A')})"
else:
# Wait for completion
await memory.retain_batch_async(
bank_id=target_bank,
contents=contents,
request_context=RequestContext(),
)
return f"Memory stored successfully in bank '{target_bank}'"
except Exception as e:
logger.error(f"Error storing memory: {e}", exc_info=True)
return f"Error: {str(e)}"
@mcp.tool()
async def recall(query: str, max_tokens: int = 4096, bank_id: str | None = None) -> str:
"""
Search memories to provide personalized, context-aware responses.
Use this tool PROACTIVELY to:
- Check user's preferences before making suggestions
- Recall user's history to provide continuity
- Remember user's goals and context
- Personalize responses based on past interactions
Args:
query: Natural language search query (e.g., "user's food preferences", "what projects is user working on")
max_tokens: Maximum tokens in the response (default: 4096)
bank_id: Optional bank to search in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or get_current_bank_id()
if target_bank is None:
return "Error: No bank_id configured"
from hindsight_api.engine.memory_engine import Budget
recall_result = await memory.recall_async(
bank_id=target_bank,
query=query,
fact_type=list(VALID_RECALL_FACT_TYPES),
budget=Budget.HIGH,
max_tokens=max_tokens,
request_context=RequestContext(),
)
# Use model's JSON serialization
return recall_result.model_dump_json(indent=2)
except Exception as e:
logger.error(f"Error searching: {e}", exc_info=True)
return f'{{"error": "{e}", "results": []}}'
@mcp.tool()
async def reflect(query: str, context: str | None = None, budget: str = "low", bank_id: str | None = None) -> str:
"""
Generate thoughtful analysis by synthesizing stored memories with the bank's personality.
WHEN TO USE THIS TOOL:
Use reflect when you need reasoned analysis, not just fact retrieval. This tool
thinks through the question using everything the bank knows and its personality traits.
EXAMPLES OF GOOD QUERIES:
- "What patterns have emerged in how I approach debugging?"
- "Based on my past decisions, what architectural style do I prefer?"
- "What might be the best approach for this problem given what you know about me?"
- "How should I prioritize these tasks based on my goals?"
HOW IT DIFFERS FROM RECALL:
- recall: Returns raw facts matching your search (fast lookup)
- reflect: Reasons across memories to form a synthesized answer (deeper analysis)
Use recall for "what did I say about X?" and reflect for "what should I do about X?"
Args:
query: The question or topic to reflect on
context: Optional context about why this reflection is needed
budget: Search budget - 'low', 'mid', or 'high' (default: 'low')
bank_id: Optional bank to reflect in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or get_current_bank_id()
if target_bank is None:
return "Error: No bank_id configured"
from hindsight_api.engine.memory_engine import Budget
# Map string budget to enum
budget_map = {"low": Budget.LOW, "mid": Budget.MID, "high": Budget.HIGH}
budget_enum = budget_map.get(budget.lower(), Budget.LOW)
reflect_result = await memory.reflect_async(
bank_id=target_bank,
query=query,
budget=budget_enum,
context=context,
request_context=RequestContext(),
)
return reflect_result.model_dump_json(indent=2)
except Exception as e:
logger.error(f"Error reflecting: {e}", exc_info=True)
return f'{{"error": "{e}", "text": ""}}'
@mcp.tool()
async def list_banks() -> str:
"""
List all available memory banks.
Use this tool to discover what memory banks exist in the system.
Each bank is an isolated memory store (like a separate "brain").
Returns:
JSON list of banks with their IDs, names, dispositions, and backgrounds.
"""
try:
banks = await memory.list_banks(request_context=RequestContext())
return json.dumps({"banks": banks}, indent=2)
except Exception as e:
logger.error(f"Error listing banks: {e}", exc_info=True)
return f'{{"error": "{e}", "banks": []}}'
@mcp.tool()
async def create_bank(bank_id: str, name: str | None = None, background: str | None = None) -> str:
"""
Create a new memory bank or get an existing one.
Memory banks are isolated stores - each one is like a separate "brain" for a user/agent.
Banks are auto-created with default settings if they don't exist.
Args:
bank_id: Unique identifier for the bank (e.g., 'user-123', 'agent-alpha')
name: Optional human-friendly name for the bank
background: Optional background context about the bank's owner/purpose
"""
try:
# get_bank_profile auto-creates bank if it doesn't exist
profile = await memory.get_bank_profile(bank_id, request_context=RequestContext())
# Update name/background if provided
if name is not None or background is not None:
await memory.update_bank(
bank_id,
name=name,
background=background,
request_context=RequestContext(),
)
# Fetch updated profile
profile = await memory.get_bank_profile(bank_id, request_context=RequestContext())
# Serialize disposition if it's a Pydantic model
if "disposition" in profile and hasattr(profile["disposition"], "model_dump"):
profile["disposition"] = profile["disposition"].model_dump()
return json.dumps(profile, indent=2)
except Exception as e:
logger.error(f"Error creating bank: {e}", exc_info=True)
return f'{{"error": "{e}"}}'
return mcp
+43 -139
View File
@@ -4,12 +4,9 @@ Centralized configuration for Hindsight API.
All environment variables and their defaults are defined here.
"""
import json
import logging
import os
import sys
from dataclasses import dataclass
from datetime import datetime, timezone
from dotenv import find_dotenv, load_dotenv
@@ -39,11 +36,6 @@ ENV_REFLECT_LLM_API_KEY = "HINDSIGHT_API_REFLECT_LLM_API_KEY"
ENV_REFLECT_LLM_MODEL = "HINDSIGHT_API_REFLECT_LLM_MODEL"
ENV_REFLECT_LLM_BASE_URL = "HINDSIGHT_API_REFLECT_LLM_BASE_URL"
ENV_CONSOLIDATION_LLM_PROVIDER = "HINDSIGHT_API_CONSOLIDATION_LLM_PROVIDER"
ENV_CONSOLIDATION_LLM_API_KEY = "HINDSIGHT_API_CONSOLIDATION_LLM_API_KEY"
ENV_CONSOLIDATION_LLM_MODEL = "HINDSIGHT_API_CONSOLIDATION_LLM_MODEL"
ENV_CONSOLIDATION_LLM_BASE_URL = "HINDSIGHT_API_CONSOLIDATION_LLM_BASE_URL"
ENV_EMBEDDINGS_PROVIDER = "HINDSIGHT_API_EMBEDDINGS_PROVIDER"
ENV_EMBEDDINGS_LOCAL_MODEL = "HINDSIGHT_API_EMBEDDINGS_LOCAL_MODEL"
ENV_EMBEDDINGS_TEI_URL = "HINDSIGHT_API_EMBEDDINGS_TEI_URL"
@@ -76,7 +68,6 @@ ENV_RERANKER_FLASHRANK_CACHE_DIR = "HINDSIGHT_API_RERANKER_FLASHRANK_CACHE_DIR"
ENV_HOST = "HINDSIGHT_API_HOST"
ENV_PORT = "HINDSIGHT_API_PORT"
ENV_LOG_LEVEL = "HINDSIGHT_API_LOG_LEVEL"
ENV_LOG_FORMAT = "HINDSIGHT_API_LOG_FORMAT"
ENV_WORKERS = "HINDSIGHT_API_WORKERS"
ENV_MCP_ENABLED = "HINDSIGHT_API_MCP_ENABLED"
ENV_GRAPH_RETRIEVER = "HINDSIGHT_API_GRAPH_RETRIEVER"
@@ -85,7 +76,10 @@ ENV_RECALL_MAX_CONCURRENT = "HINDSIGHT_API_RECALL_MAX_CONCURRENT"
ENV_RECALL_CONNECTION_BUDGET = "HINDSIGHT_API_RECALL_CONNECTION_BUDGET"
ENV_MCP_LOCAL_BANK_ID = "HINDSIGHT_API_MCP_LOCAL_BANK_ID"
ENV_MCP_INSTRUCTIONS = "HINDSIGHT_API_MCP_INSTRUCTIONS"
ENV_MENTAL_MODEL_REFRESH_CONCURRENCY = "HINDSIGHT_API_MENTAL_MODEL_REFRESH_CONCURRENCY"
# Observation thresholds
ENV_OBSERVATION_MIN_FACTS = "HINDSIGHT_API_OBSERVATION_MIN_FACTS"
ENV_OBSERVATION_TOP_ENTITIES = "HINDSIGHT_API_OBSERVATION_TOP_ENTITIES"
# Retain settings
ENV_RETAIN_MAX_COMPLETION_TOKENS = "HINDSIGHT_API_RETAIN_MAX_COMPLETION_TOKENS"
@@ -94,10 +88,6 @@ ENV_RETAIN_EXTRACT_CAUSAL_LINKS = "HINDSIGHT_API_RETAIN_EXTRACT_CAUSAL_LINKS"
ENV_RETAIN_EXTRACTION_MODE = "HINDSIGHT_API_RETAIN_EXTRACTION_MODE"
ENV_RETAIN_OBSERVATIONS_ASYNC = "HINDSIGHT_API_RETAIN_OBSERVATIONS_ASYNC"
# Observations settings (consolidated knowledge from facts)
ENV_ENABLE_OBSERVATIONS = "HINDSIGHT_API_ENABLE_OBSERVATIONS"
ENV_CONSOLIDATION_BATCH_SIZE = "HINDSIGHT_API_CONSOLIDATION_BATCH_SIZE"
# Optimization flags
ENV_SKIP_LLM_VERIFICATION = "HINDSIGHT_API_SKIP_LLM_VERIFICATION"
ENV_LAZY_RERANKER = "HINDSIGHT_API_LAZY_RERANKER"
@@ -111,16 +101,10 @@ ENV_DB_POOL_MAX_SIZE = "HINDSIGHT_API_DB_POOL_MAX_SIZE"
ENV_DB_COMMAND_TIMEOUT = "HINDSIGHT_API_DB_COMMAND_TIMEOUT"
ENV_DB_ACQUIRE_TIMEOUT = "HINDSIGHT_API_DB_ACQUIRE_TIMEOUT"
# Worker configuration (distributed task processing)
ENV_WORKER_ENABLED = "HINDSIGHT_API_WORKER_ENABLED"
ENV_WORKER_ID = "HINDSIGHT_API_WORKER_ID"
ENV_WORKER_POLL_INTERVAL_MS = "HINDSIGHT_API_WORKER_POLL_INTERVAL_MS"
ENV_WORKER_MAX_RETRIES = "HINDSIGHT_API_WORKER_MAX_RETRIES"
ENV_WORKER_BATCH_SIZE = "HINDSIGHT_API_WORKER_BATCH_SIZE"
ENV_WORKER_HTTP_PORT = "HINDSIGHT_API_WORKER_HTTP_PORT"
# Reflect agent settings
ENV_REFLECT_MAX_ITERATIONS = "HINDSIGHT_API_REFLECT_MAX_ITERATIONS"
# Background task processing
ENV_TASK_BACKEND = "HINDSIGHT_API_TASK_BACKEND"
ENV_TASK_BACKEND_MEMORY_BATCH_SIZE = "HINDSIGHT_API_TASK_BACKEND_MEMORY_BATCH_SIZE"
ENV_TASK_BACKEND_MEMORY_BATCH_INTERVAL = "HINDSIGHT_API_TASK_BACKEND_MEMORY_BATCH_INTERVAL"
# Default values
DEFAULT_DATABASE_URL = "pg0"
@@ -154,7 +138,6 @@ DEFAULT_RERANKER_LITELLM_MODEL = "cohere/rerank-english-v3.0"
DEFAULT_HOST = "0.0.0.0"
DEFAULT_PORT = 8888
DEFAULT_LOG_LEVEL = "info"
DEFAULT_LOG_FORMAT = "text" # Options: "text", "json"
DEFAULT_WORKERS = 1
DEFAULT_MCP_ENABLED = True
DEFAULT_GRAPH_RETRIEVER = "link_expansion" # Options: "link_expansion", "mpfp", "bfs"
@@ -162,7 +145,10 @@ DEFAULT_MPFP_TOP_K_NEIGHBORS = 20 # Fan-out limit per node in MPFP graph traver
DEFAULT_RECALL_MAX_CONCURRENT = 32 # Max concurrent recall operations per worker
DEFAULT_RECALL_CONNECTION_BUDGET = 4 # Max concurrent DB connections per recall operation
DEFAULT_MCP_LOCAL_BANK_ID = "mcp"
DEFAULT_MENTAL_MODEL_REFRESH_CONCURRENCY = 8 # Max concurrent mental model refreshes
# Observation thresholds
DEFAULT_OBSERVATION_MIN_FACTS = 5 # Min facts required to generate entity observations
DEFAULT_OBSERVATION_TOP_ENTITIES = 5 # Max entities to process per retain batch
# Retain settings
DEFAULT_RETAIN_MAX_COMPLETION_TOKENS = 64000 # Max tokens for fact extraction LLM call
@@ -172,10 +158,6 @@ DEFAULT_RETAIN_EXTRACTION_MODE = "concise" # Extraction mode: "concise" or "ver
RETAIN_EXTRACTION_MODES = ("concise", "verbose") # Allowed extraction modes
DEFAULT_RETAIN_OBSERVATIONS_ASYNC = False # Run observation generation async (after retain completes)
# Observations defaults (consolidated knowledge from facts)
DEFAULT_ENABLE_OBSERVATIONS = True # Observations enabled by default
DEFAULT_CONSOLIDATION_BATCH_SIZE = 50 # Memories to load per batch (internal memory optimization)
# Database migrations
DEFAULT_RUN_MIGRATIONS_ON_STARTUP = True
@@ -185,16 +167,10 @@ DEFAULT_DB_POOL_MAX_SIZE = 100
DEFAULT_DB_COMMAND_TIMEOUT = 60 # seconds
DEFAULT_DB_ACQUIRE_TIMEOUT = 30 # seconds
# Worker configuration (distributed task processing)
DEFAULT_WORKER_ENABLED = True # API runs worker by default (standalone mode)
DEFAULT_WORKER_ID = None # Will use hostname if not specified
DEFAULT_WORKER_POLL_INTERVAL_MS = 500 # Poll database every 500ms
DEFAULT_WORKER_MAX_RETRIES = 3 # Max retries before marking task failed
DEFAULT_WORKER_BATCH_SIZE = 10 # Tasks to claim per poll cycle
DEFAULT_WORKER_HTTP_PORT = 8889 # HTTP port for worker metrics/health
# Reflect agent settings
DEFAULT_REFLECT_MAX_ITERATIONS = 10 # Max tool call iterations before forcing response
# Background task processing
DEFAULT_TASK_BACKEND = "memory" # Options: "memory", "noop"
DEFAULT_TASK_BACKEND_MEMORY_BATCH_SIZE = 10
DEFAULT_TASK_BACKEND_MEMORY_BATCH_INTERVAL = 1.0 # seconds
# Default MCP tool descriptions (can be customized via env vars)
DEFAULT_MCP_RETAIN_DESCRIPTION = """Store important information to long-term memory.
@@ -220,36 +196,6 @@ Use this tool PROACTIVELY to:
EMBEDDING_DIMENSION = DEFAULT_EMBEDDING_DIMENSION
class JsonFormatter(logging.Formatter):
"""JSON formatter for structured logging.
Outputs logs in JSON format with a 'severity' field that cloud logging
systems (GCP, AWS CloudWatch, etc.) can parse to correctly categorize log levels.
"""
SEVERITY_MAP = {
logging.DEBUG: "DEBUG",
logging.INFO: "INFO",
logging.WARNING: "WARNING",
logging.ERROR: "ERROR",
logging.CRITICAL: "CRITICAL",
}
def format(self, record: logging.LogRecord) -> str:
log_entry = {
"severity": self.SEVERITY_MAP.get(record.levelno, "DEFAULT"),
"message": record.getMessage(),
"timestamp": datetime.now(timezone.utc).isoformat(),
"logger": record.name,
}
# Add exception info if present
if record.exc_info:
log_entry["exception"] = self.formatException(record.exc_info)
return json.dumps(log_entry)
def _validate_extraction_mode(mode: str) -> str:
"""Validate and normalize extraction mode."""
mode_lower = mode.lower()
@@ -288,11 +234,6 @@ class HindsightConfig:
reflect_llm_model: str | None
reflect_llm_base_url: str | None
consolidation_llm_provider: str | None
consolidation_llm_api_key: str | None
consolidation_llm_model: str | None
consolidation_llm_base_url: str | None
# Embeddings
embeddings_provider: str
embeddings_local_model: str
@@ -313,7 +254,6 @@ class HindsightConfig:
host: str
port: int
log_level: str
log_format: str
mcp_enabled: bool
# Recall
@@ -321,7 +261,10 @@ class HindsightConfig:
mpfp_top_k_neighbors: int
recall_max_concurrent: int
recall_connection_budget: int
mental_model_refresh_concurrency: int
# Observation thresholds
observation_min_facts: int
observation_top_entities: int
# Retain settings
retain_max_completion_tokens: int
@@ -330,10 +273,6 @@ class HindsightConfig:
retain_extraction_mode: str
retain_observations_async: bool
# Observations settings (consolidated knowledge from facts)
enable_observations: bool
consolidation_batch_size: int
# Optimization flags
skip_llm_verification: bool
lazy_reranker: bool
@@ -347,16 +286,10 @@ class HindsightConfig:
db_command_timeout: int
db_acquire_timeout: int
# Worker configuration (distributed task processing)
worker_enabled: bool
worker_id: str | None
worker_poll_interval_ms: int
worker_max_retries: int
worker_batch_size: int
worker_http_port: int
# Reflect agent settings
reflect_max_iterations: int
# Background task processing
task_backend: str
task_backend_memory_batch_size: int
task_backend_memory_batch_interval: float
@classmethod
def from_env(cls) -> "HindsightConfig":
@@ -380,10 +313,6 @@ class HindsightConfig:
reflect_llm_api_key=os.getenv(ENV_REFLECT_LLM_API_KEY) or None,
reflect_llm_model=os.getenv(ENV_REFLECT_LLM_MODEL) or None,
reflect_llm_base_url=os.getenv(ENV_REFLECT_LLM_BASE_URL) or None,
consolidation_llm_provider=os.getenv(ENV_CONSOLIDATION_LLM_PROVIDER) or None,
consolidation_llm_api_key=os.getenv(ENV_CONSOLIDATION_LLM_API_KEY) or None,
consolidation_llm_model=os.getenv(ENV_CONSOLIDATION_LLM_MODEL) or None,
consolidation_llm_base_url=os.getenv(ENV_CONSOLIDATION_LLM_BASE_URL) or None,
# Embeddings
embeddings_provider=os.getenv(ENV_EMBEDDINGS_PROVIDER, DEFAULT_EMBEDDINGS_PROVIDER),
embeddings_local_model=os.getenv(ENV_EMBEDDINGS_LOCAL_MODEL, DEFAULT_EMBEDDINGS_LOCAL_MODEL),
@@ -404,7 +333,6 @@ class HindsightConfig:
host=os.getenv(ENV_HOST, DEFAULT_HOST),
port=int(os.getenv(ENV_PORT, DEFAULT_PORT)),
log_level=os.getenv(ENV_LOG_LEVEL, DEFAULT_LOG_LEVEL),
log_format=os.getenv(ENV_LOG_FORMAT, DEFAULT_LOG_FORMAT).lower(),
mcp_enabled=os.getenv(ENV_MCP_ENABLED, str(DEFAULT_MCP_ENABLED)).lower() == "true",
# Recall
graph_retriever=os.getenv(ENV_GRAPH_RETRIEVER, DEFAULT_GRAPH_RETRIEVER),
@@ -413,12 +341,14 @@ class HindsightConfig:
recall_connection_budget=int(
os.getenv(ENV_RECALL_CONNECTION_BUDGET, str(DEFAULT_RECALL_CONNECTION_BUDGET))
),
mental_model_refresh_concurrency=int(
os.getenv(ENV_MENTAL_MODEL_REFRESH_CONCURRENCY, str(DEFAULT_MENTAL_MODEL_REFRESH_CONCURRENCY))
),
# Optimization flags
skip_llm_verification=os.getenv(ENV_SKIP_LLM_VERIFICATION, "false").lower() == "true",
lazy_reranker=os.getenv(ENV_LAZY_RERANKER, "false").lower() == "true",
# Observation thresholds
observation_min_facts=int(os.getenv(ENV_OBSERVATION_MIN_FACTS, str(DEFAULT_OBSERVATION_MIN_FACTS))),
observation_top_entities=int(
os.getenv(ENV_OBSERVATION_TOP_ENTITIES, str(DEFAULT_OBSERVATION_TOP_ENTITIES))
),
# Retain settings
retain_max_completion_tokens=int(
os.getenv(ENV_RETAIN_MAX_COMPLETION_TOKENS, str(DEFAULT_RETAIN_MAX_COMPLETION_TOKENS))
@@ -435,11 +365,6 @@ class HindsightConfig:
ENV_RETAIN_OBSERVATIONS_ASYNC, str(DEFAULT_RETAIN_OBSERVATIONS_ASYNC)
).lower()
== "true",
# Observations settings (consolidated knowledge from facts)
enable_observations=os.getenv(ENV_ENABLE_OBSERVATIONS, str(DEFAULT_ENABLE_OBSERVATIONS)).lower() == "true",
consolidation_batch_size=int(
os.getenv(ENV_CONSOLIDATION_BATCH_SIZE, str(DEFAULT_CONSOLIDATION_BATCH_SIZE))
),
# Database migrations
run_migrations_on_startup=os.getenv(ENV_RUN_MIGRATIONS_ON_STARTUP, "true").lower() == "true",
# Database connection pool
@@ -447,15 +372,14 @@ class HindsightConfig:
db_pool_max_size=int(os.getenv(ENV_DB_POOL_MAX_SIZE, str(DEFAULT_DB_POOL_MAX_SIZE))),
db_command_timeout=int(os.getenv(ENV_DB_COMMAND_TIMEOUT, str(DEFAULT_DB_COMMAND_TIMEOUT))),
db_acquire_timeout=int(os.getenv(ENV_DB_ACQUIRE_TIMEOUT, str(DEFAULT_DB_ACQUIRE_TIMEOUT))),
# Worker configuration
worker_enabled=os.getenv(ENV_WORKER_ENABLED, str(DEFAULT_WORKER_ENABLED)).lower() == "true",
worker_id=os.getenv(ENV_WORKER_ID) or DEFAULT_WORKER_ID,
worker_poll_interval_ms=int(os.getenv(ENV_WORKER_POLL_INTERVAL_MS, str(DEFAULT_WORKER_POLL_INTERVAL_MS))),
worker_max_retries=int(os.getenv(ENV_WORKER_MAX_RETRIES, str(DEFAULT_WORKER_MAX_RETRIES))),
worker_batch_size=int(os.getenv(ENV_WORKER_BATCH_SIZE, str(DEFAULT_WORKER_BATCH_SIZE))),
worker_http_port=int(os.getenv(ENV_WORKER_HTTP_PORT, str(DEFAULT_WORKER_HTTP_PORT))),
# Reflect agent settings
reflect_max_iterations=int(os.getenv(ENV_REFLECT_MAX_ITERATIONS, str(DEFAULT_REFLECT_MAX_ITERATIONS))),
# Background task processing
task_backend=os.getenv(ENV_TASK_BACKEND, DEFAULT_TASK_BACKEND),
task_backend_memory_batch_size=int(
os.getenv(ENV_TASK_BACKEND_MEMORY_BATCH_SIZE, str(DEFAULT_TASK_BACKEND_MEMORY_BATCH_SIZE))
),
task_backend_memory_batch_interval=float(
os.getenv(ENV_TASK_BACKEND_MEMORY_BATCH_INTERVAL, str(DEFAULT_TASK_BACKEND_MEMORY_BATCH_INTERVAL))
),
)
def get_llm_base_url(self) -> str:
@@ -486,28 +410,12 @@ class HindsightConfig:
return log_level_map.get(self.log_level.lower(), logging.INFO)
def configure_logging(self) -> None:
"""Configure Python logging based on the log level and format.
When log_format is "json", outputs structured JSON logs with a severity
field that GCP Cloud Logging can parse for proper log level categorization.
"""
root_logger = logging.getLogger()
root_logger.setLevel(self.get_python_log_level())
# Remove existing handlers
for handler in root_logger.handlers[:]:
root_logger.removeHandler(handler)
# Create handler writing to stdout (GCP treats stderr as ERROR)
handler = logging.StreamHandler(sys.stdout)
handler.setLevel(self.get_python_log_level())
if self.log_format == "json":
handler.setFormatter(JsonFormatter())
else:
handler.setFormatter(logging.Formatter("%(asctime)s - %(levelname)s - %(name)s - %(message)s"))
root_logger.addHandler(handler)
"""Configure Python logging based on the log level."""
logging.basicConfig(
level=self.get_python_log_level(),
format="%(asctime)s - %(levelname)s - %(name)s - %(message)s",
force=True, # Override any existing configuration
)
def log_config(self) -> None:
"""Log the current configuration (without sensitive values)."""
@@ -521,10 +429,6 @@ class HindsightConfig:
reflect_provider = self.reflect_llm_provider or self.llm_provider
reflect_model = self.reflect_llm_model or self.llm_model
logger.info(f"LLM (reflect): provider={reflect_provider}, model={reflect_model}")
if self.consolidation_llm_provider or self.consolidation_llm_model:
consolidation_provider = self.consolidation_llm_provider or self.llm_provider
consolidation_model = self.consolidation_llm_model or self.llm_model
logger.info(f"LLM (consolidation): provider={consolidation_provider}, model={consolidation_model}")
logger.info(f"Embeddings: provider={self.embeddings_provider}")
logger.info(f"Reranker: provider={self.reranker_provider}")
logger.info(f"Graph retriever: {self.graph_retriever}")
@@ -1,5 +0,0 @@
"""Consolidation engine for automatic learning creation from memories."""
from .consolidator import run_consolidation_job
__all__ = ["run_consolidation_job"]
@@ -1,859 +0,0 @@
"""Consolidation engine for automatic observation creation from memories.
The consolidation engine runs as a background job after retain operations complete.
It processes new memories and either:
- Creates new observations from novel facts
- Updates existing observations when new evidence supports/contradicts/refines them
Observations are stored in memory_units with fact_type='observation' and include:
- proof_count: Number of supporting memories
- source_memory_ids: Array of memory UUIDs that contribute to this observation
- history: JSONB tracking changes over time
"""
import json
import logging
import time
import uuid
from datetime import datetime, timezone
from typing import TYPE_CHECKING, Any
from ..memory_engine import fq_table
from ..retain import embedding_utils
from .prompts import (
CONSOLIDATION_SYSTEM_PROMPT,
CONSOLIDATION_USER_PROMPT,
)
if TYPE_CHECKING:
from asyncpg import Connection
from ...api.http import RequestContext
from ..memory_engine import MemoryEngine
logger = logging.getLogger(__name__)
class ConsolidationPerfLog:
"""Performance logging for consolidation operations."""
def __init__(self, bank_id: str):
self.bank_id = bank_id
self.start_time = time.time()
self.lines: list[str] = []
self.timings: dict[str, float] = {}
def log(self, message: str) -> None:
"""Add a log line."""
self.lines.append(message)
def record_timing(self, key: str, duration: float) -> None:
"""Record a timing measurement."""
if key in self.timings:
self.timings[key] += duration
else:
self.timings[key] = duration
def flush(self) -> None:
"""Flush all log lines to the logger."""
total_time = time.time() - self.start_time
header = f"\n{'=' * 60}\nCONSOLIDATION for bank {self.bank_id}"
footer = f"{'=' * 60}\nCONSOLIDATION COMPLETE: {total_time:.3f}s total\n{'=' * 60}"
log_output = header + "\n" + "\n".join(self.lines) + "\n" + footer
logger.info(log_output)
async def run_consolidation_job(
memory_engine: "MemoryEngine",
bank_id: str,
request_context: "RequestContext",
) -> dict[str, Any]:
"""
Run consolidation job for a bank.
This is called after retain operations to consolidate new memories into mental models.
Args:
memory_engine: MemoryEngine instance
bank_id: Bank identifier
request_context: Request context for authentication
Returns:
Dict with consolidation results
"""
from ...config import get_config
config = get_config()
perf = ConsolidationPerfLog(bank_id)
max_memories_per_batch = config.consolidation_batch_size
# Check if consolidation is enabled
if not config.enable_observations:
logger.debug(f"Consolidation disabled for bank {bank_id}")
return {"status": "disabled", "bank_id": bank_id}
pool = memory_engine._pool
# Get bank profile
async with pool.acquire() as conn:
t0 = time.time()
bank_row = await conn.fetchrow(
f"""
SELECT bank_id, name, mission
FROM {fq_table("banks")}
WHERE bank_id = $1
""",
bank_id,
)
if not bank_row:
logger.warning(f"Bank {bank_id} not found for consolidation")
return {"status": "bank_not_found", "bank_id": bank_id}
mission = bank_row["mission"] or "General memory consolidation"
perf.record_timing("fetch_bank", time.time() - t0)
# Count total unconsolidated memories for progress logging
total_count = await conn.fetchval(
f"""
SELECT COUNT(*)
FROM {fq_table("memory_units")}
WHERE bank_id = $1
AND consolidated_at IS NULL
AND fact_type IN ('experience', 'world')
""",
bank_id,
)
if total_count == 0:
logger.debug(f"No new memories to consolidate for bank {bank_id}")
return {"status": "no_new_memories", "bank_id": bank_id, "memories_processed": 0}
logger.info(f"[CONSOLIDATION] bank={bank_id} total_unconsolidated={total_count}")
perf.log(f"[1] Found {total_count} pending memories to consolidate")
# Process each memory with individual commits for crash recovery
stats = {
"memories_processed": 0,
"observations_created": 0,
"observations_updated": 0,
"observations_merged": 0,
"actions_executed": 0,
"skipped": 0,
}
batch_num = 0
while True:
batch_num += 1
batch_start = time.time()
# Fetch next batch of unconsolidated memories
async with pool.acquire() as conn:
t0 = time.time()
memories = await conn.fetch(
f"""
SELECT id, text, fact_type, occurred_start, occurred_end, event_date, tags, mentioned_at
FROM {fq_table("memory_units")}
WHERE bank_id = $1
AND consolidated_at IS NULL
AND fact_type IN ('experience', 'world')
ORDER BY created_at ASC
LIMIT $2
""",
bank_id,
max_memories_per_batch,
)
perf.record_timing("fetch_memories", time.time() - t0)
if not memories:
break # No more unconsolidated memories
for memory in memories:
mem_start = time.time()
# Process the memory (uses its own connection internally)
async with pool.acquire() as conn:
result = await _process_memory(
conn=conn,
memory_engine=memory_engine,
bank_id=bank_id,
memory=dict(memory),
mission=mission,
request_context=request_context,
perf=perf,
)
# Mark memory as consolidated (committed immediately)
await conn.execute(
f"""
UPDATE {fq_table("memory_units")}
SET consolidated_at = NOW()
WHERE id = $1
""",
memory["id"],
)
mem_time = time.time() - mem_start
perf.record_timing("process_memory_total", mem_time)
stats["memories_processed"] += 1
action = result.get("action")
if action == "created":
stats["observations_created"] += 1
stats["actions_executed"] += 1
elif action == "updated":
stats["observations_updated"] += 1
stats["actions_executed"] += 1
elif action == "merged":
stats["observations_merged"] += 1
stats["actions_executed"] += 1
elif action == "multiple":
stats["observations_created"] += result.get("created", 0)
stats["observations_updated"] += result.get("updated", 0)
stats["observations_merged"] += result.get("merged", 0)
stats["actions_executed"] += result.get("total_actions", 0)
elif action == "skipped":
stats["skipped"] += 1
# Log progress periodically
if stats["memories_processed"] % 10 == 0:
logger.info(
f"[CONSOLIDATION] bank={bank_id} progress: "
f"{stats['memories_processed']}/{total_count} memories processed"
)
batch_time = time.time() - batch_start
perf.log(
f"[2] Batch {batch_num}: {len(memories)} memories in {batch_time:.3f}s "
f"(avg {batch_time / len(memories):.3f}s/memory)"
)
# Build summary
perf.log(
f"[3] Results: {stats['memories_processed']} memories -> "
f"{stats['actions_executed']} actions "
f"({stats['observations_created']} created, "
f"{stats['observations_updated']} updated, "
f"{stats['observations_merged']} merged, "
f"{stats['skipped']} skipped)"
)
# Add timing breakdown
timing_parts = []
if "recall" in perf.timings:
timing_parts.append(f"recall={perf.timings['recall']:.3f}s")
if "llm" in perf.timings:
timing_parts.append(f"llm={perf.timings['llm']:.3f}s")
if "embedding" in perf.timings:
timing_parts.append(f"embedding={perf.timings['embedding']:.3f}s")
if "db_write" in perf.timings:
timing_parts.append(f"db_write={perf.timings['db_write']:.3f}s")
if timing_parts:
perf.log(f"[4] Timing breakdown: {', '.join(timing_parts)}")
# Trigger mental model refreshes for models with refresh_after_consolidation=true
mental_models_refreshed = await _trigger_mental_model_refreshes(
memory_engine=memory_engine,
bank_id=bank_id,
request_context=request_context,
perf=perf,
)
stats["mental_models_refreshed"] = mental_models_refreshed
perf.flush()
return {"status": "completed", "bank_id": bank_id, **stats}
async def _trigger_mental_model_refreshes(
memory_engine: "MemoryEngine",
bank_id: str,
request_context: "RequestContext",
perf: ConsolidationPerfLog | None = None,
) -> int:
"""
Trigger refreshes for mental models with refresh_after_consolidation=true.
Args:
memory_engine: MemoryEngine instance
bank_id: Bank identifier
request_context: Request context for authentication
perf: Performance logging
Returns:
Number of mental models scheduled for refresh
"""
pool = memory_engine._pool
# Find mental models with refresh_after_consolidation=true
async with pool.acquire() as conn:
rows = await conn.fetch(
f"""
SELECT id, name
FROM {fq_table("mental_models")}
WHERE bank_id = $1
AND (trigger->>'refresh_after_consolidation')::boolean = true
""",
bank_id,
)
if not rows:
return 0
if perf:
perf.log(f"[5] Triggering refresh for {len(rows)} mental models with refresh_after_consolidation=true")
# Submit refresh tasks for each mental model
refreshed_count = 0
for row in rows:
mental_model_id = row["id"]
try:
await memory_engine.submit_async_refresh_mental_model(
bank_id=bank_id,
mental_model_id=mental_model_id,
request_context=request_context,
)
refreshed_count += 1
logger.info(
f"[CONSOLIDATION] Triggered refresh for mental model {mental_model_id} "
f"(name: {row['name']}) in bank {bank_id}"
)
except Exception as e:
logger.warning(f"[CONSOLIDATION] Failed to trigger refresh for mental model {mental_model_id}: {e}")
return refreshed_count
async def _process_memory(
conn: "Connection",
memory_engine: "MemoryEngine",
bank_id: str,
memory: dict[str, Any],
mission: str,
request_context: "RequestContext",
perf: ConsolidationPerfLog | None = None,
) -> dict[str, Any]:
"""
Process a single memory for consolidation using a SINGLE LLM call.
This function:
1. Finds related observations (can be empty)
2. Uses ONE LLM call to extract durable knowledge AND decide on actions
3. Executes array of actions (can be multiple creates/updates)
The LLM handles all cases:
- No related observations: returns create action(s) with extracted durable knowledge
- Related observations exist: returns update/create actions based on tag routing
- Purely ephemeral fact: returns empty array (skip)
Returns:
Dict with action summary: created/updated/merged counts
"""
fact_text = memory["text"]
memory_id = memory["id"]
fact_tags = memory.get("tags") or []
# Find related observations using the full recall system (NO tag filtering)
t0 = time.time()
related_observations = await _find_related_observations(
conn=conn,
memory_engine=memory_engine,
bank_id=bank_id,
query=fact_text,
request_context=request_context,
)
if perf:
perf.record_timing("recall", time.time() - t0)
# Single LLM call handles ALL cases (with or without existing observations)
# Note: Tags are NOT passed to LLM - they are handled algorithmically
t0 = time.time()
actions = await _consolidate_with_llm(
memory_engine=memory_engine,
fact_text=fact_text,
observations=related_observations, # Can be empty list
mission=mission,
)
if perf:
perf.record_timing("llm", time.time() - t0)
if not actions:
# LLM returned empty array - fact is purely ephemeral, skip
return {"action": "skipped", "reason": "no_durable_knowledge"}
# Execute all actions and collect results
results = []
for action in actions:
action_type = action.get("action")
if action_type == "update":
result = await _execute_update_action(
conn=conn,
memory_engine=memory_engine,
bank_id=bank_id,
memory_id=memory_id,
action=action,
observations=related_observations,
source_fact_tags=fact_tags, # Pass source fact's tags for security
source_occurred_start=memory.get("occurred_start"),
source_occurred_end=memory.get("occurred_end"),
source_mentioned_at=memory.get("mentioned_at"),
perf=perf,
)
results.append(result)
elif action_type == "create":
result = await _execute_create_action(
conn=conn,
memory_engine=memory_engine,
bank_id=bank_id,
memory_id=memory_id,
action=action,
source_fact_tags=fact_tags, # Pass source fact's tags for security
event_date=memory.get("event_date"),
occurred_start=memory.get("occurred_start"),
occurred_end=memory.get("occurred_end"),
mentioned_at=memory.get("mentioned_at"),
perf=perf,
)
results.append(result)
if not results:
# No valid actions executed
return {"action": "skipped", "reason": "no_valid_actions"}
# Summarize results
created = sum(1 for r in results if r.get("action") == "created")
updated = sum(1 for r in results if r.get("action") == "updated")
merged = sum(1 for r in results if r.get("action") == "merged")
if len(results) == 1:
return results[0]
return {
"action": "multiple",
"created": created,
"updated": updated,
"merged": merged,
"total_actions": len(results),
}
async def _execute_update_action(
conn: "Connection",
memory_engine: "MemoryEngine",
bank_id: str,
memory_id: uuid.UUID,
action: dict[str, Any],
observations: list[dict[str, Any]],
source_fact_tags: list[str] | None = None,
source_occurred_start: datetime | None = None,
source_occurred_end: datetime | None = None,
source_mentioned_at: datetime | None = None,
perf: ConsolidationPerfLog | None = None,
) -> dict[str, Any]:
"""
Execute an update action on an existing observation.
Updates the observation text, adds to history, increments proof_count,
and updates temporal fields:
- occurred_start: uses LEAST to keep the earliest start time
- occurred_end: uses GREATEST to keep the most recent end time
- mentioned_at: uses GREATEST to keep the most recent mention time
SECURITY: Merges source fact's tags into the observation's existing tags.
This ensures all contributors can see the observation they contributed to.
For example, if Lisa's observation (tags=['user_lisa']) is updated with
Mike's fact (tags=['user_mike']), the observation will have both tags.
"""
learning_id = action.get("learning_id")
new_text = action.get("text")
reason = action.get("reason", "Updated with new fact")
if not learning_id or not new_text:
return {"action": "skipped", "reason": "missing_learning_id_or_text"}
# Find the observation
model = next((m for m in observations if str(m["id"]) == learning_id), None)
if not model:
return {"action": "skipped", "reason": "learning_not_found"}
# Build history entry
history = list(model.get("history", []))
history.append(
{
"previous_text": model["text"],
"changed_at": datetime.now(timezone.utc).isoformat(),
"reason": reason,
"source_memory_id": str(memory_id),
}
)
# Update source_memory_ids
source_ids = list(model.get("source_memory_ids", []))
source_ids.append(memory_id)
# SECURITY: Merge source fact's tags into existing observation tags
# This ensures all contributors can see the observation they contributed to
existing_tags = set(model.get("tags", []) or [])
source_tags = set(source_fact_tags or [])
merged_tags = list(existing_tags | source_tags) # Union of both tag sets
if source_tags and source_tags != existing_tags:
logger.debug(
f"Security: Merging tags for observation {learning_id}: "
f"existing={list(existing_tags)}, source={list(source_tags)}, merged={merged_tags}"
)
# Generate new embedding for updated text
t0 = time.time()
embeddings = await embedding_utils.generate_embeddings_batch(memory_engine.embeddings, [new_text])
embedding_str = str(embeddings[0]) if embeddings else None
if perf:
perf.record_timing("embedding", time.time() - t0)
# Update the observation
# - occurred_start: LEAST keeps the earliest start time across all source facts
# - occurred_end: GREATEST keeps the most recent end time across all source facts
# - mentioned_at: GREATEST keeps the most recent mention time
# - tags: merged from existing + source fact (for visibility)
t0 = time.time()
await conn.execute(
f"""
UPDATE {fq_table("memory_units")}
SET text = $1,
embedding = $2::vector,
history = $3,
source_memory_ids = $4,
proof_count = $5,
tags = $10,
updated_at = now(),
occurred_start = LEAST(occurred_start, COALESCE($7, occurred_start)),
occurred_end = GREATEST(occurred_end, COALESCE($8, occurred_end)),
mentioned_at = GREATEST(mentioned_at, COALESCE($9, mentioned_at))
WHERE id = $6
""",
new_text,
embedding_str,
json.dumps(history),
source_ids,
len(source_ids),
uuid.UUID(learning_id),
source_occurred_start,
source_occurred_end,
source_mentioned_at,
merged_tags,
)
# Create links from memory to observation
await _create_memory_links(conn, memory_id, uuid.UUID(learning_id))
if perf:
perf.record_timing("db_write", time.time() - t0)
logger.debug(f"Updated observation {learning_id} with memory {memory_id}")
return {"action": "updated", "observation_id": learning_id}
async def _execute_create_action(
conn: "Connection",
memory_engine: "MemoryEngine",
bank_id: str,
memory_id: uuid.UUID,
action: dict[str, Any],
source_fact_tags: list[str] | None = None,
event_date: datetime | None = None,
occurred_start: datetime | None = None,
occurred_end: datetime | None = None,
mentioned_at: datetime | None = None,
perf: ConsolidationPerfLog | None = None,
) -> dict[str, Any]:
"""
Execute a create action for a new observation.
Creates a new observation with the specified text.
The text comes directly from the classify LLM - no second LLM call needed.
Tags are determined algorithmically (not by LLM):
- Observations always inherit their source fact's tags
- This ensures visibility scope is maintained (security)
"""
text = action.get("text")
# Tags are determined algorithmically - always use source fact's tags
# This ensures private memories create private observations
tags = source_fact_tags or []
if not text:
return {"action": "skipped", "reason": "missing_text"}
# Use text directly from classify - skip the redundant LLM call
result = await _create_observation_directly(
conn=conn,
memory_engine=memory_engine,
bank_id=bank_id,
source_memory_id=memory_id,
observation_text=text, # Text already processed by classify LLM
tags=tags,
event_date=event_date,
occurred_start=occurred_start,
occurred_end=occurred_end,
mentioned_at=mentioned_at,
perf=perf,
)
logger.debug(f"Created observation {result.get('observation_id')} from memory {memory_id} (tags: {tags})")
return result
async def _create_memory_links(
conn: "Connection",
memory_id: uuid.UUID,
observation_id: uuid.UUID,
) -> None:
"""
Placeholder for observation link creation.
Observations do NOT get any memory_links copied from their source facts.
Instead, retrieval uses source_memory_ids to traverse:
- Entity connections: observation → source_memory_ids → unit_entities
- Semantic similarity: observations have their own embeddings
- Temporal proximity: observations have their own temporal fields
This avoids data duplication and ensures observations are always
connected via their source facts' relationships.
The memory_id and observation_id parameters are kept for interface
compatibility but no links are created.
"""
# No links are created - observations rely on source_memory_ids for traversal
pass
async def _find_related_observations(
conn: "Connection",
memory_engine: "MemoryEngine",
bank_id: str,
query: str,
request_context: "RequestContext",
) -> list[dict[str, Any]]:
"""
Find observations related to the given query using the full recall system.
IMPORTANT: We do NOT filter by tags here. Consolidation needs to see ALL
potentially related observations regardless of scope, so the LLM can
decide on tag routing (same scope update vs cross-scope create).
This leverages:
- Semantic search (embedding similarity)
- BM25 text search (keyword matching)
- Entity-based retrieval (shared entities)
- Graph traversal (connected via entity links)
Returns:
List of related observations with their tags for LLM tag routing
"""
# Use recall to find related observations
# NO tags parameter - we want ALL observations regardless of scope
# Use low max_tokens since we only need observations, not memories
recall_result = await memory_engine.recall_async(
bank_id=bank_id,
query=query,
max_tokens=5000, # Token budget for observations
fact_type=["observation"], # Only retrieve observations
request_context=request_context,
_quiet=True, # Suppress logging
# NO tags parameter - intentionally get ALL observations
)
# If no observations returned, return empty list
# When fact_type=["observation"], results come back in `results` field
if not recall_result.results:
return []
# Trust recall's relevance filtering - fetch full data for each observation
results = []
for obs in recall_result.results:
# Fetch full observation data from DB to get history, source_memory_ids, tags
row = await conn.fetchrow(
f"""
SELECT id, text, proof_count, history, tags, source_memory_ids, created_at, updated_at
FROM {fq_table("memory_units")}
WHERE id = $1 AND bank_id = $2 AND fact_type = 'observation'
""",
uuid.UUID(obs.id),
bank_id,
)
if row:
history = row["history"]
if isinstance(history, str):
history = json.loads(history)
elif history is None:
history = []
results.append(
{
"id": row["id"],
"text": row["text"],
"proof_count": row["proof_count"] or 1,
"history": history,
"tags": row["tags"] or [], # Include tags for LLM tag routing
"source_memory_ids": row["source_memory_ids"] or [],
"similarity": 1.0, # Retrieved via recall so assumed relevant
}
)
return results
async def _consolidate_with_llm(
memory_engine: "MemoryEngine",
fact_text: str,
observations: list[dict[str, Any]],
mission: str,
) -> list[dict[str, Any]]:
"""
Single LLM call to extract durable knowledge and decide on consolidation actions.
This handles ALL cases:
- No related observations: extracts durable knowledge, returns create action
- Related observations exist: compares and returns update/create actions
- Purely ephemeral fact: returns empty array
Note: Tags are NOT handled by the LLM. They are determined algorithmically:
- CREATE: observation inherits source fact's tags
- UPDATE: observation merges source fact's tags with existing tags
Returns:
List of actions, each being:
- {"action": "update", "learning_id": "uuid", "text": "...", "reason": "..."}
- {"action": "create", "text": "...", "reason": "..."}
- [] if fact is purely ephemeral (no durable knowledge)
"""
# Format observations WITH their tags (or "None" if empty)
if observations:
observations_text = "\n".join(
f'- ID: {obs["id"]}, Tags: {json.dumps(obs["tags"])}, Text: "{obs["text"]}" (proof_count: {obs["proof_count"]})'
for obs in observations
)
else:
observations_text = "None (this is a new topic - create if fact contains durable knowledge)"
# Only include mission section if mission is set and not the default
mission_section = ""
if mission and mission != "General memory consolidation":
mission_section = f"""
MISSION CONTEXT: {mission}
Focus on DURABLE knowledge that serves this mission, not ephemeral state.
"""
user_prompt = CONSOLIDATION_USER_PROMPT.format(
mission_section=mission_section,
fact_text=fact_text,
observations_text=observations_text,
)
messages = [
{"role": "system", "content": CONSOLIDATION_SYSTEM_PROMPT},
{"role": "user", "content": user_prompt},
]
try:
result = await memory_engine._consolidation_llm_config.call(
messages=messages,
skip_validation=True, # Raw JSON response
scope="consolidation",
)
# Parse JSON response - should be an array
if isinstance(result, str):
result = json.loads(result)
# Ensure result is a list
if isinstance(result, list):
return result
# Handle legacy single-action format for backward compatibility
if isinstance(result, dict):
if result.get("related_ids") and result.get("consolidated_text"):
# Convert old format to new format
return [
{
"action": "update",
"learning_id": result["related_ids"][0],
"text": result["consolidated_text"],
"reason": result.get("reason", ""),
}
]
return []
return []
except Exception as e:
logger.warning(f"Error in consolidation LLM call: {e}")
return []
async def _create_observation_directly(
conn: "Connection",
memory_engine: "MemoryEngine",
bank_id: str,
source_memory_id: uuid.UUID,
observation_text: str,
tags: list[str] | None = None,
event_date: datetime | None = None,
occurred_start: datetime | None = None,
occurred_end: datetime | None = None,
mentioned_at: datetime | None = None,
perf: ConsolidationPerfLog | None = None,
) -> dict[str, Any]:
"""
Create an observation directly with pre-processed text (no LLM call).
Used when the classify LLM has already provided the learning text.
This avoids the redundant second LLM call.
"""
# Generate embedding for the observation (convert to string for pgvector)
t0 = time.time()
embeddings = await embedding_utils.generate_embeddings_batch(memory_engine.embeddings, [observation_text])
embedding_str = str(embeddings[0]) if embeddings else None
if perf:
perf.record_timing("embedding", time.time() - t0)
# Create the observation as a memory_unit
now = datetime.now(timezone.utc)
obs_event_date = event_date or now
obs_occurred_start = occurred_start or now
obs_occurred_end = occurred_end or now
obs_mentioned_at = mentioned_at or now
obs_tags = tags or []
t0 = time.time()
observation_id = uuid.uuid4()
row = await conn.fetchrow(
f"""
INSERT INTO {fq_table("memory_units")} (
id, bank_id, text, fact_type, embedding, proof_count, source_memory_ids, history,
tags, event_date, occurred_start, occurred_end, mentioned_at
)
VALUES ($1, $2, $3, 'observation', $4::vector, 1, $5, '[]'::jsonb, $6, $7, $8, $9, $10)
RETURNING id
""",
observation_id,
bank_id,
observation_text,
embedding_str,
[source_memory_id],
obs_tags,
obs_event_date,
obs_occurred_start,
obs_occurred_end,
obs_mentioned_at,
)
# Create links between memory and observation (includes entity links, memory_links)
await _create_memory_links(conn, source_memory_id, observation_id)
if perf:
perf.record_timing("db_write", time.time() - t0)
logger.debug(f"Created observation {observation_id} from memory {source_memory_id} (tags: {obs_tags})")
return {"action": "created", "observation_id": str(row["id"]), "tags": obs_tags}
@@ -1,69 +0,0 @@
"""Prompts for the consolidation engine."""
CONSOLIDATION_SYSTEM_PROMPT = """You are a memory consolidation system. Your job is to convert facts into durable knowledge (observations) and merge with existing knowledge when appropriate.
You must output ONLY valid JSON with no markdown formatting, no code blocks, and no additional text.
## EXTRACT DURABLE KNOWLEDGE, NOT EPHEMERAL STATE
Facts often describe events or actions. Extract the DURABLE KNOWLEDGE implied by the fact, not the transient state.
Examples of extracting durable knowledge:
- "User moved to Room 203" -> "Room 203 exists" (location exists, not where user is now)
- "User visited Acme Corp at Room 105" -> "Acme Corp is located in Room 105"
- "User took the elevator to floor 3" -> "Floor 3 is accessible by elevator"
- "User met Sarah at the lobby" -> "Sarah can be found at the lobby"
DO NOT track current user position/state as knowledge - that changes constantly.
DO track permanent facts learned from the user's actions.
## PRESERVE SPECIFIC DETAILS
Keep names, locations, numbers, and other specifics. Do NOT:
- Abstract into general principles
- Generate business insights
- Make knowledge generic
GOOD examples:
- Fact: "John likes pizza" -> "John likes pizza"
- Fact: "Alice works at Google" -> "Alice works at Google"
BAD examples:
- "John likes pizza" -> "Understanding dietary preferences helps..." (TOO ABSTRACT)
- "User is at Room 203" -> "User is currently at Room 203" (EPHEMERAL STATE)
## MERGE RULES (when comparing to existing observations):
1. REDUNDANT: Same information worded differently → update existing
2. CONTRADICTION: Opposite information about same topic → update with history (e.g., "used to X, now Y")
3. UPDATE: New state replacing old state → update with history
## CRITICAL RULES:
- NEVER merge facts about DIFFERENT people
- NEVER merge unrelated topics (food preferences vs work vs hobbies)
- When merging contradictions, capture the CHANGE (before → after)
- Keep observations focused on ONE specific topic per person
- The "text" field MUST contain durable knowledge, not ephemeral state
- Do NOT include "tags" in output - tags are handled automatically"""
CONSOLIDATION_USER_PROMPT = """Analyze this new fact and consolidate into knowledge.
{mission_section}
NEW FACT: {fact_text}
EXISTING OBSERVATIONS:
{observations_text}
Instructions:
1. First, extract the DURABLE KNOWLEDGE from the fact (not ephemeral state like "user is at X")
2. Then compare with existing observations:
- If an observation covers the same topic: UPDATE it with the new knowledge
- If no observation covers the topic: CREATE a new one
Output JSON array of actions (ALWAYS an array, even for single action):
[
{{"action": "update", "learning_id": "uuid", "text": "updated durable knowledge", "reason": "..."}},
{{"action": "create", "text": "new durable knowledge", "reason": "..."}}
]
If NO consolidation is needed (fact is purely ephemeral with no durable knowledge):
[]
If no observations exist and fact contains durable knowledge:
[{{"action": "create", "text": "durable knowledge text", "reason": "new topic"}}]"""
@@ -130,28 +130,13 @@ class LocalSTCrossEncoder(CrossEncoderModel):
"Install it with: pip install sentence-transformers"
)
# Note: We use CPU even when GPU/MPS is available because:
# 1. The reranker model (MiniLM) is tiny (~22M params)
# 2. Batch sizes are small (~100-200 pairs)
# 3. Data transfer overhead to GPU outweighs compute benefit
# 4. CPU inference is actually faster for this workload
logger.info(f"Reranker: initializing local provider with model {self.model_name}")
# Determine device based on hardware availability.
# We always set low_cpu_mem_usage=False to prevent lazy loading (meta tensors)
# which can cause issues when accelerate is installed but no GPU is available.
# Note: We do NOT use device_map because CrossEncoder internally calls .to(device)
# after loading, which conflicts with accelerate's device_map handling.
import torch
# Check for GPU (CUDA) or Apple Silicon (MPS)
has_gpu = torch.cuda.is_available() or (hasattr(torch.backends, "mps") and torch.backends.mps.is_available())
if has_gpu:
device = None # Let sentence-transformers auto-detect GPU/MPS
else:
device = "cpu"
self._model = CrossEncoder(
self.model_name,
device=device,
model_kwargs={"low_cpu_mem_usage": False},
)
self._model = CrossEncoder(self.model_name)
# Initialize shared executor (limited workers naturally limits concurrency)
if LocalSTCrossEncoder._executor is None:
@@ -1,5 +0,0 @@
"""Directives module for hard rules injected into prompts."""
from .models import Directive
__all__ = ["Directive"]
@@ -1,37 +0,0 @@
"""Pydantic models for directives."""
from datetime import datetime, timezone
from uuid import UUID
from pydantic import BaseModel, Field
class Directive(BaseModel):
"""A directive is a hard rule injected into prompts.
Directives are user-defined rules that guide agent behavior. Unlike mental models
which are automatically consolidated from memories, directives are explicit
instructions that are always included in relevant prompts.
Examples:
- "Always respond in formal English"
- "Never share personal data with third parties"
- "Prefer conservative investment recommendations"
"""
id: UUID = Field(description="Unique identifier")
bank_id: str = Field(description="Bank this directive belongs to")
name: str = Field(description="Human-readable name")
content: str = Field(description="The directive text to inject into prompts")
priority: int = Field(default=0, description="Higher priority directives are injected first")
is_active: bool = Field(default=True, description="Whether this directive is currently active")
tags: list[str] = Field(default_factory=list, description="Tags for filtering")
created_at: datetime = Field(
default_factory=lambda: datetime.now(timezone.utc), description="When this directive was created"
)
updated_at: datetime = Field(
default_factory=lambda: datetime.now(timezone.utc), description="When this directive was last updated"
)
class Config:
from_attributes = True
@@ -128,24 +128,11 @@ class LocalSTEmbeddings(Embeddings):
)
logger.info(f"Embeddings: initializing local provider with model {self.model_name}")
# Determine device based on hardware availability.
# We always set low_cpu_mem_usage=False to prevent lazy loading (meta tensors)
# which can cause issues when accelerate is installed but no GPU is available.
import torch
# Check for GPU (CUDA) or Apple Silicon (MPS)
has_gpu = torch.cuda.is_available() or (hasattr(torch.backends, "mps") and torch.backends.mps.is_available())
if has_gpu:
device = None # Let sentence-transformers auto-detect GPU/MPS
else:
device = "cpu"
# Disable lazy loading (meta tensors) which causes issues with newer transformers/accelerate
# Setting low_cpu_mem_usage=False and device_map=None ensures tensors are fully materialized
self._model = SentenceTransformer(
self.model_name,
device=device,
model_kwargs={"low_cpu_mem_usage": False},
model_kwargs={"low_cpu_mem_usage": False, "device_map": None},
)
self._dimension = self._model.get_sentence_embedding_dimension()
+13 -32
View File
@@ -160,14 +160,14 @@ class MemoryEngineInterface(ABC):
request_context: "RequestContext",
) -> dict[str, Any]:
"""
Get bank profile including disposition and mission.
Get bank profile including disposition and background.
Args:
bank_id: The memory bank ID.
request_context: Request context for authentication.
Returns:
Bank profile dict with bank_id, name, disposition, and mission.
Bank profile dict.
"""
...
@@ -190,44 +190,25 @@ class MemoryEngineInterface(ABC):
...
@abstractmethod
async def merge_bank_mission(
async def merge_bank_background(
self,
bank_id: str,
new_info: str,
*,
update_disposition: bool = True,
request_context: "RequestContext",
) -> dict[str, Any]:
"""
Merge new mission information into bank profile.
Merge new background information into bank profile.
Args:
bank_id: The memory bank ID.
new_info: New mission information to merge.
new_info: New background information to merge.
update_disposition: Whether to infer disposition from background.
request_context: Request context for authentication.
Returns:
Updated mission info.
"""
...
@abstractmethod
async def set_bank_mission(
self,
bank_id: str,
mission: str,
*,
request_context: "RequestContext",
) -> dict[str, Any]:
"""
Set the bank's mission (replaces existing).
Args:
bank_id: The memory bank ID.
mission: The mission text.
request_context: Request context for authentication.
Returns:
Dict with bank_id and mission.
Updated background info.
"""
...
@@ -537,7 +518,7 @@ class MemoryEngineInterface(ABC):
bank_id: str,
*,
request_context: "RequestContext",
) -> dict[str, Any]:
) -> list[dict[str, Any]]:
"""
List async operations for a bank.
@@ -546,7 +527,7 @@ class MemoryEngineInterface(ABC):
request_context: Request context for authentication.
Returns:
Dict with 'total' (int) and 'operations' (list of operation dicts).
List of operation dicts with id, task_type, status, etc.
"""
...
@@ -580,16 +561,16 @@ class MemoryEngineInterface(ABC):
bank_id: str,
*,
name: str | None = None,
mission: str | None = None,
background: str | None = None,
request_context: "RequestContext",
) -> dict[str, Any]:
"""
Update bank name and/or mission.
Update bank name and/or background.
Args:
bank_id: The memory bank ID.
name: New bank name (optional).
mission: New mission text (optional, replaces existing).
background: New background text (optional, replaces existing).
request_context: Request context for authentication.
Returns:
+43 -505
View File
@@ -209,10 +209,10 @@ class LLMProvider:
OutputTooLongError: If output exceeds token limits.
Exception: Re-raises API errors after retries exhausted.
"""
semaphore_start = time.time()
queue_start_time = time.time()
async with _global_llm_semaphore:
semaphore_wait_time = time.time() - semaphore_start
start_time = time.time()
semaphore_wait_time = start_time - queue_start_time
# Handle Mock provider (for testing)
if self.provider == "mock":
@@ -318,44 +318,43 @@ class LLMProvider:
last_exception = None
# Prepare response format ONCE before the retry loop
# (to avoid appending schema to messages on every retry)
if response_format is not None:
schema = None
if hasattr(response_format, "model_json_schema"):
schema = response_format.model_json_schema()
if strict_schema and schema is not None:
# Use OpenAI's strict JSON schema enforcement
# This guarantees all required fields are returned
call_params["response_format"] = {
"type": "json_schema",
"json_schema": {
"name": "response",
"strict": True,
"schema": schema,
},
}
else:
# Soft enforcement: add schema to prompt and use json_object mode
if schema is not None:
schema_msg = f"\n\nYou must respond with valid JSON matching this schema:\n{json.dumps(schema, indent=2)}"
if call_params["messages"] and call_params["messages"][0].get("role") == "system":
call_params["messages"][0]["content"] += schema_msg
elif call_params["messages"]:
call_params["messages"][0]["content"] = (
schema_msg + "\n\n" + call_params["messages"][0]["content"]
)
if self.provider not in ("lmstudio", "ollama"):
# LM Studio and Ollama don't support json_object response format reliably
# We rely on the schema in the system message instead
call_params["response_format"] = {"type": "json_object"}
for attempt in range(max_retries + 1):
try:
if response_format is not None:
schema = None
if hasattr(response_format, "model_json_schema"):
schema = response_format.model_json_schema()
if strict_schema and schema is not None:
# Use OpenAI's strict JSON schema enforcement
# This guarantees all required fields are returned
call_params["response_format"] = {
"type": "json_schema",
"json_schema": {
"name": "response",
"strict": True,
"schema": schema,
},
}
else:
# Soft enforcement: add schema to prompt and use json_object mode
if schema is not None:
schema_msg = f"\n\nYou must respond with valid JSON matching this schema:\n{json.dumps(schema, indent=2)}"
if call_params["messages"] and call_params["messages"][0].get("role") == "system":
call_params["messages"][0]["content"] += schema_msg
elif call_params["messages"]:
call_params["messages"][0]["content"] = (
schema_msg + "\n\n" + call_params["messages"][0]["content"]
)
if self.provider not in ("lmstudio", "ollama"):
# LM Studio and Ollama don't support json_object response format reliably
# We rely on the schema in the system message instead
call_params["response_format"] = {"type": "json_object"}
logger.debug(f"Sending request to {self.provider}/{self.model} (timeout={self.timeout})")
response = await self._client.chat.completions.create(**call_params)
logger.debug(f"Received response from {self.provider}/{self.model}")
content = response.choices[0].message.content
@@ -468,11 +467,13 @@ class LLMProvider:
except APIConnectionError as e:
last_exception = e
status_code = getattr(e, "status_code", None) or getattr(
getattr(e, "response", None), "status_code", None
)
logger.warning(f"APIConnectionError (HTTP {status_code}), attempt {attempt + 1}: {str(e)[:200]}")
if attempt < max_retries:
status_code = getattr(e, "status_code", None) or getattr(
getattr(e, "response", None), "status_code", None
)
logger.warning(
f"Connection error, retrying... (attempt {attempt + 1}/{max_retries + 1}) - status_code={status_code}, message={e}"
)
backoff = min(initial_backoff * (2**attempt), max_backoff)
await asyncio.sleep(backoff)
continue
@@ -486,45 +487,6 @@ class LLMProvider:
logger.error(f"Auth error (HTTP {e.status_code}), not retrying: {str(e)}")
raise
# Handle tool_use_failed error - model outputted in tool call format
# Convert to expected JSON format and continue
if e.status_code == 400 and response_format is not None:
try:
error_body = e.body if hasattr(e, "body") else {}
if isinstance(error_body, dict):
error_info: dict[str, Any] = error_body.get("error") or {}
if error_info.get("code") == "tool_use_failed":
failed_gen = error_info.get("failed_generation", "")
if failed_gen:
# Parse the tool call format and convert to actions format
tool_call = json.loads(failed_gen)
tool_name = tool_call.get("name", "")
tool_args = tool_call.get("arguments", {})
# Convert to actions format: {"actions": [{"tool": "name", ...args}]}
converted = {"actions": [{"tool": tool_name, **tool_args}]}
if skip_validation:
result = converted
else:
result = response_format.model_validate(converted)
# Record metrics for this successful recovery
duration = time.time() - start_time
metrics = get_metrics_collector()
metrics.record_llm_call(
provider=self.provider,
model=self.model,
scope=scope,
duration=duration,
input_tokens=0,
output_tokens=0,
success=True,
)
if return_usage:
return result, TokenUsage(input_tokens=0, output_tokens=0, total_tokens=0)
return result
except (json.JSONDecodeError, KeyError, TypeError):
pass # Failed to parse tool_use_failed, continue with normal retry
last_exception = e
if attempt < max_retries:
backoff = min(initial_backoff * (2**attempt), max_backoff)
@@ -535,438 +497,14 @@ class LLMProvider:
logger.error(f"API error after {max_retries + 1} attempts: {str(e)}")
raise
except Exception:
except Exception as e:
logger.error(f"Unexpected error during LLM call: {type(e).__name__}: {str(e)}")
raise
if last_exception:
raise last_exception
raise RuntimeError("LLM call failed after all retries with no exception captured")
async def call_with_tools(
self,
messages: list[dict[str, Any]],
tools: list[dict[str, Any]],
max_completion_tokens: int | None = None,
temperature: float | None = None,
scope: str = "tools",
max_retries: int = 5,
initial_backoff: float = 1.0,
max_backoff: float = 30.0,
tool_choice: str | dict[str, Any] = "auto",
) -> "LLMToolCallResult":
"""
Make an LLM API call with tool/function calling support.
Args:
messages: List of message dicts. Can include tool results with role='tool'.
tools: List of tool definitions in OpenAI format.
max_completion_tokens: Maximum tokens in response.
temperature: Sampling temperature (0.0-2.0).
scope: Scope identifier for tracking.
max_retries: Maximum retry attempts.
initial_backoff: Initial backoff time in seconds.
max_backoff: Maximum backoff time in seconds.
tool_choice: How to choose tools - "auto", "none", "required", or {"type": "function", "function": {"name": "..."}}
Returns:
LLMToolCallResult with content and/or tool_calls.
"""
from .response_models import LLMToolCall, LLMToolCallResult
async with _global_llm_semaphore:
start_time = time.time()
# Handle Mock provider
if self.provider == "mock":
return await self._call_with_tools_mock(messages, tools, scope)
# Handle Anthropic separately (uses different tool format)
if self.provider == "anthropic":
return await self._call_with_tools_anthropic(
messages, tools, max_completion_tokens, max_retries, initial_backoff, max_backoff, start_time, scope
)
# Handle Gemini (convert to Gemini tool format)
if self.provider == "gemini":
return await self._call_with_tools_gemini(
messages, tools, max_retries, initial_backoff, max_backoff, start_time, scope
)
# OpenAI-compatible providers (OpenAI, Groq, Ollama, LMStudio)
call_params: dict[str, Any] = {
"model": self.model,
"messages": messages,
"tools": tools,
"tool_choice": tool_choice,
}
if max_completion_tokens is not None:
call_params["max_completion_tokens"] = max_completion_tokens
if temperature is not None:
call_params["temperature"] = temperature
# Provider-specific parameters
if self.provider == "groq":
call_params["seed"] = DEFAULT_LLM_SEED
last_exception = None
for attempt in range(max_retries + 1):
try:
response = await self._client.chat.completions.create(**call_params)
message = response.choices[0].message
finish_reason = response.choices[0].finish_reason
# Extract tool calls if present
tool_calls: list[LLMToolCall] = []
if message.tool_calls:
for tc in message.tool_calls:
try:
args = json.loads(tc.function.arguments) if tc.function.arguments else {}
except json.JSONDecodeError:
args = {"_raw": tc.function.arguments}
tool_calls.append(LLMToolCall(id=tc.id, name=tc.function.name, arguments=args))
content = message.content
# Record metrics
duration = time.time() - start_time
usage = response.usage
input_tokens = usage.prompt_tokens or 0 if usage else 0
output_tokens = usage.completion_tokens or 0 if usage else 0
metrics = get_metrics_collector()
metrics.record_llm_call(
provider=self.provider,
model=self.model,
scope=scope,
duration=duration,
input_tokens=input_tokens,
output_tokens=output_tokens,
success=True,
)
return LLMToolCallResult(
content=content,
tool_calls=tool_calls,
finish_reason=finish_reason,
input_tokens=input_tokens,
output_tokens=output_tokens,
)
except APIConnectionError as e:
last_exception = e
if attempt < max_retries:
await asyncio.sleep(min(initial_backoff * (2**attempt), max_backoff))
continue
raise
except APIStatusError as e:
if e.status_code in (401, 403):
raise
last_exception = e
if attempt < max_retries:
await asyncio.sleep(min(initial_backoff * (2**attempt), max_backoff))
continue
raise
except Exception:
raise
if last_exception:
raise last_exception
raise RuntimeError("Tool call failed after all retries")
async def _call_with_tools_mock(
self,
messages: list[dict[str, Any]],
tools: list[dict[str, Any]],
scope: str,
) -> "LLMToolCallResult":
"""Handle mock tool calls for testing."""
from .response_models import LLMToolCallResult
call_record = {
"provider": self.provider,
"model": self.model,
"messages": messages,
"tools": [t.get("function", {}).get("name") for t in tools],
"scope": scope,
}
self._mock_calls.append(call_record)
if self._mock_response is not None:
if isinstance(self._mock_response, LLMToolCallResult):
return self._mock_response
# Allow setting just tool calls as a list
if isinstance(self._mock_response, list):
from .response_models import LLMToolCall
return LLMToolCallResult(
tool_calls=[
LLMToolCall(id=f"mock_{i}", name=tc["name"], arguments=tc.get("arguments", {}))
for i, tc in enumerate(self._mock_response)
],
finish_reason="tool_calls",
)
return LLMToolCallResult(content="mock response", finish_reason="stop")
async def _call_with_tools_anthropic(
self,
messages: list[dict[str, Any]],
tools: list[dict[str, Any]],
max_completion_tokens: int | None,
max_retries: int,
initial_backoff: float,
max_backoff: float,
start_time: float,
scope: str,
) -> "LLMToolCallResult":
"""Handle Anthropic tool calling."""
from anthropic import APIConnectionError, APIStatusError
from .response_models import LLMToolCall, LLMToolCallResult
# Convert OpenAI tool format to Anthropic format
anthropic_tools = []
for tool in tools:
func = tool.get("function", {})
anthropic_tools.append(
{
"name": func.get("name", ""),
"description": func.get("description", ""),
"input_schema": func.get("parameters", {"type": "object", "properties": {}}),
}
)
# Convert messages - handle tool results
system_prompt = None
anthropic_messages = []
for msg in messages:
role = msg.get("role", "user")
content = msg.get("content", "")
if role == "system":
system_prompt = (system_prompt + "\n\n" + content) if system_prompt else content
elif role == "tool":
# Anthropic uses tool_result blocks
anthropic_messages.append(
{
"role": "user",
"content": [
{"type": "tool_result", "tool_use_id": msg.get("tool_call_id", ""), "content": content}
],
}
)
elif role == "assistant" and msg.get("tool_calls"):
# Convert assistant tool calls
tool_use_blocks = []
for tc in msg["tool_calls"]:
tool_use_blocks.append(
{
"type": "tool_use",
"id": tc.get("id", ""),
"name": tc.get("function", {}).get("name", ""),
"input": json.loads(tc.get("function", {}).get("arguments", "{}")),
}
)
anthropic_messages.append({"role": "assistant", "content": tool_use_blocks})
else:
anthropic_messages.append({"role": role, "content": content})
call_params: dict[str, Any] = {
"model": self.model,
"messages": anthropic_messages,
"tools": anthropic_tools,
"max_tokens": max_completion_tokens or 4096,
}
if system_prompt:
call_params["system"] = system_prompt
last_exception = None
for attempt in range(max_retries + 1):
try:
response = await self._anthropic_client.messages.create(**call_params)
# Extract content and tool calls
content_parts = []
tool_calls: list[LLMToolCall] = []
for block in response.content:
if block.type == "text":
content_parts.append(block.text)
elif block.type == "tool_use":
tool_calls.append(LLMToolCall(id=block.id, name=block.name, arguments=block.input or {}))
content = "".join(content_parts) if content_parts else None
finish_reason = "tool_calls" if tool_calls else "stop"
# Extract token usage
input_tokens = response.usage.input_tokens or 0
output_tokens = response.usage.output_tokens or 0
# Record metrics
metrics = get_metrics_collector()
metrics.record_llm_call(
provider=self.provider,
model=self.model,
scope=scope,
duration=time.time() - start_time,
input_tokens=input_tokens,
output_tokens=output_tokens,
success=True,
)
return LLMToolCallResult(
content=content,
tool_calls=tool_calls,
finish_reason=finish_reason,
input_tokens=input_tokens,
output_tokens=output_tokens,
)
except (APIConnectionError, APIStatusError) as e:
if isinstance(e, APIStatusError) and e.status_code in (401, 403):
raise
last_exception = e
if attempt < max_retries:
await asyncio.sleep(min(initial_backoff * (2**attempt), max_backoff))
continue
raise
if last_exception:
raise last_exception
raise RuntimeError("Anthropic tool call failed")
async def _call_with_tools_gemini(
self,
messages: list[dict[str, Any]],
tools: list[dict[str, Any]],
max_retries: int,
initial_backoff: float,
max_backoff: float,
start_time: float,
scope: str,
) -> "LLMToolCallResult":
"""Handle Gemini tool calling."""
from .response_models import LLMToolCall, LLMToolCallResult
# Convert tools to Gemini format
gemini_tools = []
for tool in tools:
func = tool.get("function", {})
gemini_tools.append(
genai_types.Tool(
function_declarations=[
genai_types.FunctionDeclaration(
name=func.get("name", ""),
description=func.get("description", ""),
parameters=func.get("parameters"),
)
]
)
)
# Convert messages
system_instruction = None
gemini_contents = []
for msg in messages:
role = msg.get("role", "user")
content = msg.get("content", "")
if role == "system":
system_instruction = (system_instruction + "\n\n" + content) if system_instruction else content
elif role == "tool":
# Gemini uses function_response
gemini_contents.append(
genai_types.Content(
role="user",
parts=[
genai_types.Part(
function_response=genai_types.FunctionResponse(
name=msg.get("name", ""),
response={"result": content},
)
)
],
)
)
elif role == "assistant":
gemini_contents.append(genai_types.Content(role="model", parts=[genai_types.Part(text=content)]))
else:
gemini_contents.append(genai_types.Content(role="user", parts=[genai_types.Part(text=content)]))
config = genai_types.GenerateContentConfig(
system_instruction=system_instruction,
tools=gemini_tools,
)
last_exception = None
for attempt in range(max_retries + 1):
try:
response = await self._gemini_client.aio.models.generate_content(
model=self.model,
contents=gemini_contents,
config=config,
)
# Extract content and tool calls
content = None
tool_calls: list[LLMToolCall] = []
if response.candidates and response.candidates[0].content:
for part in response.candidates[0].content.parts:
if hasattr(part, "text") and part.text:
content = part.text
if hasattr(part, "function_call") and part.function_call:
fc = part.function_call
tool_calls.append(
LLMToolCall(
id=f"gemini_{len(tool_calls)}",
name=fc.name,
arguments=dict(fc.args) if fc.args else {},
)
)
finish_reason = "tool_calls" if tool_calls else "stop"
# Record metrics
metrics = get_metrics_collector()
input_tokens = response.usage_metadata.prompt_token_count if response.usage_metadata else 0
output_tokens = response.usage_metadata.candidates_token_count if response.usage_metadata else 0
metrics.record_llm_call(
provider=self.provider,
model=self.model,
scope=scope,
duration=time.time() - start_time,
input_tokens=input_tokens,
output_tokens=output_tokens,
success=True,
)
return LLMToolCallResult(
content=content,
tool_calls=tool_calls,
finish_reason=finish_reason,
input_tokens=input_tokens,
output_tokens=output_tokens,
)
except genai_errors.APIError as e:
if e.code in (401, 403):
raise
last_exception = e
if attempt < max_retries:
await asyncio.sleep(min(initial_backoff * (2**attempt), max_backoff))
continue
raise
if last_exception:
raise last_exception
raise RuntimeError("Gemini tool call failed")
async def _call_anthropic(
self,
messages: list[dict[str, str]],
File diff suppressed because it is too large Load Diff
@@ -1,14 +0,0 @@
"""
Mental models module for Hindsight.
Mental models contain directives - hard rules that are injected into reflect prompts.
Directives are user-defined and their observations are user-provided (not LLM-generated).
Other types of consolidated knowledge are handled by:
- Learnings: Automatic bottom-up consolidation from facts
- Pinned Reflections: User-curated living documents
"""
from .models import MentalModel, MentalModelSubtype
__all__ = ["MentalModel", "MentalModelSubtype"]
@@ -1,53 +0,0 @@
"""
Pydantic models for mental models.
"""
from datetime import datetime, timezone
from enum import Enum
from pydantic import BaseModel, Field
class MentalModelSubtype(str, Enum):
"""Subtype of mental model.
Currently only DIRECTIVE is supported. Other types of consolidated knowledge
are handled by:
- Learnings: Automatic bottom-up consolidation from facts
- Pinned Reflections: User-curated living documents
"""
DIRECTIVE = "directive" # User-defined hard rules, observations user-provided
class MentalModel(BaseModel):
"""
A mental model representing synthesized understanding.
Mental models are the agent's consolidated knowledge. Unlike raw facts,
mental models provide:
- A one-liner description for quick scanning/retrieval
- A full summary for deep understanding
- Links to related mental models
"""
id: str = Field(description="Unique identifier within the bank")
bank_id: str = Field(description="Bank this mental model belongs to")
subtype: MentalModelSubtype = Field(description="How this model was created")
name: str = Field(description="Human-readable name")
description: str = Field(description="One-liner for quick scanning and retrieval matching")
summary: str | None = Field(default=None, description="Full synthesized understanding")
# References
entity_id: str | None = Field(default=None, description="Reference to entities table when type=entity")
source_facts: list[str] = Field(default_factory=list, description="Fact IDs used to generate summary")
links: list[str] = Field(default_factory=list, description="Related mental model IDs")
# Tags for scoped visibility (similar to document tags)
tags: list[str] = Field(default_factory=list, description="Tags for scoped visibility filtering")
# Timestamps
last_updated: datetime | None = Field(default=None, description="When summary was last regenerated")
created_at: datetime = Field(
default_factory=lambda: datetime.now(timezone.utc), description="When this model was created"
)
@@ -1,18 +0,0 @@
"""
Reflect agent module for agentic reflection with tools.
The reflect agent uses an iterative loop with tools to:
1. Lookup mental models (existing knowledge)
2. Recall facts (semantic + temporal search)
3. Expand memories (get chunk/document context)
"""
from .agent import ReflectAgentResult, run_reflect_agent
from .models import ReflectAction, ReflectActionBatch
__all__ = [
"run_reflect_agent",
"ReflectAgentResult",
"ReflectAction",
"ReflectActionBatch",
]
@@ -1,927 +0,0 @@
"""
Reflect agent - agentic loop for reflection with native tool calling.
Uses hierarchical retrieval:
1. search_mental_models - User-curated summaries (highest quality)
2. search_observations - Consolidated knowledge with freshness
3. recall - Raw facts as ground truth
"""
import asyncio
import json
import logging
import re
import time
from typing import TYPE_CHECKING, Any, Awaitable, Callable
from .models import DirectiveInfo, LLMCall, ReflectAgentResult, TokenUsageSummary, ToolCall
from .prompts import FINAL_SYSTEM_PROMPT, _extract_directive_rules, build_final_prompt, build_system_prompt_for_tools
from .tools_schema import get_reflect_tools
def _build_directives_applied(directives: list[dict[str, Any]] | None) -> list[DirectiveInfo]:
"""Build list of DirectiveInfo from directive mental models.
Handles multiple directive formats:
1. New format: directives have direct 'content' field
2. Fallback: directives have 'description' field
"""
if not directives:
return []
result = []
for directive in directives:
directive_id = directive.get("id", "")
directive_name = directive.get("name", "")
# Get content from 'content' field or fallback to 'description'
content = directive.get("content", "") or directive.get("description", "")
result.append(DirectiveInfo(id=directive_id, name=directive_name, content=content))
return result
if TYPE_CHECKING:
from ..llm_wrapper import LLMProvider
from ..response_models import LLMToolCall
logger = logging.getLogger(__name__)
DEFAULT_MAX_ITERATIONS = 10
def _normalize_tool_name(name: str) -> str:
"""Normalize tool name from various LLM output formats.
Some LLMs output tool names in non-standard formats:
- 'functions.done' (OpenAI-style prefix)
- 'call=functions.done' (some models)
- 'call=done' (some models)
Returns the normalized tool name (e.g., 'done', 'recall', etc.)
"""
# Handle 'call=functions.name' or 'call=name' format
if name.startswith("call="):
name = name[len("call=") :]
# Handle 'functions.name' format
if name.startswith("functions."):
name = name[len("functions.") :]
return name
def _is_done_tool(name: str) -> bool:
"""Check if the tool name represents the 'done' tool."""
return _normalize_tool_name(name) == "done"
# Pattern to match done() call as text - handles done({...}) with nested JSON
_DONE_CALL_PATTERN = re.compile(r"done\s*\(\s*\{.*$", re.DOTALL)
# Patterns for leaked structured output in the answer field
_LEAKED_JSON_SUFFIX = re.compile(
r'\s*```(?:json)?\s*\{[^}]*(?:"(?:observation_ids|memory_ids|mental_model_ids)"|\})\s*```\s*$',
re.DOTALL | re.IGNORECASE,
)
_LEAKED_JSON_OBJECT = re.compile(
r'\s*\{[^{]*"(?:observation_ids|memory_ids|mental_model_ids|answer)"[^}]*\}\s*$', re.DOTALL
)
_TRAILING_IDS_PATTERN = re.compile(
r"\s*(?:observation_ids|memory_ids|mental_model_ids)\s*[=:]\s*\[.*?\]\s*$", re.DOTALL | re.IGNORECASE
)
def _clean_answer_text(text: str) -> str:
"""Clean up answer text by removing any done() tool call syntax.
Some LLMs output the done() call as text instead of a proper tool call.
This strips out patterns like: done({"answer": "...", ...})
"""
# Remove done() call pattern from the end of the text
cleaned = _DONE_CALL_PATTERN.sub("", text).strip()
return cleaned if cleaned else text
def _clean_done_answer(text: str) -> str:
"""Clean up the answer field from a done() tool call.
Some LLMs leak structured output patterns into the answer text, such as:
- JSON code blocks with observation_ids/memory_ids at the end
- Raw JSON objects with these fields
- Plain text like "observation_ids: [...]"
This cleans those patterns while preserving the actual answer content.
"""
if not text:
return text
cleaned = text
# Remove leaked JSON in code blocks at the end
cleaned = _LEAKED_JSON_SUFFIX.sub("", cleaned).strip()
# Remove leaked raw JSON objects at the end
cleaned = _LEAKED_JSON_OBJECT.sub("", cleaned).strip()
# Remove trailing ID patterns
cleaned = _TRAILING_IDS_PATTERN.sub("", cleaned).strip()
return cleaned if cleaned else text
async def _generate_structured_output(
answer: str,
response_schema: dict,
llm_config: "LLMProvider",
reflect_id: str,
) -> tuple[dict[str, Any] | None, int, int]:
"""Generate structured output from an answer using the provided JSON schema.
Args:
answer: The text answer to extract structured data from
response_schema: JSON Schema for the expected output structure
llm_config: LLM provider for making the extraction call
reflect_id: Reflect ID for logging
Returns:
Tuple of (structured_output, input_tokens, output_tokens).
structured_output is None if generation fails.
"""
try:
from typing import Any as TypingAny
from pydantic import create_model
def _json_schema_type_to_python(field_schema: dict) -> type:
"""Map JSON schema type to Python type for better LLM guidance."""
json_type = field_schema.get("type", "string")
if json_type == "array":
return list
elif json_type == "object":
return dict
elif json_type == "integer":
return int
elif json_type == "number":
return float
elif json_type == "boolean":
return bool
else:
return str
# Build fields from JSON schema properties
schema_props = response_schema.get("properties", {})
required_fields = set(response_schema.get("required", []))
fields: dict[str, TypingAny] = {}
for field_name, field_schema in schema_props.items():
field_type = _json_schema_type_to_python(field_schema)
default = ... if field_name in required_fields else None
fields[field_name] = (field_type, default)
if not fields:
logger.warning(f"[REFLECT {reflect_id}] No fields found in response_schema, skipping structured output")
return None, 0, 0
DynamicModel = create_model("StructuredResponse", **fields)
# Include the full schema in the prompt for better LLM guidance
schema_str = json.dumps(response_schema, indent=2)
# Build field descriptions for the prompt
field_descriptions = []
for field_name, field_schema in schema_props.items():
field_type = field_schema.get("type", "string")
field_desc = field_schema.get("description", "")
is_required = field_name in required_fields
req_marker = " (REQUIRED)" if is_required else " (optional)"
field_descriptions.append(f"- {field_name} ({field_type}){req_marker}: {field_desc}")
fields_text = "\n".join(field_descriptions)
# Call LLM with the answer to extract structured data
structured_prompt = f"""Your task is to extract specific information from the answer below and format it as JSON.
ANSWER TO EXTRACT FROM:
\"\"\"
{answer}
\"\"\"
REQUIRED OUTPUT FORMAT - Extract the following fields from the answer above:
{fields_text}
JSON Schema:
```json
{schema_str}
```
INSTRUCTIONS:
1. Read the answer carefully and identify the information that matches each field
2. Extract the ACTUAL content from the answer - do NOT leave fields empty if information is present
3. For string fields: use the exact text or a clear summary from the answer
4. For array fields: return a JSON array (e.g., ["item1", "item2"]), NOT a string
5. For required fields: you MUST provide a value extracted from the answer
6. Return ONLY the JSON object, no explanation
OUTPUT:"""
structured_result, usage = await llm_config.call(
messages=[
{
"role": "system",
"content": "You are a precise data extraction assistant. Extract information from text and return it as valid JSON matching the provided schema. Always extract actual content - never return empty strings for required fields if information is available.",
},
{"role": "user", "content": structured_prompt},
],
response_format=DynamicModel,
scope="reflect_structured",
skip_validation=True, # We'll handle the dict ourselves
return_usage=True,
)
# Convert to dict
if hasattr(structured_result, "model_dump"):
structured_output = structured_result.model_dump()
elif isinstance(structured_result, dict):
structured_output = structured_result
else:
# Try to parse as JSON
structured_output = json.loads(str(structured_result))
# Validate that required fields have non-empty values
for field_name in required_fields:
value = structured_output.get(field_name)
if value is None or value == "" or value == []:
logger.warning(f"[REFLECT {reflect_id}] Required field '{field_name}' is empty in structured output")
logger.info(f"[REFLECT {reflect_id}] Generated structured output with {len(structured_output)} fields")
return structured_output, usage.input_tokens, usage.output_tokens
except Exception as e:
logger.warning(f"[REFLECT {reflect_id}] Failed to generate structured output: {e}")
return None, 0, 0
async def run_reflect_agent(
llm_config: "LLMProvider",
bank_id: str,
query: str,
bank_profile: dict[str, Any],
search_mental_models_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
search_observations_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
recall_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
expand_fn: Callable[[list[str], str], Awaitable[dict[str, Any]]],
context: str | None = None,
max_iterations: int = DEFAULT_MAX_ITERATIONS,
max_tokens: int | None = None,
response_schema: dict | None = None,
directives: list[dict[str, Any]] | None = None,
has_mental_models: bool = False,
budget: str | None = None,
) -> ReflectAgentResult:
"""
Execute the reflect agent loop using native tool calling.
The agent uses hierarchical retrieval:
1. search_mental_models - User-curated summaries (try first)
2. search_observations - Consolidated knowledge with freshness
3. recall - Raw facts as ground truth
Args:
llm_config: LLM provider for agent calls
bank_id: Bank identifier
query: Question to answer
bank_profile: Bank profile with name and mission
search_mental_models_fn: Tool callback for searching mental models (query, max_results) -> result
search_observations_fn: Tool callback for searching observations (query, max_results) -> result
recall_fn: Tool callback for recall (query, max_tokens) -> result
expand_fn: Tool callback for expand (memory_ids, depth) -> result
context: Optional additional context
max_iterations: Maximum number of iterations before forcing response
max_tokens: Maximum tokens for the final response
response_schema: Optional JSON Schema for structured output in final response
directives: Optional list of directive mental models to inject as hard rules
Returns:
ReflectAgentResult with final answer and metadata
"""
reflect_id = f"{bank_id[:8]}-{int(time.time() * 1000) % 100000}"
start_time = time.time()
# Build directives_applied for the trace
directives_applied = _build_directives_applied(directives)
# Extract directive rules for tool schema (if any)
directive_rules = _extract_directive_rules(directives) if directives else None
# Get tools for this agent (with directive compliance field if directives exist)
tools = get_reflect_tools(directive_rules=directive_rules)
# Build initial messages (directives are injected into system prompt at START and END)
system_prompt = build_system_prompt_for_tools(
bank_profile, context, directives=directives, has_mental_models=has_mental_models, budget=budget
)
messages: list[dict[str, Any]] = [
{"role": "system", "content": system_prompt},
{"role": "user", "content": query},
]
# Tracking
total_tools_called = 0
tool_trace: list[ToolCall] = []
tool_trace_summary: list[dict[str, Any]] = []
llm_trace: list[dict[str, Any]] = []
context_history: list[dict[str, Any]] = [] # For final prompt fallback
# Token usage tracking - accumulate across all LLM calls
total_input_tokens = 0
total_output_tokens = 0
# Track available IDs for validation (prevents hallucinated citations)
available_memory_ids: set[str] = set()
available_mental_model_ids: set[str] = set()
available_observation_ids: set[str] = set()
def _get_llm_trace() -> list[LLMCall]:
return [
LLMCall(
scope=c["scope"],
duration_ms=c["duration_ms"],
input_tokens=c.get("input_tokens", 0),
output_tokens=c.get("output_tokens", 0),
)
for c in llm_trace
]
def _get_usage() -> TokenUsageSummary:
return TokenUsageSummary(
input_tokens=total_input_tokens,
output_tokens=total_output_tokens,
total_tokens=total_input_tokens + total_output_tokens,
)
def _log_completion(answer: str, iterations: int, forced: bool = False):
elapsed_ms = int((time.time() - start_time) * 1000)
tools_summary = (
", ".join(
f"{t['tool']}({t['input_summary']})={t['duration_ms']}ms/{t.get('output_chars', 0)}c"
for t in tool_trace_summary
)
or "none"
)
llm_summary = ", ".join(f"{c['scope']}={c['duration_ms']}ms" for c in llm_trace) or "none"
total_llm_ms = sum(c["duration_ms"] for c in llm_trace)
total_tools_ms = sum(t["duration_ms"] for t in tool_trace_summary)
answer_preview = answer[:100] + "..." if len(answer) > 100 else answer
mode = "forced" if forced else "done"
logger.info(
f"[REFLECT {reflect_id}] {mode} | "
f"query='{query[:50]}...' | "
f"iterations={iterations} | "
f"llm=[{llm_summary}] ({total_llm_ms}ms) | "
f"tools=[{tools_summary}] ({total_tools_ms}ms) | "
f"answer='{answer_preview}' | "
f"total={elapsed_ms}ms"
)
for iteration in range(max_iterations):
is_last = iteration == max_iterations - 1
if is_last:
# Force text response on last iteration - no tools
prompt = build_final_prompt(query, context_history, bank_profile, context)
llm_start = time.time()
response, usage = await llm_config.call(
messages=[
{"role": "system", "content": FINAL_SYSTEM_PROMPT},
{"role": "user", "content": prompt},
],
scope="reflect_agent_final",
max_completion_tokens=max_tokens,
return_usage=True,
)
llm_duration = int((time.time() - llm_start) * 1000)
total_input_tokens += usage.input_tokens
total_output_tokens += usage.output_tokens
llm_trace.append(
{
"scope": "final",
"duration_ms": llm_duration,
"input_tokens": usage.input_tokens,
"output_tokens": usage.output_tokens,
}
)
answer = _clean_answer_text(response.strip())
# Generate structured output if schema provided
structured_output = None
if response_schema and answer:
structured_output, struct_in, struct_out = await _generate_structured_output(
answer, response_schema, llm_config, reflect_id
)
total_input_tokens += struct_in
total_output_tokens += struct_out
_log_completion(answer, iteration + 1, forced=True)
return ReflectAgentResult(
text=answer,
structured_output=structured_output,
iterations=iteration + 1,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=_get_llm_trace(),
usage=_get_usage(),
directives_applied=directives_applied,
)
# Call LLM with tools
llm_start = time.time()
try:
result = await llm_config.call_with_tools(
messages=messages,
tools=tools,
scope="reflect_agent",
tool_choice="required" if iteration == 0 else "auto", # Force tool use on first iteration
)
llm_duration = int((time.time() - llm_start) * 1000)
total_input_tokens += result.input_tokens
total_output_tokens += result.output_tokens
llm_trace.append(
{
"scope": f"agent_{iteration + 1}",
"duration_ms": llm_duration,
"input_tokens": result.input_tokens,
"output_tokens": result.output_tokens,
}
)
except Exception as e:
err_duration = int((time.time() - llm_start) * 1000)
logger.warning(f"[REFLECT {reflect_id}] LLM error on iteration {iteration + 1}: {e} ({err_duration}ms)")
llm_trace.append({"scope": f"agent_{iteration + 1}_err", "duration_ms": err_duration})
# Guardrail: If no evidence gathered yet, retry
has_gathered_evidence = (
bool(available_memory_ids) or bool(available_mental_model_ids) or bool(available_observation_ids)
)
if not has_gathered_evidence and iteration < max_iterations - 1:
continue
prompt = build_final_prompt(query, context_history, bank_profile, context)
llm_start = time.time()
response, usage = await llm_config.call(
messages=[
{"role": "system", "content": FINAL_SYSTEM_PROMPT},
{"role": "user", "content": prompt},
],
scope="reflect_agent_final",
max_completion_tokens=max_tokens,
return_usage=True,
)
llm_duration = int((time.time() - llm_start) * 1000)
total_input_tokens += usage.input_tokens
total_output_tokens += usage.output_tokens
llm_trace.append(
{
"scope": "final",
"duration_ms": llm_duration,
"input_tokens": usage.input_tokens,
"output_tokens": usage.output_tokens,
}
)
answer = _clean_answer_text(response.strip())
# Generate structured output if schema provided
structured_output = None
if response_schema and answer:
structured_output, struct_in, struct_out = await _generate_structured_output(
answer, response_schema, llm_config, reflect_id
)
total_input_tokens += struct_in
total_output_tokens += struct_out
_log_completion(answer, iteration + 1, forced=True)
return ReflectAgentResult(
text=answer,
structured_output=structured_output,
iterations=iteration + 1,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=_get_llm_trace(),
usage=_get_usage(),
directives_applied=directives_applied,
)
# No tool calls - LLM wants to respond with text
if not result.tool_calls:
if result.content:
answer = _clean_answer_text(result.content.strip())
# Generate structured output if schema provided
structured_output = None
if response_schema and answer:
structured_output, struct_in, struct_out = await _generate_structured_output(
answer, response_schema, llm_config, reflect_id
)
total_input_tokens += struct_in
total_output_tokens += struct_out
_log_completion(answer, iteration + 1)
return ReflectAgentResult(
text=answer,
structured_output=structured_output,
iterations=iteration + 1,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=_get_llm_trace(),
usage=_get_usage(),
directives_applied=directives_applied,
)
# Empty response, force final
prompt = build_final_prompt(query, context_history, bank_profile, context)
llm_start = time.time()
response, usage = await llm_config.call(
messages=[
{"role": "system", "content": FINAL_SYSTEM_PROMPT},
{"role": "user", "content": prompt},
],
scope="reflect_agent_final",
max_completion_tokens=max_tokens,
return_usage=True,
)
llm_duration = int((time.time() - llm_start) * 1000)
total_input_tokens += usage.input_tokens
total_output_tokens += usage.output_tokens
llm_trace.append(
{
"scope": "final",
"duration_ms": llm_duration,
"input_tokens": usage.input_tokens,
"output_tokens": usage.output_tokens,
}
)
answer = _clean_answer_text(response.strip())
# Generate structured output if schema provided
structured_output = None
if response_schema and answer:
structured_output, struct_in, struct_out = await _generate_structured_output(
answer, response_schema, llm_config, reflect_id
)
total_input_tokens += struct_in
total_output_tokens += struct_out
_log_completion(answer, iteration + 1, forced=True)
return ReflectAgentResult(
text=answer,
structured_output=structured_output,
iterations=iteration + 1,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=_get_llm_trace(),
usage=_get_usage(),
directives_applied=directives_applied,
)
# Check for done tool call (handle various LLM output formats)
done_call = next((tc for tc in result.tool_calls if _is_done_tool(tc.name)), None)
if done_call:
# Guardrail: Require evidence before done
has_gathered_evidence = (
bool(available_memory_ids) or bool(available_mental_model_ids) or bool(available_observation_ids)
)
if not has_gathered_evidence and iteration < max_iterations - 1:
# Add assistant message and fake tool result asking for evidence
messages.append(
{
"role": "assistant",
"tool_calls": [_tool_call_to_dict(done_call)],
}
)
messages.append(
{
"role": "tool",
"tool_call_id": done_call.id,
"name": done_call.name, # Required by Gemini
"content": json.dumps(
{
"error": "You must search for information first. Use search_mental_models(), search_observations(), or recall() before providing your final answer."
}
),
}
)
continue
# Process done tool
return await _process_done_tool(
done_call,
available_memory_ids,
available_mental_model_ids,
available_observation_ids,
iteration + 1,
total_tools_called,
tool_trace,
_get_llm_trace(),
_get_usage(),
_log_completion,
reflect_id,
directives_applied=directives_applied,
llm_config=llm_config,
response_schema=response_schema,
)
# Execute other tools in parallel (exclude done tool in all its format variants)
other_tools = [tc for tc in result.tool_calls if not _is_done_tool(tc.name)]
if other_tools:
# Add assistant message with tool calls
messages.append(
{
"role": "assistant",
"tool_calls": [_tool_call_to_dict(tc) for tc in other_tools],
}
)
# Execute tools in parallel
tool_tasks = [
_execute_tool_with_timing(
tc,
search_mental_models_fn,
search_observations_fn,
recall_fn,
expand_fn,
)
for tc in other_tools
]
tool_results = await asyncio.gather(*tool_tasks, return_exceptions=True)
total_tools_called += len(other_tools)
# Process results and add to messages
for tc, result_data in zip(other_tools, tool_results):
if isinstance(result_data, Exception):
# Tool execution failed - send error back to LLM so it can try again
logger.warning(f"[REFLECT {reflect_id}] Tool {tc.name} failed with exception: {result_data}")
output = {"error": f"Tool execution failed: {result_data}"}
duration_ms = 0
else:
output, duration_ms = result_data
# Normalize tool name for consistent tracking
normalized_tool_name = _normalize_tool_name(tc.name)
# Check if tool returned an error response - log but continue (LLM will see the error)
if isinstance(output, dict) and "error" in output:
logger.warning(
f"[REFLECT {reflect_id}] Tool {normalized_tool_name} returned error: {output['error']}"
)
# Track available IDs from tool results (only for successful responses)
if (
normalized_tool_name == "search_mental_models"
and isinstance(output, dict)
and "mental_models" in output
):
for mm in output["mental_models"]:
if "id" in mm:
available_mental_model_ids.add(mm["id"])
if (
normalized_tool_name == "search_observations"
and isinstance(output, dict)
and "observations" in output
):
for obs in output["observations"]:
if "id" in obs:
available_observation_ids.add(obs["id"])
if normalized_tool_name == "recall" and isinstance(output, dict) and "memories" in output:
for memory in output["memories"]:
if "id" in memory:
available_memory_ids.add(memory["id"])
# Add tool result message
messages.append(
{
"role": "tool",
"tool_call_id": tc.id,
"name": tc.name, # Required by Gemini
"content": json.dumps(output, default=str),
}
)
# Track for logging and context history
input_dict = {"tool": tc.name, **tc.arguments}
input_summary = _summarize_input(tc.name, tc.arguments)
# Extract reason from tool arguments (if provided)
tool_reason = tc.arguments.get("reason")
tool_trace.append(
ToolCall(
tool=tc.name,
reason=tool_reason,
input=input_dict,
output=output,
duration_ms=duration_ms,
iteration=iteration + 1,
)
)
try:
output_chars = len(json.dumps(output))
except (TypeError, ValueError):
output_chars = len(str(output))
tool_trace_summary.append(
{
"tool": tc.name,
"input_summary": input_summary,
"duration_ms": duration_ms,
"output_chars": output_chars,
}
)
# Keep context history for fallback final prompt
context_history.append({"tool": tc.name, "input": input_dict, "output": output})
# Should not reach here
answer = "I was unable to formulate a complete answer within the iteration limit."
_log_completion(answer, max_iterations, forced=True)
return ReflectAgentResult(
text=answer,
iterations=max_iterations,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=_get_llm_trace(),
usage=_get_usage(),
directives_applied=directives_applied,
)
def _tool_call_to_dict(tc: "LLMToolCall") -> dict[str, Any]:
"""Convert LLMToolCall to OpenAI message format."""
return {
"id": tc.id,
"type": "function",
"function": {
"name": tc.name,
"arguments": json.dumps(tc.arguments),
},
}
async def _process_done_tool(
done_call: "LLMToolCall",
available_memory_ids: set[str],
available_mental_model_ids: set[str],
available_observation_ids: set[str],
iterations: int,
total_tools_called: int,
tool_trace: list[ToolCall],
llm_trace: list[LLMCall],
usage: TokenUsageSummary,
log_completion: Callable,
reflect_id: str,
directives_applied: list[DirectiveInfo],
llm_config: "LLMProvider | None" = None,
response_schema: dict | None = None,
) -> ReflectAgentResult:
"""Process the done tool call and return the result."""
args = done_call.arguments
# Extract and clean the answer - some LLMs leak structured output into the answer text
raw_answer = args.get("answer", "").strip()
answer = _clean_done_answer(raw_answer) if raw_answer else ""
if not answer:
answer = "No answer provided."
# Validate IDs (only include IDs that were actually retrieved)
used_memory_ids = [mid for mid in args.get("memory_ids", []) if mid in available_memory_ids]
used_mental_model_ids = [mid for mid in args.get("mental_model_ids", []) if mid in available_mental_model_ids]
used_observation_ids = [oid for oid in args.get("observation_ids", []) if oid in available_observation_ids]
# Generate structured output if schema provided
structured_output = None
final_usage = usage
if response_schema and llm_config and answer:
structured_output, struct_in, struct_out = await _generate_structured_output(
answer, response_schema, llm_config, reflect_id
)
# Add structured output tokens to usage
final_usage = TokenUsageSummary(
input_tokens=usage.input_tokens + struct_in,
output_tokens=usage.output_tokens + struct_out,
total_tokens=usage.total_tokens + struct_in + struct_out,
)
log_completion(answer, iterations)
return ReflectAgentResult(
text=answer,
structured_output=structured_output,
iterations=iterations,
tools_called=total_tools_called,
tool_trace=tool_trace,
llm_trace=llm_trace,
usage=final_usage,
used_memory_ids=used_memory_ids,
used_mental_model_ids=used_mental_model_ids,
used_observation_ids=used_observation_ids,
directives_applied=directives_applied,
)
async def _execute_tool_with_timing(
tc: "LLMToolCall",
search_mental_models_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
search_observations_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
recall_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
expand_fn: Callable[[list[str], str], Awaitable[dict[str, Any]]],
) -> tuple[dict[str, Any], int]:
"""Execute a tool call and return result with timing."""
start = time.time()
result = await _execute_tool(
tc.name,
tc.arguments,
search_mental_models_fn,
search_observations_fn,
recall_fn,
expand_fn,
)
duration_ms = int((time.time() - start) * 1000)
return result, duration_ms
async def _execute_tool(
tool_name: str,
args: dict[str, Any],
search_mental_models_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
search_observations_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
recall_fn: Callable[[str, int], Awaitable[dict[str, Any]]],
expand_fn: Callable[[list[str], str], Awaitable[dict[str, Any]]],
) -> dict[str, Any]:
"""Execute a single tool by name."""
# Normalize tool name for various LLM output formats
tool_name = _normalize_tool_name(tool_name)
if tool_name == "search_mental_models":
query = args.get("query")
if not query:
return {"error": "search_mental_models requires a query parameter"}
max_results = args.get("max_results") or 5
return await search_mental_models_fn(query, max_results)
elif tool_name == "search_observations":
query = args.get("query")
if not query:
return {"error": "search_observations requires a query parameter"}
max_tokens = max(args.get("max_tokens") or 5000, 1000) # Default 5000, min 1000
return await search_observations_fn(query, max_tokens)
elif tool_name == "recall":
query = args.get("query")
if not query:
return {"error": "recall requires a query parameter"}
max_tokens = max(args.get("max_tokens") or 2048, 1000) # Default 2048, min 1000
return await recall_fn(query, max_tokens)
elif tool_name == "expand":
memory_ids = args.get("memory_ids", [])
if not memory_ids:
return {"error": "expand requires memory_ids"}
depth = args.get("depth", "chunk")
return await expand_fn(memory_ids, depth)
else:
return {"error": f"Unknown tool: {tool_name}"}
def _summarize_input(tool_name: str, args: dict[str, Any]) -> str:
"""Create a summary of tool input for logging, showing all params."""
if tool_name == "search_mental_models":
query = args.get("query", "")
query_preview = f"'{query[:30]}...'" if len(query) > 30 else f"'{query}'"
max_results = args.get("max_results") or 5
return f"(query={query_preview}, max_results={max_results})"
elif tool_name == "search_observations":
query = args.get("query", "")
query_preview = f"'{query[:30]}...'" if len(query) > 30 else f"'{query}'"
max_tokens = max(args.get("max_tokens") or 5000, 1000)
return f"(query={query_preview}, max_tokens={max_tokens})"
elif tool_name == "recall":
query = args.get("query", "")
query_preview = f"'{query[:30]}...'" if len(query) > 30 else f"'{query}'"
# Show actual value used (default 2048, min 1000)
max_tokens = max(args.get("max_tokens") or 2048, 1000)
return f"(query={query_preview}, max_tokens={max_tokens})"
elif tool_name == "expand":
memory_ids = args.get("memory_ids", [])
depth = args.get("depth", "chunk")
return f"(memory_ids=[{len(memory_ids)} ids], depth={depth})"
elif tool_name == "done":
answer = args.get("answer", "")
answer_preview = f"'{answer[:30]}...'" if len(answer) > 30 else f"'{answer}'"
memory_ids = args.get("memory_ids", [])
mental_model_ids = args.get("mental_model_ids", [])
observation_ids = args.get("observation_ids", [])
return (
f"(answer={answer_preview}, mem={len(memory_ids)}, mm={len(mental_model_ids)}, obs={len(observation_ids)})"
)
return str(args)
@@ -1,109 +0,0 @@
"""
Pydantic models for the reflect agent.
"""
from typing import Any, Literal
from pydantic import BaseModel, Field
class ObservationSection(BaseModel):
"""A section within an observation with its supporting memories."""
title: str = Field(description="Section header (can be empty for intro)")
text: str = Field(description="Section content - no headers, use lists/tables/bold")
memory_ids: list[str] = Field(default_factory=list, description="Memory IDs supporting this section")
class ReflectAction(BaseModel):
"""Single action the reflect agent can take."""
tool: Literal["list_observations", "get_observation", "recall", "expand", "done"] = Field(
description="Tool to invoke: list_observations, get_observation, recall, expand, or done"
)
# Tool-specific parameters
observation_id: str | None = Field(default=None, description="Observation ID for get_observation")
query: str | None = Field(default=None, description="Search query for recall")
max_tokens: int | None = Field(default=None, description="Max tokens for recall results (default 2048)")
memory_ids: list[str] | None = Field(default=None, description="Memory unit IDs for expand (batched)")
depth: Literal["chunk", "document"] | None = Field(default=None, description="Expansion depth for expand")
observation_sections: list[ObservationSection] | None = Field(
default=None, description="Observation sections for done action (when output_mode=observations)"
)
# Plain text answer fields (for output_mode=answer)
answer: str | None = Field(default=None, description="Plain text answer for done action (no markdown)")
answer_memory_ids: list[str] | None = Field(
default=None, description="Memory IDs supporting the answer", alias="memory_ids"
)
answer_model_ids: list[str] | None = Field(
default=None, description="Mental model IDs supporting the answer", alias="model_ids"
)
reasoning: str | None = Field(default=None, description="Brief reasoning for this action")
class ReflectActionBatch(BaseModel):
"""Batch of actions for parallel execution."""
actions: list[ReflectAction] = Field(description="List of actions to execute in parallel")
class ToolCall(BaseModel):
"""A single tool call made during reflect."""
tool: str = Field(description="Tool name: lookup, recall, expand")
reason: str | None = Field(default=None, description="Agent's reasoning for making this tool call")
input: dict = Field(description="Tool input parameters")
output: dict = Field(description="Tool output/result")
duration_ms: int = Field(description="Execution time in milliseconds")
iteration: int = Field(default=0, description="Iteration number (1-based) when this tool was called")
class LLMCall(BaseModel):
"""A single LLM call made during reflect."""
scope: str = Field(description="Call scope: agent_1, agent_2, final, etc.")
duration_ms: int = Field(description="Execution time in milliseconds")
input_tokens: int = Field(default=0, description="Input tokens used")
output_tokens: int = Field(default=0, description="Output tokens used")
class DirectiveInfo(BaseModel):
"""Information about a directive that was applied during reflect."""
id: str = Field(description="Directive mental model ID")
name: str = Field(description="Directive name")
content: str = Field(description="Directive content")
class TokenUsageSummary(BaseModel):
"""Total token usage across all LLM calls."""
input_tokens: int = Field(default=0, description="Total input tokens used")
output_tokens: int = Field(default=0, description="Total output tokens used")
total_tokens: int = Field(default=0, description="Total tokens (input + output)")
class ReflectAgentResult(BaseModel):
"""Result from the reflect agent."""
text: str = Field(description="Final answer text")
structured_output: dict[str, Any] | None = Field(
default=None, description="Structured output parsed according to provided response_schema"
)
iterations: int = Field(default=0, description="Number of iterations taken")
tools_called: int = Field(default=0, description="Total number of tool calls made")
tool_trace: list[ToolCall] = Field(default_factory=list, description="Trace of all tool calls made")
llm_trace: list[LLMCall] = Field(default_factory=list, description="Trace of all LLM calls made")
usage: TokenUsageSummary = Field(
default_factory=TokenUsageSummary, description="Total token usage across all LLM calls"
)
used_memory_ids: list[str] = Field(default_factory=list, description="Validated memory IDs actually used in answer")
used_mental_model_ids: list[str] = Field(
default_factory=list, description="Validated mental model IDs actually used in answer"
)
used_observation_ids: list[str] = Field(
default_factory=list, description="Validated observation IDs actually used in answer"
)
directives_applied: list[DirectiveInfo] = Field(
default_factory=list, description="Directive mental models that affected this reflection"
)
@@ -1,186 +0,0 @@
"""
Models and utilities for evidence-grounded observations with computed trends.
Observations are part of mental models and represent patterns/beliefs derived
from memories. Each observation must be grounded in specific evidence (quotes)
from memories, and trends are computed algorithmically from evidence timestamps.
"""
from datetime import datetime, timedelta, timezone
from enum import Enum
from pydantic import BaseModel, Field, computed_field, field_validator
class Trend(str, Enum):
"""Computed trend for an observation based on evidence timestamps.
Trends indicate how an observation's evidence is distributed over time:
- STABLE: Evidence spread across time, continues to present
- STRENGTHENING: More/denser evidence recently than before
- WEAKENING: Evidence mostly old, sparse recently
- NEW: All evidence within recent window
- STALE: No evidence in recent window (may no longer apply)
"""
STABLE = "stable"
STRENGTHENING = "strengthening"
WEAKENING = "weakening"
NEW = "new"
STALE = "stale"
class ObservationEvidence(BaseModel):
"""A single piece of evidence supporting an observation.
Each evidence item must include an exact quote from the source memory
to ensure observations are grounded and verifiable.
"""
memory_id: str = Field(description="ID of the memory unit this evidence comes from")
quote: str = Field(description="Exact quote from the memory supporting the observation")
relevance: str = Field(default="", description="Brief explanation of how this quote supports the observation")
timestamp: datetime = Field(description="When the source memory was created")
@field_validator("timestamp", mode="before")
@classmethod
def ensure_timezone_aware(cls, v: datetime | str | None) -> datetime:
"""Ensure timestamp is always timezone-aware UTC."""
if v is None:
return datetime.now(timezone.utc)
if isinstance(v, str):
# Parse ISO format string, handling 'Z' suffix
v = datetime.fromisoformat(v.replace("Z", "+00:00"))
if isinstance(v, datetime):
if v.tzinfo is None:
return v.replace(tzinfo=timezone.utc)
return v
raise ValueError(f"Invalid timestamp type: {type(v)}")
class Observation(BaseModel):
"""A single observation within a mental model.
Observations represent patterns, preferences, beliefs, or other insights
derived from memories. Each observation must be grounded in evidence
with exact quotes from source memories.
"""
title: str = Field(description="Short summary title for the observation (5-10 words)")
content: str = Field(description="The observation content - detailed explanation of what we believe to be true")
evidence: list[ObservationEvidence] = Field(default_factory=list, description="Supporting evidence with quotes")
created_at: datetime = Field(
default_factory=lambda: datetime.now(timezone.utc), description="When this observation was first created"
)
@field_validator("created_at", mode="before")
@classmethod
def ensure_created_at_timezone_aware(cls, v: datetime | str | None) -> datetime:
"""Ensure created_at is always timezone-aware UTC."""
if v is None:
return datetime.now(timezone.utc)
if isinstance(v, str):
v = datetime.fromisoformat(v.replace("Z", "+00:00"))
if isinstance(v, datetime):
if v.tzinfo is None:
return v.replace(tzinfo=timezone.utc)
return v
raise ValueError(f"Invalid created_at type: {type(v)}")
@computed_field
@property
def trend(self) -> Trend:
"""Compute trend from evidence timestamps."""
return compute_trend(self.evidence)
@computed_field
@property
def evidence_span(self) -> dict[str, str | None]:
"""Get the time span covered by evidence."""
if not self.evidence:
return {"from": None, "to": None}
timestamps = [e.timestamp for e in self.evidence]
return {
"from": min(timestamps).isoformat(),
"to": max(timestamps).isoformat(),
}
@computed_field
@property
def evidence_count(self) -> int:
"""Number of evidence items supporting this observation."""
return len(self.evidence)
def compute_trend(
evidence: list[ObservationEvidence],
now: datetime | None = None,
recent_days: int = 30,
old_days: int = 90,
) -> Trend:
"""Compute the trend for an observation based on evidence timestamps.
The trend indicates how the evidence is distributed over time:
- STABLE: Evidence spread across time, continues to present
- STRENGTHENING: More evidence recently than historically
- WEAKENING: Evidence mostly old, sparse recently
- NEW: All evidence is recent (within recent_days)
- STALE: No evidence in recent window
Args:
evidence: List of evidence items with timestamps
now: Reference time for calculations (defaults to current UTC time)
recent_days: Number of days to consider "recent" (default 30)
old_days: Number of days to consider "old" (default 90)
Returns:
Computed Trend enum value
"""
if now is None:
now = datetime.now(timezone.utc)
# Ensure now is timezone-aware
if now.tzinfo is None:
now = now.replace(tzinfo=timezone.utc)
if not evidence:
return Trend.STALE
recent_cutoff = now - timedelta(days=recent_days)
old_cutoff = now - timedelta(days=old_days)
# Normalize timestamps to UTC for comparison
def normalize_ts(ts: datetime) -> datetime:
if ts.tzinfo is None:
return ts.replace(tzinfo=timezone.utc)
return ts
recent = [e for e in evidence if normalize_ts(e.timestamp) > recent_cutoff]
old = [e for e in evidence if normalize_ts(e.timestamp) < old_cutoff]
middle = [e for e in evidence if old_cutoff <= normalize_ts(e.timestamp) <= recent_cutoff]
# No recent evidence = stale
if not recent:
return Trend.STALE
# All evidence is recent = new
if not old and not middle:
return Trend.NEW
# Compare density (evidence per day)
recent_density = len(recent) / recent_days if recent_days > 0 else 0
older_period = old_days - recent_days
older_density = (len(old) + len(middle)) / older_period if older_period > 0 else 0
# Avoid division by zero
if older_density == 0:
return Trend.NEW
ratio = recent_density / older_density
if ratio > 1.5:
return Trend.STRENGTHENING
elif ratio < 0.5:
return Trend.WEAKENING
else:
return Trend.STABLE
@@ -1,483 +0,0 @@
"""
System prompts for the reflect agent.
The reflect agent uses hierarchical retrieval:
1. search_mental_models - User-curated summaries (highest quality)
2. search_observations - Consolidated knowledge with freshness awareness
3. recall - Raw facts as ground truth fallback
"""
import json
from typing import Any
def _extract_directive_rules(directives: list[dict[str, Any]]) -> list[str]:
"""
Extract directive rules as a list of strings.
Args:
directives: List of directives with name and content
Returns:
List of directive rule strings
"""
rules = []
for directive in directives:
directive_name = directive.get("name", "")
# New format: directives have direct content field
content = directive.get("content", "")
if content:
if directive_name:
rules.append(f"**{directive_name}**: {content}")
else:
rules.append(content)
else:
# Legacy format: check for observations
observations = directive.get("observations", [])
if observations:
for obs in observations:
# Support both Pydantic Observation objects and dicts
if hasattr(obs, "title"):
title = obs.title
obs_content = obs.content
else:
title = obs.get("title", "")
obs_content = obs.get("content", "")
if title and obs_content:
rules.append(f"**{title}**: {obs_content}")
elif obs_content:
rules.append(obs_content)
elif directive_name:
# Fallback to description
desc = directive.get("description", "")
if desc:
rules.append(f"**{directive_name}**: {desc}")
return rules
def build_directives_section(directives: list[dict[str, Any]]) -> str:
"""
Build the directives section for the system prompt.
Directives are hard rules that MUST be followed in all responses.
Args:
directives: List of directive mental models with observations
"""
if not directives:
return ""
rules = _extract_directive_rules(directives)
if not rules:
return ""
parts = [
"## DIRECTIVES (MANDATORY)",
"These are hard rules you MUST follow in ALL responses:",
"",
]
for rule in rules:
parts.append(f"- {rule}")
parts.extend(
[
"",
"NEVER violate these directives, even if other context suggests otherwise.",
"IMPORTANT: Do NOT explain or justify how you handled directives in your answer. Just follow them silently.",
"",
]
)
return "\n".join(parts)
def build_directives_reminder(directives: list[dict[str, Any]]) -> str:
"""
Build a reminder section for directives to place at the end of the prompt.
Args:
directives: List of directive mental models with observations
"""
if not directives:
return ""
rules = _extract_directive_rules(directives)
if not rules:
return ""
parts = [
"",
"## REMINDER: MANDATORY DIRECTIVES",
"Before responding, ensure your answer complies with ALL of these directives:",
"",
]
for i, rule in enumerate(rules, 1):
parts.append(f"{i}. {rule}")
parts.append("")
parts.append("Your response will be REJECTED if it violates any directive above.")
parts.append("Do NOT include any commentary about how you handled directives - just follow them.")
return "\n".join(parts)
def build_system_prompt_for_tools(
bank_profile: dict[str, Any],
context: str | None = None,
directives: list[dict[str, Any]] | None = None,
has_mental_models: bool = False,
budget: str | None = None,
) -> str:
"""
Build the system prompt for tool-calling reflect agent.
The agent uses hierarchical retrieval:
1. search_mental_models - User-curated summaries (try first, if available)
2. search_observations - Consolidated knowledge with freshness
3. recall - Raw facts as ground truth
Args:
bank_profile: Bank profile with name and mission
context: Optional additional context
directives: Optional list of directive mental models to inject as hard rules
has_mental_models: Whether the bank has any mental models (skip if not)
budget: Search depth budget - "low", "mid", or "high". Controls exploration thoroughness.
"""
name = bank_profile.get("name", "Assistant")
mission = bank_profile.get("mission", "")
parts = []
# Inject directives at the VERY START for maximum prominence
if directives:
parts.append(build_directives_section(directives))
parts.extend(
[
"You are a reflection agent that answers questions by reasoning over retrieved memories.",
"",
]
)
parts.extend(
[
"## CRITICAL RULES",
"- You must NEVER fabricate information that has no basis in retrieved data",
"- You SHOULD synthesize, infer, and reason from the retrieved memories",
"- You MUST search before saying you don't have information",
"",
"## How to Reason",
"- If memories mention someone did an activity, you can infer they likely enjoyed it",
"- Synthesize a coherent narrative from related memories",
"- Be a thoughtful interpreter, not just a literal repeater",
"- When the exact answer isn't stated, use what IS stated to give the best answer",
"",
"## HIERARCHICAL RETRIEVAL STRATEGY",
"",
]
)
# Build retrieval levels based on what's available
if has_mental_models:
parts.extend(
[
"You have access to THREE levels of knowledge. Use them in this order:",
"",
"### 1. MENTAL MODELS (search_mental_models) - Try First",
"- User-curated summaries about specific topics",
"- HIGHEST quality - manually created and maintained",
"- If a relevant mental model exists and is FRESH, it may fully answer the question",
"- Check `is_stale` field - if stale, also verify with lower levels",
"",
"### 2. OBSERVATIONS (search_observations) - Second Priority",
"- Auto-consolidated knowledge from memories",
"- Check `is_stale` field - if stale, ALSO use recall() to verify",
"- Good for understanding patterns and summaries",
"",
"### 3. RAW FACTS (recall) - Ground Truth",
"- Individual memories (world facts and experiences)",
"- Use when: no mental models/observations exist, they're stale, or you need specific details",
"- This is the source of truth that other levels are built from",
"",
]
)
else:
parts.extend(
[
"You have access to TWO levels of knowledge. Use them in this order:",
"",
"### 1. OBSERVATIONS (search_observations) - Try First",
"- Auto-consolidated knowledge from memories",
"- Check `is_stale` field - if stale, ALSO use recall() to verify",
"- Good for understanding patterns and summaries",
"",
"### 2. RAW FACTS (recall) - Ground Truth",
"- Individual memories (world facts and experiences)",
"- Use when: no observations exist, they're stale, or you need specific details",
"- This is the source of truth that observations are built from",
"",
]
)
parts.extend(
[
"## Query Strategy",
"recall() uses semantic search. NEVER just echo the user's question - decompose it into targeted searches:",
"",
"BAD: User asks 'recurring lesson themes between students' → recall('recurring lesson themes between students')",
"GOOD: Break it down into component searches:",
" 1. recall('lessons') - find all lesson-related memories",
" 2. recall('teaching sessions') - alternative phrasing",
" 3. recall('student progress') - find student-related memories",
"",
"Think: What ENTITIES and CONCEPTS does this question involve? Search for each separately.",
"",
]
)
# Add budget guidance
if budget:
budget_lower = budget.lower()
if budget_lower == "low":
parts.extend(
[
"## RESEARCH DEPTH: SHALLOW (Quick Response)",
"- Prioritize speed over completeness",
"- If mental models or observations provide a reasonable answer, stop there",
"- Only dig deeper if the initial results are clearly insufficient",
"- Prefer a quick overview rather than exhaustive details",
"- Answer promptly with available information",
"",
]
)
elif budget_lower == "mid":
parts.extend(
[
"## RESEARCH DEPTH: MODERATE (Balanced)",
"- Balance thoroughness with efficiency",
"- Check multiple sources when the question warrants it",
"- Verify stale data if it's central to the answer",
"- Don't over-explore, but ensure reasonable coverage",
"",
]
)
elif budget_lower == "high":
parts.extend(
[
"## RESEARCH DEPTH: DEEP (Thorough Exploration)",
"- Explore comprehensively before answering",
"- Search across all available knowledge levels",
"- Use multiple query variations to ensure coverage",
"- Verify information across different retrieval levels",
"- Use expand() to get full context on important memories",
"- Take time to synthesize a complete, well-researched answer",
"",
]
)
parts.append("## Workflow")
if has_mental_models:
parts.extend(
[
"1. First, try search_mental_models() - check if a curated summary exists",
"2. If no mental model or it's stale, try search_observations() for consolidated knowledge",
"3. If observations are stale OR you need specific details, use recall() for raw facts",
"4. Use expand() if you need more context on specific memories",
"5. When ready, call done() with your answer and supporting IDs",
]
)
else:
parts.extend(
[
"1. First, try search_observations() - check for consolidated knowledge",
"2. If observations are stale OR you need specific details, use recall() for raw facts",
"3. Use expand() if you need more context on specific memories",
"4. When ready, call done() with your answer and supporting IDs",
]
)
parts.extend(
[
"",
"## Output Format: Plain Text Answer",
"Call done() with a plain text 'answer' field.",
"- Do NOT use markdown formatting",
"- NEVER include memory IDs, UUIDs, or 'Memory references' in the answer text",
"- Put IDs ONLY in the memory_ids/mental_model_ids/observation_ids arrays, not in the answer",
]
)
parts.append("")
parts.append(f"## Memory Bank: {name}")
if mission:
parts.append(f"Mission: {mission}")
# Disposition traits
disposition = bank_profile.get("disposition", {})
if disposition:
traits = []
if "skepticism" in disposition:
traits.append(f"skepticism={disposition['skepticism']}")
if "literalism" in disposition:
traits.append(f"literalism={disposition['literalism']}")
if "empathy" in disposition:
traits.append(f"empathy={disposition['empathy']}")
if traits:
parts.append(f"Disposition: {', '.join(traits)}")
if context:
parts.append(f"\n## Additional Context\n{context}")
# Add directive reminder at the END for recency effect
if directives:
parts.append(build_directives_reminder(directives))
return "\n".join(parts)
def build_agent_prompt(
query: str,
context_history: list[dict],
bank_profile: dict,
additional_context: str | None = None,
) -> str:
"""Build the user prompt for the reflect agent."""
parts = []
# Bank identity
name = bank_profile.get("name", "Assistant")
mission = bank_profile.get("mission", "")
parts.append(f"## Memory Bank Context\nName: {name}")
if mission:
parts.append(f"Mission: {mission}")
# Disposition traits if present
disposition = bank_profile.get("disposition", {})
if disposition:
traits = []
if "skepticism" in disposition:
traits.append(f"skepticism={disposition['skepticism']}")
if "literalism" in disposition:
traits.append(f"literalism={disposition['literalism']}")
if "empathy" in disposition:
traits.append(f"empathy={disposition['empathy']}")
if traits:
parts.append(f"Disposition: {', '.join(traits)}")
# Additional context from caller
if additional_context:
parts.append(f"\n## Additional Context\n{additional_context}")
# Tool call history
if context_history:
parts.append("\n## Tool Results (synthesize and reason from this data)")
for i, entry in enumerate(context_history, 1):
tool = entry["tool"]
output = entry["output"]
# Format as proper JSON for LLM readability
try:
output_str = json.dumps(output, indent=2, default=str)
except (TypeError, ValueError):
output_str = str(output)
parts.append(f"\n### Call {i}: {tool}\n```json\n{output_str}\n```")
# The question
parts.append(f"\n## Question\n{query}")
# Instructions
if context_history:
parts.append(
"\n## Instructions\n"
"Based on the tool results above, either call more tools or provide your final answer. "
"Synthesize and reason from the data - make reasonable inferences when helpful. "
"If you have related information, use it to give the best possible answer."
)
else:
parts.append(
"\n## Instructions\n"
"Start by searching for relevant information using the hierarchical retrieval strategy:\n"
"1. Try search_mental_models() first for curated summaries\n"
"2. Try search_observations() for consolidated knowledge\n"
"3. Use recall() for specific details or to verify stale data"
)
return "\n".join(parts)
def build_final_prompt(
query: str,
context_history: list[dict],
bank_profile: dict,
additional_context: str | None = None,
) -> str:
"""Build the final prompt when forcing a text response (no tools)."""
parts = []
# Bank identity
name = bank_profile.get("name", "Assistant")
mission = bank_profile.get("mission", "")
parts.append(f"## Memory Bank Context\nName: {name}")
if mission:
parts.append(f"Mission: {mission}")
# Disposition traits if present
disposition = bank_profile.get("disposition", {})
if disposition:
traits = []
if "skepticism" in disposition:
traits.append(f"skepticism={disposition['skepticism']}")
if "literalism" in disposition:
traits.append(f"literalism={disposition['literalism']}")
if "empathy" in disposition:
traits.append(f"empathy={disposition['empathy']}")
if traits:
parts.append(f"Disposition: {', '.join(traits)}")
# Additional context from caller
if additional_context:
parts.append(f"\n## Additional Context\n{additional_context}")
# Tool call history
if context_history:
parts.append("\n## Retrieved Data (synthesize and reason from this data)")
for entry in context_history:
tool = entry["tool"]
output = entry["output"]
# Format as proper JSON for LLM readability
try:
output_str = json.dumps(output, indent=2, default=str)
except (TypeError, ValueError):
output_str = str(output)
parts.append(f"\n### From {tool}:\n```json\n{output_str}\n```")
else:
parts.append("\n## Retrieved Data\nNo data was retrieved.")
# The question
parts.append(f"\n## Question\n{query}")
# Final instructions
parts.append(
"\n## Instructions\n"
"Provide a thoughtful answer by synthesizing and reasoning from the retrieved data above. "
"You can make reasonable inferences from the memories, but don't completely fabricate information."
"If the exact answer isn't stated, use what IS stated to give the best possible answer. "
"Only say 'I don't have information' if the retrieved data is truly unrelated to the question."
)
return "\n".join(parts)
FINAL_SYSTEM_PROMPT = """You are a thoughtful assistant that synthesizes answers from retrieved memories.
Your approach:
- Reason over the retrieved memories to answer the question
- Make reasonable inferences when the exact answer isn't explicitly stated
- Connect related memories to form a complete picture
- Be helpful - if you have related information, use it to give the best possible answer
Only say "I don't have information" if the retrieved data is truly unrelated to the question.
Do NOT fabricate information that has no basis in the retrieved data."""
@@ -1,437 +0,0 @@
"""
Tool implementations for the reflect agent.
Implements hierarchical retrieval:
1. search_mental_models - User-curated stored reflect responses (highest quality)
2. search_observations - Consolidated knowledge with freshness
3. recall - Raw facts as ground truth
"""
import logging
import uuid
from datetime import datetime, timedelta, timezone
from typing import TYPE_CHECKING, Any
if TYPE_CHECKING:
from asyncpg import Connection
from ...api.http import RequestContext
from ..memory_engine import MemoryEngine
logger = logging.getLogger(__name__)
# Observation is considered stale if not updated in this many days
STALE_THRESHOLD_DAYS = 7
async def tool_search_mental_models(
conn: "Connection",
bank_id: str,
query: str,
query_embedding: list[float],
max_results: int = 5,
tags: list[str] | None = None,
tags_match: str = "any",
exclude_ids: list[str] | None = None,
) -> dict[str, Any]:
"""
Search user-curated mental models by semantic similarity.
Mental models are high-quality, manually created summaries about specific topics.
They should be searched FIRST as they represent the most reliable synthesized knowledge.
Args:
conn: Database connection
bank_id: Bank identifier
query: Search query (for logging/tracing)
query_embedding: Pre-computed embedding for semantic search
max_results: Maximum number of mental models to return
tags: Optional tags to filter mental models
tags_match: How to match tags - "any" (OR), "all" (AND)
exclude_ids: Optional list of mental model IDs to exclude (e.g., when refreshing a mental model)
Returns:
Dict with matching mental models including content and freshness info
"""
from ..memory_engine import fq_table
# Build filters dynamically
filters = ""
params: list[Any] = [bank_id, str(query_embedding), max_results]
next_param = 4
if tags:
if tags_match == "all":
filters += f" AND tags @> ${next_param}::varchar[]"
else:
filters += f" AND (tags && ${next_param}::varchar[] OR tags IS NULL OR tags = '{{}}')"
params.append(tags)
next_param += 1
if exclude_ids:
filters += f" AND id != ALL(${next_param}::uuid[])"
params.append(exclude_ids)
next_param += 1
# Search mental models by embedding similarity
rows = await conn.fetch(
f"""
SELECT
id, name, content,
tags, created_at, last_refreshed_at,
1 - (embedding <=> $2::vector) as relevance
FROM {fq_table("mental_models")}
WHERE bank_id = $1 AND embedding IS NOT NULL {filters}
ORDER BY embedding <=> $2::vector
LIMIT $3
""",
*params,
)
now = datetime.now(timezone.utc)
mental_models = []
for row in rows:
last_refreshed_at = row["last_refreshed_at"]
if last_refreshed_at and last_refreshed_at.tzinfo is None:
last_refreshed_at = last_refreshed_at.replace(tzinfo=timezone.utc)
# Calculate freshness
is_stale = False
if last_refreshed_at:
age = now - last_refreshed_at
is_stale = age > timedelta(days=STALE_THRESHOLD_DAYS)
mental_models.append(
{
"id": str(row["id"]),
"name": row["name"],
"content": row["content"],
"tags": row["tags"] or [],
"relevance": round(row["relevance"], 4),
"updated_at": last_refreshed_at.isoformat() if last_refreshed_at else None,
"is_stale": is_stale,
}
)
return {
"query": query,
"count": len(mental_models),
"mental_models": mental_models,
}
async def tool_search_observations(
memory_engine: "MemoryEngine",
bank_id: str,
query: str,
request_context: "RequestContext",
max_tokens: int = 5000,
tags: list[str] | None = None,
tags_match: str = "any",
last_consolidated_at: datetime | None = None,
pending_consolidation: int = 0,
) -> dict[str, Any]:
"""
Search consolidated observations using recall with include_observations.
Observations are auto-generated from memories. Returns freshness info
so the agent knows if it should also verify with recall().
Args:
memory_engine: Memory engine instance
bank_id: Bank identifier
query: Search query
request_context: Request context for authentication
max_tokens: Maximum tokens for results (default 5000)
tags: Optional tags to filter observations
tags_match: How to match tags - "any" (OR), "all" (AND)
last_consolidated_at: When consolidation last ran (for staleness check)
pending_consolidation: Number of memories waiting to be consolidated
Returns:
Dict with matching observations including freshness info
"""
from ..memory_engine import fq_table
# Use recall to search observations (they come back in results field when fact_type=["observation"])
result = await memory_engine.recall_async(
bank_id=bank_id,
query=query,
fact_type=["observation"], # Only retrieve observations
max_tokens=max_tokens, # Token budget controls how many observations are returned
enable_trace=False,
request_context=request_context,
tags=tags,
tags_match=tags_match,
_connection_budget=1,
_quiet=True,
)
observations = []
# When fact_type=["observation"], results come back in `results` field as MemoryFact objects
# We need to fetch additional fields (proof_count, source_memory_ids) from the database
if result.results:
obs_ids = [m.id for m in result.results]
# Fetch proof_count and source_memory_ids for these observations
pool = await memory_engine._get_pool()
async with pool.acquire() as conn:
obs_rows = await conn.fetch(
f"""
SELECT id, proof_count, source_memory_ids
FROM {fq_table("memory_units")}
WHERE id = ANY($1::uuid[])
""",
obs_ids,
)
obs_data = {str(row["id"]): row for row in obs_rows}
for m in result.results:
# Get additional data from DB lookup
extra = obs_data.get(m.id, {})
proof_count = extra.get("proof_count", 1) if extra else 1
source_ids = extra.get("source_memory_ids", []) if extra else []
# Convert UUIDs to strings
source_memory_ids = [str(sid) for sid in (source_ids or [])]
# Determine staleness
is_stale = False
staleness_reason = None
if pending_consolidation > 0:
is_stale = True
staleness_reason = f"{pending_consolidation} memories pending consolidation"
observations.append(
{
"id": str(m.id),
"text": m.text,
"proof_count": proof_count,
"source_memory_ids": source_memory_ids,
"tags": m.tags or [],
"is_stale": is_stale,
"staleness_reason": staleness_reason,
}
)
# Return freshness info (more understandable than raw pending_consolidation count)
if pending_consolidation == 0:
freshness = "up_to_date"
elif pending_consolidation < 10:
freshness = "slightly_stale"
else:
freshness = "stale"
return {
"query": query,
"count": len(observations),
"observations": observations,
"freshness": freshness,
}
async def tool_recall(
memory_engine: "MemoryEngine",
bank_id: str,
query: str,
request_context: "RequestContext",
max_tokens: int = 2048,
max_results: int = 50,
tags: list[str] | None = None,
tags_match: str = "any",
connection_budget: int = 1,
) -> dict[str, Any]:
"""
Search memories using TEMPR retrieval.
This is the ground truth - raw facts and experiences.
Use when mental models/observations don't exist, are stale, or need verification.
Args:
memory_engine: Memory engine instance
bank_id: Bank identifier
query: Search query
request_context: Request context for authentication
max_tokens: Maximum tokens for results (default 2048)
max_results: Maximum number of results
tags: Filter by tags (includes untagged memories)
tags_match: How to match tags - "any" (OR), "all" (AND), or "exact"
connection_budget: Max DB connections for this recall (default 1 for internal ops)
Returns:
Dict with list of matching memories
"""
result = await memory_engine.recall_async(
bank_id=bank_id,
query=query,
fact_type=["experience", "world"], # Exclude opinions and observations
max_tokens=max_tokens,
enable_trace=False,
request_context=request_context,
tags=tags,
tags_match=tags_match,
_connection_budget=connection_budget,
_quiet=True, # Suppress logging for internal operations
)
memories = []
for m in result.results[:max_results]:
memories.append(
{
"id": str(m.id),
"text": m.text,
"type": m.fact_type,
"entities": m.entities or [],
"occurred": m.occurred_start, # Already ISO format string
}
)
return {
"query": query,
"count": len(memories),
"memories": memories,
}
async def tool_expand(
conn: "Connection",
bank_id: str,
memory_ids: list[str],
depth: str,
) -> dict[str, Any]:
"""
Expand multiple memories to get chunk or document context.
Args:
conn: Database connection
bank_id: Bank identifier
memory_ids: List of memory unit IDs
depth: "chunk" or "document"
Returns:
Dict with results array, each containing memory, chunk, and optionally document data
"""
from ..memory_engine import fq_table
if not memory_ids:
return {"error": "memory_ids is required and must not be empty"}
# Validate and convert UUIDs
valid_uuids: list[uuid.UUID] = []
errors: dict[str, str] = {}
for mid in memory_ids:
try:
valid_uuids.append(uuid.UUID(mid))
except ValueError:
errors[mid] = f"Invalid memory_id format: {mid}"
if not valid_uuids:
return {"error": "No valid memory IDs provided", "details": errors}
# Batch fetch all memory units
memories = await conn.fetch(
f"""
SELECT id, text, chunk_id, document_id, fact_type, context
FROM {fq_table("memory_units")}
WHERE id = ANY($1) AND bank_id = $2
""",
valid_uuids,
bank_id,
)
memory_map = {row["id"]: row for row in memories}
# Collect chunk_ids and document_ids for batch fetching
chunk_ids = [m["chunk_id"] for m in memories if m["chunk_id"]]
doc_ids_from_chunks: set[str] = set()
doc_ids_direct: set[str] = set()
# Batch fetch all chunks
chunk_map: dict[str, Any] = {}
if chunk_ids:
chunks = await conn.fetch(
f"""
SELECT chunk_id, chunk_text, chunk_index, document_id
FROM {fq_table("chunks")}
WHERE chunk_id = ANY($1)
""",
chunk_ids,
)
chunk_map = {row["chunk_id"]: row for row in chunks}
if depth == "document":
doc_ids_from_chunks = {c["document_id"] for c in chunks if c["document_id"]}
# Collect direct document IDs (memories without chunks)
if depth == "document":
for m in memories:
if not m["chunk_id"] and m["document_id"]:
doc_ids_direct.add(m["document_id"])
# Batch fetch all documents
doc_map: dict[str, Any] = {}
all_doc_ids = list(doc_ids_from_chunks | doc_ids_direct)
if all_doc_ids:
docs = await conn.fetch(
f"""
SELECT id, original_text, metadata, retain_params
FROM {fq_table("documents")}
WHERE id = ANY($1) AND bank_id = $2
""",
all_doc_ids,
bank_id,
)
doc_map = {row["id"]: row for row in docs}
# Build results
results: list[dict[str, Any]] = []
for mid, mem_uuid in zip(memory_ids, valid_uuids):
if mid in errors:
results.append({"memory_id": mid, "error": errors[mid]})
continue
memory = memory_map.get(mem_uuid)
if not memory:
results.append({"memory_id": mid, "error": f"Memory not found: {mid}"})
continue
item: dict[str, Any] = {
"memory_id": mid,
"memory": {
"id": str(memory["id"]),
"text": memory["text"],
"type": memory["fact_type"],
"context": memory["context"],
},
}
# Add chunk if available
if memory["chunk_id"] and memory["chunk_id"] in chunk_map:
chunk = chunk_map[memory["chunk_id"]]
item["chunk"] = {
"id": chunk["chunk_id"],
"text": chunk["chunk_text"],
"index": chunk["chunk_index"],
"document_id": chunk["document_id"],
}
# Add document if depth=document
if depth == "document" and chunk["document_id"] in doc_map:
doc = doc_map[chunk["document_id"]]
item["document"] = {
"id": doc["id"],
"full_text": doc["original_text"],
"metadata": doc["metadata"],
"retain_params": doc["retain_params"],
}
elif memory["document_id"] and depth == "document" and memory["document_id"] in doc_map:
# No chunk, but has document_id
doc = doc_map[memory["document_id"]]
item["document"] = {
"id": doc["id"],
"full_text": doc["original_text"],
"metadata": doc["metadata"],
"retain_params": doc["retain_params"],
}
results.append(item)
return {"results": results, "count": len(results)}
@@ -1,250 +0,0 @@
"""
Tool schema definitions for the reflect agent.
These are OpenAI-format tool definitions used with native tool calling.
The reflect agent uses a hierarchical retrieval strategy:
1. search_mental_models - User-curated stored reflect responses (highest quality, if applicable)
2. search_observations - Consolidated knowledge with freshness awareness
3. recall - Raw facts (world/experience) as ground truth fallback
"""
# Tool definitions in OpenAI format
TOOL_SEARCH_MENTAL_MODELS = {
"type": "function",
"function": {
"name": "search_mental_models",
"description": (
"Search user-curated mental models (stored reflect responses). These are high-quality, manually created "
"summaries about specific topics. Use FIRST when the question might be covered by an "
"existing mental model. Returns mental models with their content and last refresh time."
),
"parameters": {
"type": "object",
"properties": {
"reason": {
"type": "string",
"description": "Brief explanation of why you're making this search (for debugging)",
},
"query": {
"type": "string",
"description": "Search query to find relevant mental models",
},
"max_results": {
"type": "integer",
"description": "Maximum number of mental models to return (default 5)",
},
},
"required": ["reason", "query"],
},
},
}
TOOL_SEARCH_OBSERVATIONS = {
"type": "function",
"function": {
"name": "search_observations",
"description": (
"Search consolidated observations (auto-generated knowledge). These are automatically "
"synthesized from memories. Returns observations with freshness info (updated_at, is_stale). "
"If an observation is STALE, you should ALSO use recall() to verify with current facts."
),
"parameters": {
"type": "object",
"properties": {
"reason": {
"type": "string",
"description": "Brief explanation of why you're making this search (for debugging)",
},
"query": {
"type": "string",
"description": "Search query to find relevant observations",
},
"max_tokens": {
"type": "integer",
"description": "Maximum tokens for results (default 5000). Use higher values for broader searches.",
},
},
"required": ["reason", "query"],
},
},
}
TOOL_RECALL = {
"type": "function",
"function": {
"name": "recall",
"description": (
"Search raw memories (facts and experiences). This is the ground truth data. "
"Use when: (1) no reflections/mental models exist, (2) mental models are stale, "
"(3) you need specific details not in synthesized knowledge. "
"Returns individual memory facts with their timestamps."
),
"parameters": {
"type": "object",
"properties": {
"reason": {
"type": "string",
"description": "Brief explanation of why you're making this search (for debugging)",
},
"query": {
"type": "string",
"description": "Search query string",
},
"max_tokens": {
"type": "integer",
"description": "Optional limit on result size (default 2048). Use higher values for broader searches.",
},
},
"required": ["reason", "query"],
},
},
}
TOOL_EXPAND = {
"type": "function",
"function": {
"name": "expand",
"description": "Get more context for one or more memories. Memory hierarchy: memory -> chunk -> document.",
"parameters": {
"type": "object",
"properties": {
"reason": {
"type": "string",
"description": "Brief explanation of why you need more context (for debugging)",
},
"memory_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of memory IDs from recall results (batch multiple for efficiency)",
},
"depth": {
"type": "string",
"enum": ["chunk", "document"],
"description": "chunk: surrounding text chunk, document: full source document",
},
},
"required": ["reason", "memory_ids", "depth"],
},
},
}
TOOL_DONE_ANSWER = {
"type": "function",
"function": {
"name": "done",
"description": "Signal completion with your final answer. Use this when you have gathered enough information to answer the question.",
"parameters": {
"type": "object",
"properties": {
"answer": {
"type": "string",
"description": "Your response as plain text. Do NOT use markdown formatting. NEVER include memory IDs, UUIDs, or 'Memory references' in this text - put IDs only in memory_ids array.",
},
"memory_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of memory IDs that support your answer (put IDs here, NOT in answer text)",
},
"mental_model_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of mental model IDs that support your answer",
},
"observation_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of observation IDs that support your answer",
},
},
"required": ["answer"],
},
},
}
def _build_done_tool_with_directives(directive_rules: list[str]) -> dict:
"""
Build the done tool schema with directive compliance field.
When directives are present, adds a required field that forces the agent
to confirm compliance with each directive before submitting.
Args:
directive_rules: List of directive rule strings
"""
# Build rules list for description
rules_list = "\n".join(f" {i + 1}. {rule}" for i, rule in enumerate(directive_rules))
# Build the tool with directive compliance field
return {
"type": "function",
"function": {
"name": "done",
"description": (
"Signal completion with your final answer. IMPORTANT: You must confirm directive compliance before submitting. "
"Your answer will be REJECTED if it violates any directive."
),
"parameters": {
"type": "object",
"properties": {
"answer": {
"type": "string",
"description": "Your response as plain text. Do NOT use markdown formatting. NEVER include memory IDs, UUIDs, or 'Memory references' in this text - put IDs only in memory_ids array.",
},
"memory_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of memory IDs that support your answer (put IDs here, NOT in answer text)",
},
"mental_model_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of mental model IDs that support your answer",
},
"observation_ids": {
"type": "array",
"items": {"type": "string"},
"description": "Array of observation IDs that support your answer",
},
"directive_compliance": {
"type": "string",
"description": f"REQUIRED: Confirm your answer complies with ALL directives. List each directive and how your answer follows it:\n{rules_list}\n\nFormat: 'Directive 1: [how answer complies]. Directive 2: [how answer complies]...'",
},
},
"required": ["answer", "directive_compliance"],
},
},
}
def get_reflect_tools(directive_rules: list[str] | None = None) -> list[dict]:
"""
Get the list of tools for the reflect agent.
The tools support a hierarchical retrieval strategy:
1. search_mental_models - User-curated stored reflect responses (try first)
2. search_observations - Consolidated knowledge with freshness
3. recall - Raw facts as ground truth
Args:
directive_rules: Optional list of directive rule strings. If provided,
the done() tool will require directive compliance confirmation.
Returns:
List of tool definitions in OpenAI format
"""
tools = [
TOOL_SEARCH_MENTAL_MODELS,
TOOL_SEARCH_OBSERVATIONS,
TOOL_RECALL,
TOOL_EXPAND,
]
# Use directive-aware done tool if directives are present
if directive_rules:
tools.append(_build_done_tool_with_directives(directive_rules))
else:
tools.append(TOOL_DONE_ANSWER)
return tools
@@ -10,63 +10,8 @@ from typing import Any
from pydantic import BaseModel, ConfigDict, Field
# Valid fact types for recall operations (excludes 'opinion' which is deprecated)
VALID_RECALL_FACT_TYPES = frozenset(["world", "experience", "observation"])
class LLMToolCall(BaseModel):
"""A tool call requested by the LLM."""
id: str = Field(description="Unique identifier for this tool call")
name: str = Field(description="Name of the tool to call")
arguments: dict[str, Any] = Field(description="Arguments to pass to the tool")
class LLMToolCallResult(BaseModel):
"""Result from an LLM call that may include tool calls."""
content: str | None = Field(default=None, description="Text content if any")
tool_calls: list[LLMToolCall] = Field(default_factory=list, description="Tool calls requested by the LLM")
finish_reason: str | None = Field(default=None, description="Reason the LLM stopped: 'stop', 'tool_calls', etc.")
input_tokens: int = Field(default=0, description="Input tokens used in this call")
output_tokens: int = Field(default=0, description="Output tokens used in this call")
class ToolCallTrace(BaseModel):
"""A single tool call made during reflect."""
tool: str = Field(description="Tool name: lookup, recall, learn, expand")
reason: str | None = Field(default=None, description="Agent's reasoning for making this tool call")
input: dict = Field(description="Tool input parameters")
output: dict = Field(description="Tool output/result")
duration_ms: int = Field(description="Execution time in milliseconds")
iteration: int = Field(default=0, description="Iteration number (1-based) when this tool was called")
class LLMCallTrace(BaseModel):
"""A single LLM call made during reflect."""
scope: str = Field(description="Call scope: agent_1, agent_2, final, etc.")
duration_ms: int = Field(description="Execution time in milliseconds")
class ObservationRef(BaseModel):
"""Reference to an observation accessed during reflect."""
id: str = Field(description="Observation ID")
name: str = Field(description="Observation name")
type: str = Field(description="Observation type: entity, concept, event")
subtype: str = Field(description="Observation subtype: structural, emergent, learned")
description: str = Field(description="Brief description")
summary: str | None = Field(default=None, description="Full summary (when looked up in detail)")
class DirectiveRef(BaseModel):
"""Reference to a directive that was applied during reflect."""
id: str = Field(description="Directive mental model ID")
name: str = Field(description="Directive name")
content: str = Field(description="Directive content")
# Valid fact types for recall operations (excludes 'observation' which is internal)
VALID_RECALL_FACT_TYPES = frozenset(["world", "experience", "opinion"])
class TokenUsage(BaseModel):
@@ -169,28 +114,6 @@ class ChunkInfo(BaseModel):
truncated: bool = Field(default=False, description="Whether the chunk was truncated due to token limits")
class ObservationResult(BaseModel):
"""An observation result from recall (consolidated knowledge synthesized from facts)."""
id: str = Field(description="Unique observation ID")
text: str = Field(description="The observation text")
proof_count: int = Field(description="Number of facts supporting this observation")
relevance: float = Field(default=0.0, description="Relevance score to the query")
tags: list[str] | None = Field(default=None, description="Tags for visibility scoping")
source_memory_ids: list[str] = Field(
default_factory=list, description="IDs of facts that contribute to this observation"
)
class MentalModelResult(BaseModel):
"""A mental model result from recall (stored reflect response)."""
id: str = Field(description="Unique mental model ID")
name: str = Field(description="Human-readable name")
content: str = Field(description="The synthesized content")
relevance: float = Field(default=0.0, description="Relevance score to the query")
class RecallResult(BaseModel):
"""
Result from a recall operation.
@@ -254,14 +177,6 @@ class ReflectResult(BaseModel):
],
"experience": [],
"opinion": [],
"mental_models": [],
"directives": [
{
"id": "directive-123",
"name": "Response Style",
"rules": ["Always be concise"],
}
],
},
"new_opinions": ["Machine learning has great potential in healthcare"],
"structured_output": {"summary": "ML in healthcare", "confidence": 0.9},
@@ -271,8 +186,8 @@ class ReflectResult(BaseModel):
)
text: str = Field(description="The formulated answer text")
based_on: dict[str, Any] = Field(
description="Facts used to formulate the answer, organized by type (world, experience, opinion, mental_models, directives)"
based_on: dict[str, list[MemoryFact]] = Field(
description="Facts used to formulate the answer, organized by type (world, experience, opinion)"
)
new_opinions: list[str] = Field(default_factory=list, description="List of newly formed opinions during reflection")
structured_output: dict[str, Any] | None = Field(
@@ -283,18 +198,6 @@ class ReflectResult(BaseModel):
default=None,
description="Token usage metrics for the LLM calls made during this reflect operation.",
)
tool_trace: list[ToolCallTrace] = Field(
default_factory=list,
description="Trace of tool calls made during reflection. Only present when include.tool_calls is enabled.",
)
llm_trace: list[LLMCallTrace] = Field(
default_factory=list,
description="Trace of LLM calls made during reflection. Only present when include.tool_calls is enabled.",
)
directives_applied: list[DirectiveRef] = Field(
default_factory=list,
description="Directive mental models that were applied during this reflection.",
)
class Opinion(BaseModel):
@@ -358,32 +261,3 @@ class EntityState(BaseModel):
observations: list[EntityObservation] = Field(
default_factory=list, description="List of observations about this entity"
)
class MentalModel(BaseModel):
"""
A manually configured mental model for tracking specific topics/areas.
Mental models are user-defined focus areas that the agent should track
and maintain summaries for, unlike auto-extracted entities.
"""
model_config = ConfigDict(
json_schema_extra={
"example": {
"id": "team-dynamics",
"name": "Team Dynamics",
"description": "Track how the team collaborates, communication patterns, conflicts, and resolutions",
"summary": "The team has strong collaboration...",
"summary_updated_at": "2024-01-15T10:30:00Z",
"created_at": "2024-01-10T08:00:00Z",
}
}
)
id: str = Field(description="Unique identifier (alphanumeric lowercase)")
name: str = Field(description="Display name for the mental model")
description: str = Field(description="Prompt/directions for what to track and summarize")
summary: str | None = Field(None, description="Generated summary based on relevant facts")
summary_updated_at: str | None = Field(None, description="ISO format date when summary was last updated")
created_at: str = Field(description="ISO format date when the mental model was created")
@@ -1,5 +1,5 @@
"""
bank profile utilities for disposition and mission management.
bank profile utilities for disposition and background management.
"""
import json
@@ -27,18 +27,19 @@ class BankProfile(TypedDict):
name: str
disposition: DispositionTraits
mission: str
background: str
class MissionMergeResponse(BaseModel):
"""LLM response for mission merge."""
class BackgroundMergeResponse(BaseModel):
"""LLM response for background merge with disposition inference."""
mission: str = Field(description="Merged mission in first person perspective")
background: str = Field(description="Merged background in first person perspective")
disposition: DispositionTraits = Field(description="Inferred disposition traits (skepticism, literalism, empathy)")
async def get_bank_profile(pool, bank_id: str) -> BankProfile:
"""
Get bank profile (name, disposition + mission).
Get bank profile (name, disposition + background).
Auto-creates bank with default values if not exists.
Args:
@@ -46,13 +47,13 @@ async def get_bank_profile(pool, bank_id: str) -> BankProfile:
bank_id: bank IDentifier
Returns:
BankProfile with name, typed DispositionTraits, and mission
BankProfile with name, typed DispositionTraits, and background
"""
async with acquire_with_retry(pool) as conn:
# Try to get existing bank
row = await conn.fetchrow(
f"""
SELECT name, disposition, mission
SELECT name, disposition, background
FROM {fq_table("banks")} WHERE bank_id = $1
""",
bank_id,
@@ -65,15 +66,13 @@ async def get_bank_profile(pool, bank_id: str) -> BankProfile:
disposition_data = json.loads(disposition_data)
return BankProfile(
name=row["name"],
disposition=DispositionTraits(**disposition_data),
mission=row["mission"] or "",
name=row["name"], disposition=DispositionTraits(**disposition_data), background=row["background"]
)
# Bank doesn't exist, create with defaults
await conn.execute(
f"""
INSERT INTO {fq_table("banks")} (bank_id, name, disposition, mission)
INSERT INTO {fq_table("banks")} (bank_id, name, disposition, background)
VALUES ($1, $2, $3::jsonb, $4)
ON CONFLICT (bank_id) DO NOTHING
""",
@@ -83,7 +82,7 @@ async def get_bank_profile(pool, bank_id: str) -> BankProfile:
"",
)
return BankProfile(name=bank_id, disposition=DispositionTraits(**DEFAULT_DISPOSITION), mission="")
return BankProfile(name=bank_id, disposition=DispositionTraits(**DEFAULT_DISPOSITION), background="")
async def update_bank_disposition(pool, bank_id: str, disposition: dict[str, int]) -> None:
@@ -111,121 +110,244 @@ async def update_bank_disposition(pool, bank_id: str, disposition: dict[str, int
)
async def set_bank_mission(pool, bank_id: str, mission: str) -> None:
async def merge_bank_background(pool, llm_config, bank_id: str, new_info: str, update_disposition: bool = True) -> dict:
"""
Set bank mission (replacing any existing mission).
Args:
pool: Database connection pool
bank_id: bank IDentifier
mission: The mission text
"""
# Ensure bank exists first
await get_bank_profile(pool, bank_id)
async with acquire_with_retry(pool) as conn:
await conn.execute(
f"""
UPDATE {fq_table("banks")}
SET mission = $2,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
mission,
)
async def merge_bank_mission(pool, llm_config, bank_id: str, new_info: str) -> dict:
"""
Merge new mission information with existing mission using LLM.
Merge new background information with existing background using LLM.
Normalizes to first person ("I") and resolves conflicts.
Optionally infers disposition traits from the merged background.
Args:
pool: Database connection pool
llm_config: LLM configuration for mission merging
llm_config: LLM configuration for background merging
bank_id: bank IDentifier
new_info: New mission information to add/merge
new_info: New background information to add/merge
update_disposition: If True, infer Big Five traits from background (default: True)
Returns:
Dict with 'mission' (str) key
Dict with 'background' (str) and optionally 'disposition' (dict) keys
"""
# Get current profile
profile = await get_bank_profile(pool, bank_id)
current_mission = profile["mission"]
current_background = profile["background"]
# Use LLM to merge missions
result = await _llm_merge_mission(llm_config, current_mission, new_info)
# Use LLM to merge backgrounds and optionally infer disposition
result = await _llm_merge_background(llm_config, current_background, new_info, infer_disposition=update_disposition)
merged_mission = result["mission"]
merged_background = result["background"]
inferred_disposition = result.get("disposition")
# Update in database
async with acquire_with_retry(pool) as conn:
await conn.execute(
f"""
UPDATE {fq_table("banks")}
SET mission = $2,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
merged_mission,
)
if inferred_disposition:
# Update both background and disposition
await conn.execute(
f"""
UPDATE {fq_table("banks")}
SET background = $2,
disposition = $3::jsonb,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
merged_background,
json.dumps(inferred_disposition),
)
else:
# Update only background
await conn.execute(
f"""
UPDATE {fq_table("banks")}
SET background = $2,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
merged_background,
)
return {"mission": merged_mission}
response = {"background": merged_background}
if inferred_disposition:
response["disposition"] = inferred_disposition
return response
async def _llm_merge_mission(llm_config, current: str, new_info: str) -> dict:
async def _llm_merge_background(llm_config, current: str, new_info: str, infer_disposition: bool = False) -> dict:
"""
Use LLM to intelligently merge mission information.
Use LLM to intelligently merge background information.
Optionally infer Big Five disposition traits from the merged background.
Args:
llm_config: LLM configuration to use
current: Current mission text
current: Current background text
new_info: New information to merge
infer_disposition: If True, also infer disposition traits
Returns:
Dict with 'mission' (str) key
Dict with 'background' (str) and optionally 'disposition' (dict) keys
"""
prompt = f"""You are helping maintain an agent's mission statement.
if infer_disposition:
prompt = f"""You are helping maintain a memory bank's background/profile and infer their disposition. You MUST respond with ONLY valid JSON.
Current mission: {current if current else "(empty)"}
Current background: {current if current else "(empty)"}
New information to add: {new_info}
Instructions:
1. Merge the new information with the current mission
2. If there are conflicts, the NEW information overwrites the old
1. Merge the new information with the current background
2. If there are conflicts (e.g., different birthplaces), the NEW information overwrites the old
3. Keep additions that don't conflict
4. Output in FIRST PERSON ("I") perspective
5. Be concise - keep merged background under 500 characters
6. Infer disposition traits from the merged background (each 1-5 integer):
- Skepticism: 1-5 (1=trusting, takes things at face value; 5=skeptical, questions everything)
- Literalism: 1-5 (1=flexible interpretation, reads between lines; 5=literal, exact interpretation)
- Empathy: 1-5 (1=detached, focuses on facts; 5=empathetic, considers emotional context)
CRITICAL: You MUST respond with ONLY a valid JSON object. No markdown, no code blocks, no explanations. Just the JSON.
Format:
{{
"background": "the merged background text in first person",
"disposition": {{
"skepticism": 3,
"literalism": 3,
"empathy": 3
}}
}}
Trait inference examples:
- "I'm a lawyer" → skepticism: 4, literalism: 5, empathy: 2
- "I'm a therapist" → skepticism: 2, literalism: 2, empathy: 5
- "I'm an engineer" → skepticism: 3, literalism: 4, empathy: 3
- "I've been burned before by trusting people" → skepticism: 5, literalism: 3, empathy: 3
- "I try to understand what people really mean" → skepticism: 3, literalism: 2, empathy: 4
- "I take contracts very seriously" → skepticism: 4, literalism: 5, empathy: 2"""
else:
prompt = f"""You are helping maintain a memory bank's background/profile.
Current background: {current if current else "(empty)"}
New information to add: {new_info}
Instructions:
1. Merge the new information with the current background
2. If there are conflicts (e.g., different birthplaces), the NEW information overwrites the old
3. Keep additions that don't conflict
4. Output in FIRST PERSON ("I") perspective
5. Be concise - keep it under 500 characters
6. Return ONLY the merged mission text, no explanations
6. Return ONLY the merged background text, no explanations
Merged mission:"""
Merged background:"""
try:
# Prepare messages
messages = [{"role": "user", "content": prompt}]
if infer_disposition:
# Use structured output with Pydantic model for disposition inference
try:
parsed = await llm_config.call(
messages=messages,
response_format=BackgroundMergeResponse,
scope="bank_background",
temperature=0.3,
max_completion_tokens=8192,
)
logger.info(f"Successfully got structured response: background={parsed.background[:100]}")
# Convert Pydantic model to dict format
return {"background": parsed.background, "disposition": parsed.disposition.model_dump()}
except Exception as e:
logger.warning(f"Structured output failed, falling back to manual parsing: {e}")
# Fall through to manual parsing below
# Manual parsing fallback or non-disposition merge
content = await llm_config.call(
messages=messages, scope="bank_mission", temperature=0.3, max_completion_tokens=8192
messages=messages, scope="bank_background", temperature=0.3, max_completion_tokens=8192
)
logger.info(f"LLM response for mission merge (first 500 chars): {content[:500]}")
logger.info(f"LLM response for background merge (first 500 chars): {content[:500]}")
merged = content.strip()
if not merged or merged.lower() in ["(empty)", "none", "n/a"]:
merged = new_info if new_info else ""
return {"mission": merged}
if infer_disposition:
# Parse JSON response - try multiple extraction methods
result = None
# Method 1: Direct parse
try:
result = json.loads(content)
logger.info("Successfully parsed JSON directly")
except json.JSONDecodeError:
pass
# Method 2: Extract from markdown code blocks
if result is None:
# Remove markdown code blocks
code_block_match = re.search(r"```(?:json)?\s*(\{.*?\})\s*```", content, re.DOTALL)
if code_block_match:
try:
result = json.loads(code_block_match.group(1))
logger.info("Successfully extracted JSON from markdown code block")
except json.JSONDecodeError:
pass
# Method 3: Find nested JSON structure
if result is None:
# Look for JSON object with nested structure
json_match = re.search(
r'\{[^{}]*"background"[^{}]*"disposition"[^{}]*\{[^{}]*\}[^{}]*\}', content, re.DOTALL
)
if json_match:
try:
result = json.loads(json_match.group())
logger.info("Successfully extracted JSON using nested pattern")
except json.JSONDecodeError:
pass
# All parsing methods failed - use fallback
if result is None:
logger.warning(f"Failed to extract JSON from LLM response. Raw content: {content[:200]}")
# Fallback: use new_info as background with default disposition
return {
"background": new_info if new_info else current if current else "",
"disposition": DEFAULT_DISPOSITION.copy(),
}
# Validate disposition values
disposition = result.get("disposition", {})
for key in ["skepticism", "literalism", "empathy"]:
if key not in disposition:
disposition[key] = 3 # Default to neutral
else:
# Clamp to [1, 5] and convert to int
disposition[key] = max(1, min(5, int(disposition[key])))
result["disposition"] = disposition
# Ensure background exists
if "background" not in result or not result["background"]:
result["background"] = new_info if new_info else ""
return result
else:
# Just background merge
merged = content
if not merged or merged.lower() in ["(empty)", "none", "n/a"]:
merged = new_info if new_info else ""
return {"background": merged}
except Exception as e:
logger.error(f"Error merging mission with LLM: {e}")
logger.error(f"Error merging background with LLM: {e}")
# Fallback: just append new info
if current:
merged = f"{current} {new_info}".strip()
else:
merged = new_info
return {"mission": merged}
result = {"background": merged}
if infer_disposition:
result["disposition"] = DEFAULT_DISPOSITION.copy()
return result
async def list_banks(pool) -> list:
@@ -236,12 +358,12 @@ async def list_banks(pool) -> list:
pool: Database connection pool
Returns:
List of dicts with bank_id, name, disposition, mission, created_at, updated_at
List of dicts with bank_id, name, disposition, background, created_at, updated_at
"""
async with acquire_with_retry(pool) as conn:
rows = await conn.fetch(
f"""
SELECT bank_id, name, disposition, mission, created_at, updated_at
SELECT bank_id, name, disposition, background, created_at, updated_at
FROM {fq_table("banks")}
ORDER BY updated_at DESC
"""
@@ -259,7 +381,7 @@ async def list_banks(pool) -> list:
"bank_id": row["bank_id"],
"name": row["name"],
"disposition": disposition_data,
"mission": row["mission"] or "",
"background": row["background"],
"created_at": row["created_at"].isoformat() if row["created_at"] else None,
"updated_at": row["updated_at"].isoformat() if row["updated_at"] else None,
}
@@ -114,8 +114,11 @@ class CausalRelation(BaseModel):
"""Causal relationship from this fact to a previous fact (stored format)."""
target_fact_index: int = Field(description="Index of the related fact in the facts array (0-based).")
relation_type: Literal["caused_by"] = Field(
description="How this fact relates to the target: 'caused_by' = this fact was caused by the target"
relation_type: Literal["caused_by", "enabled_by", "prevented_by"] = Field(
description="How this fact relates to the target: "
"'caused_by' = this fact was caused by the target, "
"'enabled_by' = this fact was enabled by the target, "
"'prevented_by' = this fact was prevented by the target"
)
strength: float = Field(
description="Strength of relationship (0.0 to 1.0)",
@@ -138,8 +141,11 @@ class FactCausalRelation(BaseModel):
"MUST be less than this fact's position in the list. "
"Example: if this is fact #5, target_index can only be 0, 1, 2, 3, or 4."
)
relation_type: Literal["caused_by"] = Field(
description="How this fact relates to the target fact: 'caused_by' = this fact was caused by the target fact"
relation_type: Literal["caused_by", "enabled_by", "prevented_by"] = Field(
description="How this fact relates to the target fact: "
"'caused_by' = this fact was caused by the target fact, "
"'enabled_by' = this fact was enabled by the target fact, "
"'prevented_by' = this fact was blocked/prevented by the target fact"
)
strength: float = Field(
description="Strength of relationship (0.0 to 1.0). 1.0 = strong, 0.5 = moderate",
@@ -435,7 +441,7 @@ def _chunk_conversation(turns: list[dict], max_chars: int) -> list[str]:
# Concise extraction prompt (default) - selective, high-quality facts
CONCISE_FACT_EXTRACTION_PROMPT = """Extract SIGNIFICANT facts from text. Be SELECTIVE - only extract facts worth remembering long-term.
LANGUAGE REQUIREMENT: Detect the language of the input text. All extracted facts, entity names, descriptions, and other output MUST be in the SAME language as the input. Do not translate to another language.
LANGUAGE RULE (CRITICAL): Output facts in the EXACT SAME language as the input text. If input is Japanese, output Japanese. If input is Chinese, output Chinese. NEVER translate to English. Preserve original language completely.
{fact_types_instruction}
@@ -656,7 +662,7 @@ CAUSAL RELATIONSHIPS
══════════════════════════════════════════════════════════════════════════
Link facts with causal_relations (max 2 per fact). target_index must be < this fact's index.
Type: "caused_by" (this fact was caused by the target fact)
Types: "caused_by", "enabled_by", "prevented_by"
Example: "Lost job → couldn't pay rent → moved apartment"
- Fact 0: Lost job, causal_relations: null
@@ -817,8 +823,7 @@ Text:
# Critical field: fact_type
# LLM uses "assistant" but we convert to "experience" for storage
original_fact_type = llm_fact.get("fact_type")
fact_type = original_fact_type
fact_type = llm_fact.get("fact_type")
# Convert "assistant" → "experience" for storage
if fact_type == "assistant":
@@ -835,10 +840,7 @@ Text:
else:
# Default to 'world' if we can't determine
fact_type = "world"
logger.warning(
f"Fact {i}: defaulting to fact_type='world' "
f"(original fact_type={original_fact_type!r}, fact_kind={fact_kind!r})"
)
logger.warning(f"Fact {i}: defaulting to fact_type='world'")
# Get fact_kind for temporal handling (but don't store it)
fact_kind = llm_fact.get("fact_kind", "conversation")
@@ -41,6 +41,7 @@ async def insert_facts_batch(
contexts = []
fact_types = []
confidence_scores = []
access_counts = []
metadata_jsons = []
chunk_ids = []
document_ids = []
@@ -60,6 +61,7 @@ async def insert_facts_batch(
fact_types.append(fact.fact_type)
# confidence_score is only for opinion facts
confidence_scores.append(1.0 if fact.fact_type == "opinion" else None)
access_counts.append(0) # Initial access count
metadata_jsons.append(json.dumps(fact.metadata))
chunk_ids.append(fact.chunk_id)
# Use per-fact document_id if available, otherwise fallback to batch-level document_id
@@ -74,16 +76,16 @@ async def insert_facts_batch(
WITH input_data AS (
SELECT * FROM unnest(
$2::text[], $3::vector[], $4::timestamptz[], $5::timestamptz[], $6::timestamptz[], $7::timestamptz[],
$8::text[], $9::text[], $10::float[], $11::jsonb[], $12::text[], $13::text[], $14::jsonb[]
$8::text[], $9::text[], $10::float[], $11::int[], $12::jsonb[], $13::text[], $14::text[], $15::jsonb[]
) AS t(text, embedding, event_date, occurred_start, occurred_end, mentioned_at,
context, fact_type, confidence_score, metadata, chunk_id, document_id, tags_json)
context, fact_type, confidence_score, access_count, metadata, chunk_id, document_id, tags_json)
)
INSERT INTO {fq_table("memory_units")} (bank_id, text, embedding, event_date, occurred_start, occurred_end, mentioned_at,
context, fact_type, confidence_score, metadata, chunk_id, document_id, tags)
context, fact_type, confidence_score, access_count, metadata, chunk_id, document_id, tags)
SELECT
$1,
text, embedding, event_date, occurred_start, occurred_end, mentioned_at,
context, fact_type, confidence_score, metadata, chunk_id, document_id,
context, fact_type, confidence_score, access_count, metadata, chunk_id, document_id,
COALESCE(
(SELECT array_agg(elem) FROM jsonb_array_elements_text(tags_json) AS elem),
'{{}}'::varchar[]
@@ -101,6 +103,7 @@ async def insert_facts_batch(
contexts,
fact_types,
confidence_scores,
access_counts,
metadata_jsons,
chunk_ids,
document_ids,
@@ -123,7 +126,7 @@ async def ensure_bank_exists(conn, bank_id: str) -> None:
"""
await conn.execute(
f"""
INSERT INTO {fq_table("banks")} (bank_id, disposition, mission)
INSERT INTO {fq_table("banks")} (bank_id, disposition, background)
VALUES ($1, $2::jsonb, $3)
ON CONFLICT (bank_id) DO UPDATE
SET updated_at = NOW()
@@ -754,14 +754,17 @@ async def create_causal_links_batch(
causal_relations_per_fact: List of causal relations for each fact.
Each element is a list of dicts with:
- target_fact_index: Index into unit_ids for the target fact
- relation_type: "caused_by"
- relation_type: "causes", "caused_by", "enables", or "prevents"
- strength: Float in [0.0, 1.0] representing relationship strength
Returns:
Number of causal links created
Causal link type:
- "caused_by": This fact was caused by the target fact
Causal link types:
- "causes": This fact directly causes the target fact (forward causation)
- "caused_by": This fact was caused by the target fact (backward causation)
- "enables": This fact enables/allows the target fact (enablement)
- "prevents": This fact prevents/blocks the target fact (prevention)
"""
if not unit_ids or not causal_relations_per_fact:
return 0
@@ -784,8 +787,8 @@ async def create_causal_links_batch(
relation_type = relation["relation_type"]
strength = relation.get("strength", 1.0)
# Validate relation_type - only "caused_by" is supported (DB constraint)
valid_types = {"caused_by"}
# Validate relation_type - must match database constraint
valid_types = {"causes", "caused_by", "enables", "prevents"}
if relation_type not in valid_types:
logger.error(
f"Invalid relation_type '{relation_type}' (type: {type(relation_type).__name__}) "
@@ -0,0 +1,254 @@
"""
Observation regeneration for retain pipeline.
Regenerates entity observations as part of the retain transaction.
"""
import logging
import time
import uuid
from datetime import UTC, datetime
from ...config import get_config
from ..memory_engine import fq_table
from ..search import observation_utils
from . import embedding_utils
from .types import EntityLink
logger = logging.getLogger(__name__)
def utcnow():
"""Get current UTC time."""
return datetime.now(UTC)
# Simple dataclass-like container for facts (avoid importing from memory_engine)
class MemoryFactForObservation:
def __init__(self, id: str, text: str, fact_type: str, context: str, occurred_start: str | None):
self.id = id
self.text = text
self.fact_type = fact_type
self.context = context
self.occurred_start = occurred_start
async def regenerate_observations_batch(
conn, embeddings_model, llm_config, bank_id: str, entity_links: list[EntityLink], log_buffer: list[str] = None
) -> None:
"""
Regenerate observations for top entities in this batch.
Called INSIDE the retain transaction for atomicity - if observations
fail, the entire retain batch is rolled back.
Args:
conn: Database connection (from the retain transaction)
embeddings_model: Embeddings model for generating observation embeddings
llm_config: LLM configuration for observation extraction
bank_id: Bank identifier
entity_links: Entity links from this batch
log_buffer: Optional log buffer for timing
"""
config = get_config()
TOP_N_ENTITIES = config.observation_top_entities
MIN_FACTS_THRESHOLD = config.observation_min_facts
if not entity_links:
return
# Count mentions per entity in this batch
entity_mention_counts: dict[str, int] = {}
for link in entity_links:
if link.entity_id:
entity_id = str(link.entity_id)
entity_mention_counts[entity_id] = entity_mention_counts.get(entity_id, 0) + 1
if not entity_mention_counts:
return
# Sort by mention count descending and take top N
sorted_entities = sorted(entity_mention_counts.items(), key=lambda x: x[1], reverse=True)
entities_to_process = [e[0] for e in sorted_entities[:TOP_N_ENTITIES]]
obs_start = time.time()
# Convert to UUIDs
entity_uuids = [uuid.UUID(eid) if isinstance(eid, str) else eid for eid in entities_to_process]
# Batch query for entity names
entity_rows = await conn.fetch(
f"""
SELECT id, canonical_name FROM {fq_table("entities")}
WHERE id = ANY($1) AND bank_id = $2
""",
entity_uuids,
bank_id,
)
entity_names = {row["id"]: row["canonical_name"] for row in entity_rows}
# Batch query for fact counts
fact_counts = await conn.fetch(
f"""
SELECT ue.entity_id, COUNT(*) as cnt
FROM {fq_table("unit_entities")} ue
JOIN {fq_table("memory_units")} mu ON ue.unit_id = mu.id
WHERE ue.entity_id = ANY($1) AND mu.bank_id = $2
GROUP BY ue.entity_id
""",
entity_uuids,
bank_id,
)
entity_fact_counts = {row["entity_id"]: row["cnt"] for row in fact_counts}
# Filter entities that meet the threshold
entities_with_names = []
for entity_id in entities_to_process:
entity_uuid = uuid.UUID(entity_id) if isinstance(entity_id, str) else entity_id
if entity_uuid not in entity_names:
continue
fact_count = entity_fact_counts.get(entity_uuid, 0)
if fact_count >= MIN_FACTS_THRESHOLD:
entities_with_names.append((entity_id, entity_names[entity_uuid]))
if not entities_with_names:
return
# Process entities SEQUENTIALLY (asyncpg doesn't allow concurrent queries on same connection)
# We must use the same connection to stay in the retain transaction
total_observations = 0
for entity_id, entity_name in entities_with_names:
try:
obs_ids = await _regenerate_entity_observations(
conn, embeddings_model, llm_config, bank_id, entity_id, entity_name
)
total_observations += len(obs_ids)
except Exception as e:
logger.error(f"[OBSERVATIONS] Error processing entity {entity_id}: {e}")
obs_time = time.time() - obs_start
if log_buffer is not None:
log_buffer.append(
f"[11] Observations: {total_observations} observations for {len(entities_with_names)} entities in {obs_time:.3f}s"
)
async def _regenerate_entity_observations(
conn, embeddings_model, llm_config, bank_id: str, entity_id: str, entity_name: str
) -> list[str]:
"""
Regenerate observations for a single entity.
Uses the provided connection (part of retain transaction).
Args:
conn: Database connection (from the retain transaction)
embeddings_model: Embeddings model
llm_config: LLM configuration
bank_id: Bank identifier
entity_id: Entity UUID
entity_name: Canonical name of the entity
Returns:
List of created observation IDs
"""
entity_uuid = uuid.UUID(entity_id) if isinstance(entity_id, str) else entity_id
# Get all facts mentioning this entity (exclude observations themselves)
rows = await conn.fetch(
f"""
SELECT mu.id, mu.text, mu.context, mu.occurred_start, mu.fact_type
FROM {fq_table("memory_units")} mu
JOIN {fq_table("unit_entities")} ue ON mu.id = ue.unit_id
WHERE mu.bank_id = $1
AND ue.entity_id = $2
AND mu.fact_type IN ('world', 'experience')
ORDER BY mu.occurred_start DESC
LIMIT 50
""",
bank_id,
entity_uuid,
)
if not rows:
return []
# Convert to fact objects for observation extraction
facts = []
for row in rows:
occurred_start = row["occurred_start"].isoformat() if row["occurred_start"] else None
facts.append(
MemoryFactForObservation(
id=str(row["id"]),
text=row["text"],
fact_type=row["fact_type"],
context=row["context"],
occurred_start=occurred_start,
)
)
# Extract observations using LLM
observations = await observation_utils.extract_observations_from_facts(llm_config, entity_name, facts)
if not observations:
return []
# Delete old observations for this entity
await conn.execute(
f"""
DELETE FROM {fq_table("memory_units")}
WHERE id IN (
SELECT mu.id
FROM {fq_table("memory_units")} mu
JOIN {fq_table("unit_entities")} ue ON mu.id = ue.unit_id
WHERE mu.bank_id = $1
AND mu.fact_type = 'observation'
AND ue.entity_id = $2
)
""",
bank_id,
entity_uuid,
)
# Generate embeddings for new observations
embeddings = await embedding_utils.generate_embeddings_batch(embeddings_model, observations)
# Insert new observations
current_time = utcnow()
created_ids = []
for obs_text, embedding in zip(observations, embeddings):
result = await conn.fetchrow(
f"""
INSERT INTO {fq_table("memory_units")} (
bank_id, text, embedding, context, event_date,
occurred_start, occurred_end, mentioned_at,
fact_type, access_count
)
VALUES ($1, $2, $3, $4, $5, $6, $7, $8, 'observation', 0)
RETURNING id
""",
bank_id,
obs_text,
str(embedding),
f"observation about {entity_name}",
current_time,
current_time,
current_time,
current_time,
)
obs_id = str(result["id"])
created_ids.append(obs_id)
# Link observation to entity
await conn.execute(
f"""
INSERT INTO {fq_table("unit_entities")} (unit_id, entity_id)
VALUES ($1, $2)
""",
uuid.UUID(obs_id),
entity_uuid,
)
return created_ids
@@ -9,6 +9,7 @@ import time
import uuid
from datetime import UTC, datetime
from ...config import get_config
from ..db_utils import acquire_with_retry
from . import bank_utils
@@ -27,8 +28,9 @@ from . import (
fact_extraction,
fact_storage,
link_creation,
observation_regeneration,
)
from .types import EntityLink, ExtractedFact, ProcessedFact, RetainContent, RetainContentDict
from .types import ExtractedFact, ProcessedFact, RetainContent, RetainContentDict
logger = logging.getLogger(__name__)
@@ -38,6 +40,7 @@ async def retain_batch(
embeddings_model,
llm_config,
entity_resolver,
task_backend,
format_date_fn,
duplicate_checker_fn,
bank_id: str,
@@ -56,6 +59,7 @@ async def retain_batch(
embeddings_model: Embeddings model for generating embeddings
llm_config: LLM configuration for fact extraction
entity_resolver: Entity resolver for entity processing
task_backend: Task backend for background jobs
format_date_fn: Function to format datetime to readable string
duplicate_checker_fn: Function to check for duplicate facts
bank_id: Bank identifier
@@ -404,9 +408,27 @@ async def retain_batch(
causal_link_count = await link_creation.create_causal_links_batch(conn, unit_ids, non_duplicate_facts)
log_buffer.append(f"[10] Causal links: {causal_link_count} links in {time.time() - step_start:.3f}s")
# Regenerate observations - sync (in transaction) or async (background task)
config = get_config()
if config.retain_observations_async:
# Queue for async processing after transaction commits
entity_ids_for_async = list(set(link.entity_id for link in entity_links)) if entity_links else []
log_buffer.append(
f"[11] Observations: queued {len(entity_ids_for_async)} entities for async processing"
)
else:
# Run synchronously inside transaction for atomicity
await observation_regeneration.regenerate_observations_batch(
conn, embeddings_model, llm_config, bank_id, entity_links, log_buffer
)
entity_ids_for_async = []
# Map results back to original content items
result_unit_ids = _map_results_to_contents(contents, extracted_facts, is_duplicate_flags, unit_ids)
# Trigger background tasks AFTER transaction commits
await _trigger_background_tasks(task_backend, bank_id, unit_ids, non_duplicate_facts, entity_ids_for_async)
# Log final summary
total_time = time.time() - start_time
log_buffer.append(f"{'=' * 60}")
@@ -448,3 +470,35 @@ def _map_results_to_contents(
result_unit_ids.append(content_unit_ids)
return result_unit_ids
async def _trigger_background_tasks(
task_backend,
bank_id: str,
unit_ids: list[str],
facts: list[ProcessedFact],
entity_ids_for_observations: list[str] | None = None,
) -> None:
"""Trigger background tasks after transaction commits."""
# Trigger opinion reinforcement if there are entities
fact_entities = [[e.name for e in fact.entities] for fact in facts]
if any(fact_entities):
await task_backend.submit_task(
{
"type": "reinforce_opinion",
"bank_id": bank_id,
"created_unit_ids": unit_ids,
"unit_texts": [fact.fact_text for fact in facts],
"unit_entities": fact_entities,
}
)
# Trigger observation regeneration if async mode is enabled
if entity_ids_for_observations:
await task_backend.submit_task(
{
"type": "regenerate_observations",
"bank_id": bank_id,
"entity_ids": entity_ids_for_observations,
}
)
@@ -86,10 +86,10 @@ class CausalRelation:
"""
Causal relationship between facts.
Represents how one fact was caused by another.
Represents how one fact causes, enables, or prevents another.
"""
relation_type: str # "caused_by"
relation_type: str # "causes", "enables", "prevents", "caused_by"
target_fact_index: int # Index of the target fact in the batch
strength: float = 1.0 # Strength of the causal relationship
@@ -162,7 +162,7 @@ class BFSGraphRetriever(GraphRetriever):
entry_points = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end,
mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -216,7 +216,7 @@ class BFSGraphRetriever(GraphRetriever):
neighbors = await conn.fetch(
f"""
SELECT mu.id, mu.text, mu.context, mu.occurred_start, mu.occurred_end,
mu.mentioned_at, mu.embedding, mu.fact_type,
mu.mentioned_at, mu.access_count, mu.embedding, mu.fact_type,
mu.document_id, mu.chunk_id, mu.tags,
ml.weight, ml.link_type, ml.from_unit_id
FROM {fq_table("memory_links")} ml
@@ -45,7 +45,7 @@ async def _find_semantic_seeds(
rows = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end,
mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -155,7 +155,7 @@ class LinkExpansionRetriever(GraphRetriever):
all_seeds.extend(temporal_seeds)
if not all_seeds:
logger.info("[LinkExpansion] No seeds found, returning empty results")
logger.debug("[LinkExpansion] No seeds found, returning empty results")
return [], timings
seed_ids = list({s.id for s in all_seeds})
@@ -164,108 +164,36 @@ class LinkExpansionRetriever(GraphRetriever):
# Run entity and causal expansion sequentially on same connection
query_start = time.time()
# For observations, traverse through source_memory_ids to find entity connections.
# Observations don't have direct unit_entities - they inherit entities via their
# source world/experience facts.
#
# Path: observation → source_memory_ids → world fact → entities →
# ALL world facts with those entities → their observations (excluding seeds)
if fact_type == "observation":
# Debug: Check what source_memory_ids exist on seed observations
debug_sources = await conn.fetch(
f"""
SELECT id, source_memory_ids
FROM {fq_table("memory_units")}
WHERE id = ANY($1::uuid[])
""",
seed_ids,
)
source_ids_found = []
for row in debug_sources:
if row["source_memory_ids"]:
source_ids_found.extend(row["source_memory_ids"])
logger.debug(
f"[LinkExpansion] observation graph: {len(seed_ids)} seeds, "
f"{len(source_ids_found)} source_memory_ids found"
)
entity_rows = await conn.fetch(
f"""
WITH seed_sources AS (
-- Get source memory IDs from seed observations
SELECT DISTINCT unnest(source_memory_ids) AS source_id
FROM {fq_table("memory_units")}
WHERE id = ANY($1::uuid[])
AND source_memory_ids IS NOT NULL
),
source_entities AS (
-- Get entities from those source memories (filtered by frequency)
SELECT DISTINCT ue.entity_id
FROM seed_sources ss
JOIN {fq_table("unit_entities")} ue ON ss.source_id = ue.unit_id
JOIN {fq_table("entities")} e ON ue.entity_id = e.id
WHERE e.mention_count < $2
),
all_connected_sources AS (
-- Find ALL world facts sharing those entities (don't exclude seed sources)
-- The exclusion happens at the observation level, not the source level
SELECT DISTINCT other_ue.unit_id AS source_id
FROM source_entities se
JOIN {fq_table("unit_entities")} other_ue ON se.entity_id = other_ue.entity_id
)
-- Find observations derived from connected source memories
-- Only exclude the actual seed observations
SELECT
mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
COUNT(DISTINCT cs.source_id)::float AS score
FROM all_connected_sources cs
JOIN {fq_table("memory_units")} mu
ON mu.source_memory_ids @> ARRAY[cs.source_id]
WHERE mu.fact_type = 'observation'
AND mu.id != ALL($1::uuid[])
GROUP BY mu.id
ORDER BY score DESC
LIMIT $3
""",
seed_ids,
self.max_entity_frequency,
budget,
)
logger.debug(f"[LinkExpansion] observation graph: found {len(entity_rows)} connected observations")
else:
# For world/experience facts, use direct entity lookup
entity_rows = await conn.fetch(
f"""
SELECT
mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
COUNT(*)::float AS score
FROM {fq_table("unit_entities")} seed_ue
JOIN {fq_table("entities")} e ON seed_ue.entity_id = e.id
JOIN {fq_table("unit_entities")} other_ue ON seed_ue.entity_id = other_ue.entity_id
JOIN {fq_table("memory_units")} mu ON other_ue.unit_id = mu.id
WHERE seed_ue.unit_id = ANY($1::uuid[])
AND e.mention_count < $2
AND mu.id != ALL($1::uuid[])
AND mu.fact_type = $3
GROUP BY mu.id
ORDER BY score DESC
LIMIT $4
""",
seed_ids,
self.max_entity_frequency,
fact_type,
budget,
)
entity_rows = await conn.fetch(
f"""
SELECT
mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.access_count, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
COUNT(*)::float AS score
FROM {fq_table("unit_entities")} seed_ue
JOIN {fq_table("entities")} e ON seed_ue.entity_id = e.id
JOIN {fq_table("unit_entities")} other_ue ON seed_ue.entity_id = other_ue.entity_id
JOIN {fq_table("memory_units")} mu ON other_ue.unit_id = mu.id
WHERE seed_ue.unit_id = ANY($1::uuid[])
AND e.mention_count < $2
AND mu.id != ALL($1::uuid[])
AND mu.fact_type = $3
GROUP BY mu.id
ORDER BY score DESC
LIMIT $4
""",
seed_ids,
self.max_entity_frequency,
fact_type,
budget,
)
causal_rows = await conn.fetch(
f"""
SELECT DISTINCT ON (mu.id)
mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.embedding,
mu.occurred_end, mu.mentioned_at, mu.access_count, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
ml.weight + 1.0 AS score
FROM {fq_table("memory_links")} ml
@@ -283,69 +211,11 @@ class LinkExpansionRetriever(GraphRetriever):
budget,
)
# Fallback: semantic/temporal/entity links from memory_links table
# These are secondary to entity links (via unit_entities) and causal links
# Weight is halved (0.5x) to prioritize primary link types
# Check both directions: seeds -> others AND others -> seeds
fallback_rows = await conn.fetch(
f"""
WITH outgoing AS (
-- Links FROM seeds TO other facts
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
ml.weight
FROM {fq_table("memory_links")} ml
JOIN {fq_table("memory_units")} mu ON ml.to_unit_id = mu.id
WHERE ml.from_unit_id = ANY($1::uuid[])
AND ml.link_type IN ('semantic', 'temporal', 'entity')
AND ml.weight >= $2
AND mu.fact_type = $3
AND mu.id != ALL($1::uuid[])
),
incoming AS (
-- Links FROM other facts TO seeds (reverse direction)
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start,
mu.occurred_end, mu.mentioned_at, mu.embedding,
mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
ml.weight
FROM {fq_table("memory_links")} ml
JOIN {fq_table("memory_units")} mu ON ml.from_unit_id = mu.id
WHERE ml.to_unit_id = ANY($1::uuid[])
AND ml.link_type IN ('semantic', 'temporal', 'entity')
AND ml.weight >= $2
AND mu.fact_type = $3
AND mu.id != ALL($1::uuid[])
),
combined AS (
SELECT * FROM outgoing
UNION ALL
SELECT * FROM incoming
)
SELECT DISTINCT ON (id)
id, text, context, event_date, occurred_start,
occurred_end, mentioned_at, embedding,
fact_type, document_id, chunk_id, tags,
(MAX(weight) * 0.5) AS score
FROM combined
GROUP BY id, text, context, event_date, occurred_start,
occurred_end, mentioned_at, embedding,
fact_type, document_id, chunk_id, tags
ORDER BY id, score DESC
LIMIT $4
""",
seed_ids,
self.causal_weight_threshold,
fact_type,
budget,
)
timings.edge_load_time = time.time() - query_start
timings.db_queries = 3
timings.edge_count = len(entity_rows) + len(causal_rows) + len(fallback_rows)
timings.db_queries = 2
timings.edge_count = len(entity_rows) + len(causal_rows)
# Merge results, taking max score per fact
# Priority: entity links (unit_entities) > causal links > fallback links
score_map: dict[str, float] = {}
row_map: dict[str, dict] = {}
@@ -360,12 +230,6 @@ class LinkExpansionRetriever(GraphRetriever):
if fact_id not in row_map:
row_map[fact_id] = dict(row)
for row in fallback_rows:
fact_id = str(row["id"])
score_map[fact_id] = max(score_map.get(fact_id, 0), row["score"])
if fact_id not in row_map:
row_map[fact_id] = dict(row)
# Sort by score and limit
sorted_ids = sorted(score_map.keys(), key=lambda x: score_map[x], reverse=True)[:budget]
rows = [row_map[fact_id] for fact_id in sorted_ids]
@@ -449,7 +449,7 @@ async def fetch_memory_units_by_ids(
rows = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end,
mentioned_at, embedding, fact_type, document_id, chunk_id, tags
mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags
FROM {fq_table("memory_units")}
WHERE id = ANY($1::uuid[])
AND fact_type = $2
@@ -0,0 +1,125 @@
"""
Observation utilities for generating entity observations from facts.
Observations are objective facts synthesized from multiple memory facts
about an entity, without personality influence.
"""
import logging
from pydantic import BaseModel, Field
from ..response_models import MemoryFact
logger = logging.getLogger(__name__)
class Observation(BaseModel):
"""An observation about an entity."""
observation: str = Field(description="The observation text - a factual statement about the entity")
class ObservationExtractionResponse(BaseModel):
"""Response containing extracted observations."""
observations: list[Observation] = Field(default_factory=list, description="List of observations about the entity")
def format_facts_for_observation_prompt(facts: list[MemoryFact]) -> str:
"""Format facts as text for observation extraction prompt."""
import json
if not facts:
return "[]"
formatted = []
for fact in facts:
fact_obj = {"text": fact.text}
# Add context if available
if fact.context:
fact_obj["context"] = fact.context
# Add occurred_start if available
if fact.occurred_start:
fact_obj["occurred_at"] = fact.occurred_start
formatted.append(fact_obj)
return json.dumps(formatted, indent=2)
def build_observation_prompt(
entity_name: str,
facts_text: str,
) -> str:
"""Build the observation extraction prompt for the LLM."""
return f"""Based on the following facts about "{entity_name}", generate a list of key observations.
FACTS ABOUT {entity_name.upper()}:
{facts_text}
Your task: Synthesize the facts into clear, objective observations about {entity_name}.
GUIDELINES:
1. Each observation should be a factual statement about {entity_name}
2. Combine related facts into single observations where appropriate
3. Be objective - do not add opinions, judgments, or interpretations
4. Focus on what we KNOW about {entity_name}, not what we assume
5. Include observations about: identity, characteristics, roles, relationships, activities
6. Write in third person (e.g., "John is..." not "I think John is...")
7. If there are conflicting facts, note the most recent or most supported one
EXAMPLES of good observations:
- "John works at Google as a software engineer"
- "John is detail-oriented and methodical in his approach"
- "John collaborates frequently with Sarah on the AI project"
- "John joined the company in 2023"
EXAMPLES of bad observations (avoid these):
- "John seems like a good person" (opinion/judgment)
- "John probably likes his job" (assumption)
- "I believe John is reliable" (first-person opinion)
Generate 3-7 observations based on the available facts. If there are very few facts, generate fewer observations."""
def get_observation_system_message() -> str:
"""Get the system message for observation extraction."""
return "You are an objective observer synthesizing facts about an entity. Generate clear, factual observations without opinions or personality influence. Be concise and accurate."
async def extract_observations_from_facts(llm_config, entity_name: str, facts: list[MemoryFact]) -> list[str]:
"""
Extract observations from facts about an entity using LLM.
Args:
llm_config: LLM configuration to use
entity_name: Name of the entity to generate observations about
facts: List of facts mentioning the entity
Returns:
List of observation strings
"""
if not facts:
return []
facts_text = format_facts_for_observation_prompt(facts)
prompt = build_observation_prompt(entity_name, facts_text)
try:
result = await llm_config.call(
messages=[
{"role": "system", "content": get_observation_system_message()},
{"role": "user", "content": prompt},
],
response_format=ObservationExtractionResponse,
scope="memory_extract_observation",
)
observations = [op.observation for op in result.observations]
return observations
except Exception as e:
logger.warning(f"Failed to extract observations for {entity_name}: {str(e)}")
return []
@@ -116,7 +116,7 @@ async def retrieve_semantic(
results = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -180,7 +180,7 @@ async def retrieve_bm25(
results = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
ts_rank_cd(search_vector, to_tsquery('english', $1)) AS bm25_score
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -237,7 +237,7 @@ async def retrieve_semantic_bm25_combined(
results = await conn.fetch(
f"""
WITH semantic_ranked AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity,
NULL::float AS bm25_score,
'semantic' AS source,
@@ -249,7 +249,7 @@ async def retrieve_semantic_bm25_combined(
AND (1 - (embedding <=> $1::vector)) >= 0.3
{tags_clause}
)
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
similarity, bm25_score, source
FROM semantic_ranked
WHERE rn <= $4
@@ -281,7 +281,7 @@ async def retrieve_semantic_bm25_combined(
results = await conn.fetch(
f"""
WITH semantic_ranked AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity,
NULL::float AS bm25_score,
'semantic' AS source,
@@ -294,7 +294,7 @@ async def retrieve_semantic_bm25_combined(
{tags_clause}
),
bm25_ranked AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
NULL::float AS similarity,
ts_rank_cd(search_vector, to_tsquery('english', $5)) AS bm25_score,
'bm25' AS source,
@@ -306,12 +306,12 @@ async def retrieve_semantic_bm25_combined(
{tags_clause}
),
semantic AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
similarity, bm25_score, source
FROM semantic_ranked WHERE rn <= $4
),
bm25 AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
similarity, bm25_score, source
FROM bm25_ranked WHERE rn <= $4
)
@@ -386,7 +386,7 @@ async def retrieve_temporal_combined(
entry_points = await conn.fetch(
f"""
WITH ranked_entries AS (
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity,
ROW_NUMBER() OVER (PARTITION BY fact_type ORDER BY COALESCE(occurred_start, mentioned_at, occurred_end) DESC, embedding <=> $1::vector) AS rn
FROM {fq_table("memory_units")}
@@ -406,7 +406,7 @@ async def retrieve_temporal_combined(
AND (1 - (embedding <=> $1::vector)) >= $6
{tags_clause}
)
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags, similarity
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags, similarity
FROM ranked_entries
WHERE rn <= 10
""",
@@ -486,7 +486,7 @@ async def retrieve_temporal_combined(
neighbors = await conn.fetch(
f"""
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start, mu.occurred_end, mu.mentioned_at, mu.embedding, mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start, mu.occurred_end, mu.mentioned_at, mu.access_count, mu.embedding, mu.fact_type, mu.document_id, mu.chunk_id, mu.tags,
ml.weight, ml.link_type, ml.from_unit_id,
1 - (mu.embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_links")} ml
@@ -610,7 +610,7 @@ async def retrieve_temporal(
entry_points = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, embedding, fact_type, document_id, chunk_id, tags,
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at, access_count, embedding, fact_type, document_id, chunk_id, tags,
1 - (embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -691,7 +691,7 @@ async def retrieve_temporal(
# Batch fetch all neighbors for this batch of nodes
neighbors = await conn.fetch(
f"""
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start, mu.occurred_end, mu.mentioned_at, mu.embedding, mu.fact_type, mu.document_id, mu.chunk_id,
SELECT mu.id, mu.text, mu.context, mu.event_date, mu.occurred_start, mu.occurred_end, mu.mentioned_at, mu.access_count, mu.embedding, mu.fact_type, mu.document_id, mu.chunk_id,
ml.weight, ml.link_type, ml.from_unit_id,
1 - (mu.embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_links")} ml
@@ -1023,7 +1023,7 @@ async def _get_temporal_entry_points(
rows = await conn.fetch(
f"""
SELECT id, text, context, event_date, occurred_start, occurred_end, mentioned_at,
embedding, fact_type, document_id, chunk_id,
access_count, embedding, fact_type, document_id, chunk_id,
1 - (embedding <=> $1::vector) AS similarity
FROM {fq_table("memory_units")}
WHERE bank_id = $2
@@ -0,0 +1,159 @@
"""
Scoring functions for memory search and retrieval.
Includes recency weighting, frequency weighting, temporal proximity,
and similarity calculations used in memory activation and ranking.
"""
from datetime import datetime
def cosine_similarity(vec1: list[float], vec2: list[float]) -> float:
"""
Calculate cosine similarity between two vectors.
Args:
vec1: First vector
vec2: Second vector
Returns:
Similarity score between 0 and 1
"""
if len(vec1) != len(vec2):
raise ValueError("Vectors must have same dimension")
dot_product = sum(a * b for a, b in zip(vec1, vec2))
magnitude1 = sum(a * a for a in vec1) ** 0.5
magnitude2 = sum(b * b for b in vec2) ** 0.5
if magnitude1 == 0 or magnitude2 == 0:
return 0.0
return dot_product / (magnitude1 * magnitude2)
def calculate_recency_weight(days_since: float, half_life_days: float = 365.0) -> float:
"""
Calculate recency weight using logarithmic decay.
This provides much better differentiation over long time periods compared to
exponential decay. Uses a log-based decay where the half-life parameter controls
when memories reach 50% weight.
Examples:
- Today (0 days): 1.0
- 1 year (365 days): ~0.5 (with default half_life=365)
- 2 years (730 days): ~0.33
- 5 years (1825 days): ~0.17
- 10 years (3650 days): ~0.09
This ensures that 2-year-old and 5-year-old memories have meaningfully
different weights, unlike exponential decay which makes them both ~0.
Args:
days_since: Number of days since the memory was created
half_life_days: Number of days for weight to reach 0.5 (default: 1 year)
Returns:
Weight between 0 and 1
"""
import math
# Logarithmic decay: 1 / (1 + log(1 + days_since/half_life))
# This decays much slower than exponential, giving better long-term differentiation
normalized_age = days_since / half_life_days
return 1.0 / (1.0 + math.log1p(normalized_age))
def calculate_frequency_weight(access_count: int, max_boost: float = 2.0) -> float:
"""
Calculate frequency weight based on access count.
Frequently accessed memories are weighted higher.
Uses logarithmic scaling to avoid over-weighting.
Args:
access_count: Number of times the memory was accessed
max_boost: Maximum multiplier for frequently accessed memories
Returns:
Weight between 1.0 and max_boost
"""
import math
if access_count <= 0:
return 1.0
# Logarithmic scaling: log(access_count + 1) / log(10)
# This gives: 0 accesses = 1.0, 9 accesses ~= 1.5, 99 accesses ~= 2.0
normalized = math.log(access_count + 1) / math.log(10)
return 1.0 + min(normalized, max_boost - 1.0)
def calculate_temporal_anchor(occurred_start: datetime, occurred_end: datetime) -> datetime:
"""
Calculate a single temporal anchor point from a temporal range.
Used for spreading activation - we need a single representative date
to calculate temporal proximity between facts. This simplifies the
range-to-range distance problem.
Strategy: Use midpoint of the range for balanced representation.
Args:
occurred_start: Start of temporal range
occurred_end: End of temporal range
Returns:
Single datetime representing the temporal anchor (midpoint)
Examples:
- Point event (July 14): start=July 14, end=July 14 → anchor=July 14
- Month range (February): start=Feb 1, end=Feb 28 → anchor=Feb 14
- Year range (2023): start=Jan 1, end=Dec 31 → anchor=July 1
"""
# Calculate midpoint
time_delta = occurred_end - occurred_start
midpoint = occurred_start + (time_delta / 2)
return midpoint
def calculate_temporal_proximity(anchor_a: datetime, anchor_b: datetime, half_life_days: float = 30.0) -> float:
"""
Calculate temporal proximity between two temporal anchors.
Used for spreading activation to determine how "close" two facts are
in time. Uses logarithmic decay so that temporal similarity doesn't
drop off too quickly.
Args:
anchor_a: Temporal anchor of first fact
anchor_b: Temporal anchor of second fact
half_life_days: Number of days for proximity to reach 0.5
(default: 30 days = 1 month)
Returns:
Proximity score in [0, 1] where:
- 1.0 = same day
- 0.5 = ~half_life days apart
- 0.0 = very distant in time
Examples:
- Same day: 1.0
- 1 week apart (half_life=30): ~0.7
- 1 month apart (half_life=30): ~0.5
- 1 year apart (half_life=30): ~0.2
"""
import math
days_apart = abs((anchor_a - anchor_b).days)
if days_apart == 0:
return 1.0
# Logarithmic decay: 1 / (1 + log(1 + days_apart/half_life))
# Similar to calculate_recency_weight but for proximity between events
normalized_distance = days_apart / half_life_days
proximity = 1.0 / (1.0 + math.log1p(normalized_distance))
return proximity
@@ -3,13 +3,31 @@ Think operation utilities for formulating answers based on agent and world facts
"""
import logging
import re
from datetime import datetime
from pydantic import BaseModel, Field
from ..response_models import DispositionTraits, MemoryFact
logger = logging.getLogger(__name__)
class Opinion(BaseModel):
"""An opinion formed by the bank."""
opinion: str = Field(description="The opinion or perspective with reasoning included")
confidence: float = Field(description="Confidence score for this opinion (0.0 to 1.0, where 1.0 is very confident)")
class OpinionExtractionResponse(BaseModel):
"""Response containing extracted opinions."""
opinions: list[Opinion] = Field(
default_factory=list, description="List of opinions formed with their supporting reasons and confidence scores"
)
def describe_trait_level(value: int) -> str:
"""Convert trait value (1-5) to descriptive text."""
levels = {1: "very low", 2: "low", 3: "moderate", 4: "high", 5: "very high"}
@@ -75,46 +93,17 @@ def format_facts_for_prompt(facts: list[MemoryFact]) -> str:
return json.dumps(formatted, indent=2)
def format_entity_summaries_for_prompt(entities: dict) -> str:
"""Format entity summaries for inclusion in the reflect prompt.
Args:
entities: Dict mapping entity name to EntityState objects
Returns:
Formatted string with entity summaries, or empty string if no summaries
"""
if not entities:
return ""
summaries = []
for name, state in entities.items():
# Get summary from observations (summary is stored as single observation)
if state.observations:
summary_text = state.observations[0].text
summaries.append(f"## {name}\n{summary_text}")
if not summaries:
return ""
return "\n\n".join(summaries)
def build_think_prompt(
agent_facts_text: str,
world_facts_text: str,
opinion_facts_text: str,
query: str,
name: str,
disposition: DispositionTraits,
background: str,
context: str | None = None,
entity_summaries_text: str | None = None,
) -> str:
"""Build the think prompt for the LLM.
Note: opinion_facts_text parameter removed - opinions are now stored as mental models
and included via entity_summaries_text.
"""
"""Build the think prompt for the LLM."""
disposition_desc = build_disposition_description(disposition)
name_section = f"""
@@ -136,14 +125,6 @@ Your background:
ADDITIONAL CONTEXT:
{context}
"""
entity_section = ""
if entity_summaries_text:
entity_section = f"""
KEY PEOPLE, PLACES & THINGS I KNOW ABOUT:
{entity_summaries_text}
"""
return f"""Here's what I know and have experienced:
@@ -154,11 +135,14 @@ MY IDENTITY & EXPERIENCES:
WHAT I KNOW ABOUT THE WORLD:
{world_facts_text}
{entity_section}{context_section}{name_section}{disposition_desc}{background_section}
MY EXISTING OPINIONS & BELIEFS:
{opinion_facts_text}
{context_section}{name_section}{disposition_desc}{background_section}
QUESTION: {query}
Based on everything I know, believe, and who I am (including my name, disposition and background), here's what I genuinely think about this question. I'll draw on my experiences, knowledge, and personal traits to give you my honest perspective."""
Based on everything I know, believe, and who I am (including my name, disposition and background), here's what I genuinely think about this question. I'll draw on my experiences, knowledge, opinions, and personal traits to give you my honest perspective."""
def get_system_message(disposition: DispositionTraits) -> str:
@@ -191,11 +175,122 @@ def get_system_message(disposition: DispositionTraits) -> str:
return f"You are a person with your own thoughts, experiences, opinions, and disposition. When asked a question, respond naturally like a human would - share what you genuinely think based on what you know and have experienced. {disposition_instruction} Be direct, express your views confidently, and use 'I think', 'I believe', 'in my view', etc. Respond in plain text without markdown formatting. IMPORTANT: Detect the language of the question and respond in the SAME language. Do not translate to English if the question is in another language."
async def extract_opinions_from_text(llm_config, text: str, query: str) -> list[Opinion]:
"""
Extract opinions with reasons and confidence from text using LLM.
Args:
llm_config: LLM configuration to use
text: Text to extract opinions from
query: The original query that prompted this response
Returns:
List of Opinion objects with text and confidence
"""
extraction_prompt = f"""Extract any NEW opinions or perspectives from the answer below and rewrite them in FIRST-PERSON as if YOU are stating the opinion directly.
ORIGINAL QUESTION:
{query}
ANSWER PROVIDED:
{text}
Your task: Find opinions in the answer and rewrite them AS IF YOU ARE THE ONE SAYING THEM.
An opinion is a judgment, viewpoint, or conclusion that goes beyond just stating facts.
IMPORTANT: Do NOT extract statements like:
- "I don't have enough information"
- "The facts don't contain information about X"
- "I cannot answer because..."
ONLY extract actual opinions about substantive topics.
CRITICAL FORMAT REQUIREMENTS:
1. **ALWAYS start with first-person phrases**: "I think...", "I believe...", "In my view...", "I've come to believe...", "Previously I thought... but now..."
2. **NEVER use third-person**: Do NOT say "The speaker thinks..." or "They believe..." - always use "I"
3. Include the reasoning naturally within the statement
4. Provide a confidence score (0.0 to 1.0)
CORRECT Examples (✓ FIRST-PERSON):
- "I think Alice is more reliable because she consistently delivers on time and writes clean code"
- "Previously I thought all engineers were equal, but now I feel that experience and track record really matter"
- "I believe reliability is best measured by consistent output over time"
- "I've come to believe that track records are more important than potential"
WRONG Examples (✗ THIRD-PERSON - DO NOT USE):
- "The speaker thinks Alice is more reliable"
- "They believe reliability matters"
- "It is believed that Alice is better"
If no genuine opinions are expressed (e.g., the response just says "I don't know"), return an empty list."""
try:
result = await llm_config.call(
messages=[
{
"role": "system",
"content": "You are converting opinions from text into first-person statements. Always use 'I think', 'I believe', 'I feel', etc. NEVER use third-person like 'The speaker' or 'They'.",
},
{"role": "user", "content": extraction_prompt},
],
response_format=OpinionExtractionResponse,
scope="memory_extract_opinion",
)
# Format opinions with confidence score and convert to first-person
formatted_opinions = []
for op in result.opinions:
# Convert third-person to first-person if needed
opinion_text = op.opinion
# Replace common third-person patterns with first-person
def singularize_verb(verb):
if verb.endswith("es"):
return verb[:-1] # believes -> believe
elif verb.endswith("s"):
return verb[:-1] # thinks -> think
return verb
# Pattern: "The speaker/user [verb]..." -> "I [verb]..."
match = re.match(
r"^(The speaker|The user|They|It is believed) (believes?|thinks?|feels?|says|asserts?|considers?)(\s+that)?(.*)$",
opinion_text,
re.IGNORECASE,
)
if match:
verb = singularize_verb(match.group(2))
that_part = match.group(3) or "" # Keep " that" if present
rest = match.group(4)
opinion_text = f"I {verb}{that_part}{rest}"
# If still doesn't start with first-person, prepend "I believe that "
first_person_starters = [
"I think",
"I believe",
"I feel",
"In my view",
"I've come to believe",
"Previously I",
]
if not any(opinion_text.startswith(starter) for starter in first_person_starters):
opinion_text = "I believe that " + opinion_text[0].lower() + opinion_text[1:]
formatted_opinions.append(Opinion(opinion=opinion_text, confidence=op.confidence))
return formatted_opinions
except Exception as e:
logger.warning(f"Failed to extract opinions: {str(e)}")
return []
async def reflect(
llm_config,
query: str,
experience_facts: list[str] = None,
world_facts: list[str] = None,
opinion_facts: list[str] = None,
name: str = "Assistant",
disposition: DispositionTraits = None,
background: str = "",
@@ -212,6 +307,7 @@ async def reflect(
query: Question to answer
experience_facts: List of experience/agent fact strings
world_facts: List of world fact strings
opinion_facts: List of opinion fact strings
name: Name of the agent/persona
disposition: Disposition traits (defaults to neutral)
background: Background information
@@ -232,15 +328,18 @@ async def reflect(
agent_results = to_memory_facts(experience_facts or [], "experience")
world_results = to_memory_facts(world_facts or [], "world")
opinion_results = to_memory_facts(opinion_facts or [], "opinion")
# Format facts for prompt
agent_facts_text = format_facts_for_prompt(agent_results)
world_facts_text = format_facts_for_prompt(world_results)
opinion_facts_text = format_facts_for_prompt(opinion_results)
# Build prompt
prompt = build_think_prompt(
agent_facts_text=agent_facts_text,
world_facts_text=world_facts_text,
opinion_facts_text=opinion_facts_text,
query=query,
name=name,
disposition=disposition,
@@ -85,6 +85,7 @@ class NodeVisit(BaseModel):
text: str = Field(description="Memory unit text content")
context: str = Field(description="Memory unit context")
event_date: datetime | None = Field(default=None, description="When the memory occurred")
access_count: int = Field(description="Number of times accessed before this search")
# How this node was reached
is_entry_point: bool = Field(description="Whether this is an entry point")
@@ -136,6 +136,7 @@ class SearchTracer:
text: str,
context: str,
event_date: datetime | None,
access_count: int,
is_entry_point: bool,
parent_node_id: str | None,
link_type: Literal["temporal", "semantic", "entity"] | None,
@@ -154,6 +155,7 @@ class SearchTracer:
text: Memory unit text
context: Memory unit context
event_date: When the memory occurred
access_count: Access count before this search
is_entry_point: Whether this is an entry point
parent_node_id: Node that led here (None for entry points)
link_type: Type of link from parent
@@ -192,6 +194,7 @@ class SearchTracer:
text=text,
context=context,
event_date=event_date,
access_count=access_count,
is_entry_point=is_entry_point,
parent_node_id=parent_node_id,
link_type=link_type,
@@ -330,8 +333,8 @@ class SearchTracer:
RetrievalResult(
rank=rank,
node_id=doc_id,
text=data.get("text") or "",
context=data.get("context") or "",
text=data.get("text", ""),
context=data.get("context", ""),
event_date=data.get("event_date"),
fact_type=data.get("fact_type") or fact_type,
score=score,
@@ -46,6 +46,7 @@ class RetrievalResult:
mentioned_at: datetime | None = None
document_id: str | None = None
chunk_id: str | None = None
access_count: int = 0
embedding: list[float] | None = None
tags: list[str] | None = None # Visibility scope tags
@@ -70,6 +71,7 @@ class RetrievalResult:
mentioned_at=row.get("mentioned_at"),
document_id=row.get("document_id"),
chunk_id=row.get("chunk_id"),
access_count=row.get("access_count", 0),
embedding=row.get("embedding"),
tags=row.get("tags"),
similarity=row.get("similarity"),
@@ -154,6 +156,7 @@ class ScoredResult:
"mentioned_at": self.retrieval.mentioned_at,
"document_id": self.retrieval.document_id,
"chunk_id": self.retrieval.chunk_id,
"access_count": self.retrieval.access_count,
"embedding": self.retrieval.embedding,
"tags": self.retrieval.tags,
"semantic_similarity": self.retrieval.similarity,
+202 -118
View File
@@ -1,40 +1,31 @@
"""
Task backend for distributed task processing.
Abstract task backend for running async tasks.
This provides an abstraction for task storage and execution:
- BrokerTaskBackend: Uses PostgreSQL as broker (production)
- SyncTaskBackend: Executes tasks immediately (testing/embedded)
This provides an abstraction that can be adapted to different execution models:
- AsyncIO queue (default implementation)
- Pub/Sub architectures (future)
- Message brokers (future)
"""
import json
import asyncio
import logging
from abc import ABC, abstractmethod
from collections.abc import Awaitable, Callable
from typing import TYPE_CHECKING, Any
if TYPE_CHECKING:
import asyncpg
from typing import Any
logger = logging.getLogger(__name__)
def fq_table(table: str, schema: str | None = None) -> str:
"""Get fully-qualified table name with optional schema prefix."""
if schema:
return f'"{schema}".{table}'
return table
class TaskBackend(ABC):
"""
Abstract base class for task execution backends.
Implementations must:
1. Store/publish task events (as serializable dicts)
2. Execute tasks through a provided executor callback (optional)
2. Execute tasks through a provided executor callback
The backend treats tasks as pure dictionaries that can be serialized
and stored in the database. The executor (typically MemoryEngine.execute_task)
and sent over the network. The executor (typically MemoryEngine.execute_task)
receives the dict and routes it to the appropriate handler.
"""
@@ -55,7 +46,7 @@ class TaskBackend(ABC):
@abstractmethod
async def initialize(self):
"""
Initialize the backend (e.g., connect to database).
Initialize the backend (e.g., start workers, connect to broker).
"""
pass
@@ -72,7 +63,7 @@ class TaskBackend(ABC):
@abstractmethod
async def shutdown(self):
"""
Shutdown the backend gracefully.
Shutdown the backend gracefully (e.g., stop workers, close connections).
"""
pass
@@ -102,8 +93,9 @@ class SyncTaskBackend(TaskBackend):
"""
Synchronous task backend that executes tasks immediately.
This is useful for tests and embedded/CLI usage where we don't want
background workers. Tasks are executed inline rather than being queued.
This is useful for embedded/CLI usage where we don't want background
workers that prevent clean exit. Tasks are executed inline rather than
being queued.
"""
async def initialize(self):
@@ -129,129 +121,221 @@ class SyncTaskBackend(TaskBackend):
logger.debug("SyncTaskBackend shutdown")
class BrokerTaskBackend(TaskBackend):
class NoopTaskBackend(TaskBackend):
"""
Task backend using PostgreSQL as broker.
No-op task backend that discards all tasks.
submit_task() stores task_payload in async_operations table.
Actual polling and execution is handled separately by WorkerPoller.
This backend is used by the API to store tasks. Workers poll
the database separately to claim and execute tasks.
This is useful for tests where background task execution is not needed
and would only slow down the test suite.
"""
def __init__(
self,
pool_getter: Callable[[], "asyncpg.Pool"],
schema: str | None = None,
schema_getter: Callable[[], str | None] | None = None,
):
"""
Initialize the broker task backend.
Args:
pool_getter: Callable that returns the asyncpg connection pool
schema: Database schema for multi-tenant support (optional, static)
schema_getter: Callable that returns current schema dynamically (optional).
If set, takes precedence over static schema for submit_task.
"""
super().__init__()
self._pool_getter = pool_getter
self._schema = schema
self._schema_getter = schema_getter
async def initialize(self):
"""Initialize the backend."""
"""No-op."""
self._initialized = True
logger.info("BrokerTaskBackend initialized")
logger.debug("NoopTaskBackend initialized")
async def submit_task(self, task_dict: dict[str, Any]):
"""Discard the task (do nothing)."""
pass
async def shutdown(self):
"""No-op."""
self._initialized = False
logger.debug("NoopTaskBackend shutdown")
class AsyncIOQueueBackend(TaskBackend):
"""
Task backend implementation using asyncio queues.
This is the default implementation that uses in-process asyncio queues
and a periodic consumer worker.
"""
def __init__(self, batch_size: int = 10, batch_interval: float = 1.0):
"""
Initialize AsyncIO queue backend.
Args:
batch_size: Maximum number of tasks to process in one batch
batch_interval: Maximum time (seconds) to wait before processing batch
"""
super().__init__()
self._queue: asyncio.Queue | None = None
self._worker_task: asyncio.Task | None = None
self._shutdown_event: asyncio.Event | None = None
self._batch_size = batch_size
self._batch_interval = batch_interval
self._in_flight_count = 0
self._in_flight_lock = asyncio.Lock()
async def initialize(self):
"""Initialize the queue and start the worker."""
if self._initialized:
return
self._queue = asyncio.Queue()
self._shutdown_event = asyncio.Event()
self._worker_task = asyncio.create_task(self._worker())
self._initialized = True
logger.info("AsyncIOQueueBackend initialized")
async def submit_task(self, task_dict: dict[str, Any]):
"""
Store task payload in async_operations table.
The task_dict should contain an 'operation_id' if updating an existing
operation record, otherwise a new operation will be created.
Submit a task by putting it in the queue.
Args:
task_dict: Task dictionary to store (must be JSON serializable)
task_dict: Task dictionary to execute
"""
if not self._initialized:
await self.initialize()
pool = self._pool_getter()
operation_id = task_dict.get("operation_id")
task_type = task_dict.get("type", "unknown")
bank_id = task_dict.get("bank_id")
payload_json = json.dumps(task_dict)
schema = self._schema_getter() if self._schema_getter else self._schema
table = fq_table("async_operations", schema)
if operation_id:
# Update existing operation with task payload
await pool.execute(
f"""
UPDATE {table}
SET task_payload = $1::jsonb, updated_at = now()
WHERE operation_id = $2
""",
payload_json,
operation_id,
)
logger.debug(f"Updated task payload for operation {operation_id}")
else:
# Insert new operation (for tasks without pre-created records)
# e.g., access_count_update tasks
import uuid
new_id = uuid.uuid4()
await pool.execute(
f"""
INSERT INTO {table} (operation_id, bank_id, operation_type, status, task_payload)
VALUES ($1, $2, $3, 'pending', $4::jsonb)
""",
new_id,
bank_id,
task_type,
payload_json,
)
logger.debug(f"Created new operation {new_id} for task type {task_type}")
async def shutdown(self):
"""Shutdown the backend."""
self._initialized = False
logger.info("BrokerTaskBackend shutdown")
await self._queue.put(task_dict)
async def wait_for_pending_tasks(self, timeout: float = 120.0):
"""
Wait for pending tasks to be processed.
Wait for all pending tasks in the queue and in-flight tasks to complete.
In the broker model, this polls the database to check if tasks
for this process have been completed. This is useful in tests
when worker_enabled=True (API processes its own tasks).
This is useful in tests to ensure background tasks complete before assertions.
Args:
timeout: Maximum time to wait in seconds
timeout: Maximum time to wait in seconds (default 120s for long-running tasks)
"""
import asyncio
pool = self._pool_getter()
schema = self._schema_getter() if self._schema_getter else self._schema
table = fq_table("async_operations", schema)
if not self._initialized or self._queue is None:
return
# Wait for queue to be empty AND no in-flight tasks
start_time = asyncio.get_event_loop().time()
while asyncio.get_event_loop().time() - start_time < timeout:
# Check if there are any pending tasks with payloads
count = await pool.fetchval(
f"""
SELECT COUNT(*) FROM {table}
WHERE status = 'pending' AND task_payload IS NOT NULL
"""
)
async with self._in_flight_lock:
in_flight = self._in_flight_count
if count == 0:
if self._queue.empty() and in_flight == 0:
# Queue is empty and no tasks in flight, we're done
return
# Wait a bit before checking again
await asyncio.sleep(0.5)
logger.warning(f"Timeout waiting for pending tasks after {timeout}s")
async def shutdown(self):
"""Shutdown the worker and drain the queue."""
if not self._initialized:
return
logger.info("Shutting down AsyncIOQueueBackend...")
# Signal shutdown
self._shutdown_event.set()
# Cancel worker
if self._worker_task is not None:
self._worker_task.cancel()
try:
await self._worker_task
except asyncio.CancelledError:
pass # Worker cancelled successfully
self._initialized = False
logger.info("AsyncIOQueueBackend shutdown complete")
async def _execute_task_with_tracking(self, task_dict: dict[str, Any]):
"""Execute a task and track its in-flight status."""
async with self._in_flight_lock:
self._in_flight_count += 1
try:
await self._execute_task(task_dict)
finally:
async with self._in_flight_lock:
self._in_flight_count -= 1
async def _execute_task_no_tracking(self, task_dict: dict[str, Any]):
"""Execute a task without in-flight tracking (tracking done at batch level)."""
await self._execute_task(task_dict)
def _get_queue_stats(self) -> tuple[int, dict[str, int]]:
"""Get current queue size and bank_id distribution."""
queue_size = self._queue.qsize() if self._queue else 0
bank_distribution: dict[str, int] = {}
if queue_size > 0 and self._queue:
# Peek at queue items without removing them
# Note: This is a snapshot and may not be perfectly accurate due to concurrency
try:
# Access internal deque for logging purposes only
items = list(self._queue._queue) # type: ignore[attr-defined]
for item in items:
bank_id = item.get("bank_id", "unknown")
bank_distribution[bank_id] = bank_distribution.get(bank_id, 0) + 1
except Exception:
pass # Queue access failed, return empty distribution
return queue_size, bank_distribution
async def _worker(self):
"""
Background worker that processes tasks in batches.
Collects tasks for up to batch_interval seconds or batch_size items,
then processes them.
"""
while not self._shutdown_event.is_set():
try:
# Collect tasks for batching
tasks = []
deadline = asyncio.get_event_loop().time() + self._batch_interval
while len(tasks) < self._batch_size and asyncio.get_event_loop().time() < deadline:
try:
remaining_time = max(0.1, deadline - asyncio.get_event_loop().time())
task_dict = await asyncio.wait_for(self._queue.get(), timeout=remaining_time)
# Track task as in-flight immediately when picked up from queue
# This prevents wait_for_pending_tasks from returning too early
async with self._in_flight_lock:
self._in_flight_count += 1
tasks.append(task_dict)
except TimeoutError:
break
# Process batch
if tasks:
# Log batch start with queue stats
queue_size, bank_distribution = self._get_queue_stats()
# Summarize batch by task type and bank
batch_summary: dict[str, dict[str, int]] = {}
for task_dict in tasks:
task_type = task_dict.get("type", "unknown")
bank_id = task_dict.get("bank_id", "unknown")
if task_type not in batch_summary:
batch_summary[task_type] = {}
batch_summary[task_type][bank_id] = batch_summary[task_type].get(bank_id, 0) + 1
# Build log message
batch_parts = []
for task_type, banks in sorted(batch_summary.items()):
bank_str = ", ".join(f"{b}:{c}" for b, c in sorted(banks.items()))
batch_parts.append(f"{task_type}[{bank_str}]")
batch_str = ", ".join(batch_parts)
if queue_size > 0:
pending_str = ", ".join(f"{k}:{v}" for k, v in sorted(bank_distribution.items()))
logger.info(
f"Processing {len(tasks)} tasks: {batch_str} (pending={queue_size} [{pending_str}])"
)
else:
logger.info(f"Processing {len(tasks)} tasks: {batch_str}")
# Execute tasks concurrently (in_flight already tracked when picked up)
await asyncio.gather(
*[self._execute_task_no_tracking(task_dict) for task_dict in tasks], return_exceptions=True
)
# Decrement in_flight count after all tasks complete
async with self._in_flight_lock:
self._in_flight_count -= len(tasks)
except asyncio.CancelledError:
break
except Exception as e:
logger.error(f"Worker error: {e}")
await asyncio.sleep(1) # Backoff on error
+151
View File
@@ -65,3 +65,154 @@ async def extract_facts(
return [], chunks
return facts, chunks
def cosine_similarity(vec1: list[float], vec2: list[float]) -> float:
"""
Calculate cosine similarity between two vectors.
Args:
vec1: First vector
vec2: Second vector
Returns:
Similarity score between 0 and 1
"""
if len(vec1) != len(vec2):
raise ValueError("Vectors must have same dimension")
dot_product = sum(a * b for a, b in zip(vec1, vec2))
magnitude1 = sum(a * a for a in vec1) ** 0.5
magnitude2 = sum(b * b for b in vec2) ** 0.5
if magnitude1 == 0 or magnitude2 == 0:
return 0.0
return dot_product / (magnitude1 * magnitude2)
def calculate_recency_weight(days_since: float, half_life_days: float = 365.0) -> float:
"""
Calculate recency weight using logarithmic decay.
This provides much better differentiation over long time periods compared to
exponential decay. Uses a log-based decay where the half-life parameter controls
when memories reach 50% weight.
Examples:
- Today (0 days): 1.0
- 1 year (365 days): ~0.5 (with default half_life=365)
- 2 years (730 days): ~0.33
- 5 years (1825 days): ~0.17
- 10 years (3650 days): ~0.09
This ensures that 2-year-old and 5-year-old memories have meaningfully
different weights, unlike exponential decay which makes them both ~0.
Args:
days_since: Number of days since the memory was created
half_life_days: Number of days for weight to reach 0.5 (default: 1 year)
Returns:
Weight between 0 and 1
"""
import math
# Logarithmic decay: 1 / (1 + log(1 + days_since/half_life))
# This decays much slower than exponential, giving better long-term differentiation
normalized_age = days_since / half_life_days
return 1.0 / (1.0 + math.log1p(normalized_age))
def calculate_frequency_weight(access_count: int, max_boost: float = 2.0) -> float:
"""
Calculate frequency weight based on access count.
Frequently accessed memories are weighted higher.
Uses logarithmic scaling to avoid over-weighting.
Args:
access_count: Number of times the memory was accessed
max_boost: Maximum multiplier for frequently accessed memories
Returns:
Weight between 1.0 and max_boost
"""
import math
if access_count <= 0:
return 1.0
# Logarithmic scaling: log(access_count + 1) / log(10)
# This gives: 0 accesses = 1.0, 9 accesses ~= 1.5, 99 accesses ~= 2.0
normalized = math.log(access_count + 1) / math.log(10)
return 1.0 + min(normalized, max_boost - 1.0)
def calculate_temporal_anchor(occurred_start: datetime, occurred_end: datetime) -> datetime:
"""
Calculate a single temporal anchor point from a temporal range.
Used for spreading activation - we need a single representative date
to calculate temporal proximity between facts. This simplifies the
range-to-range distance problem.
Strategy: Use midpoint of the range for balanced representation.
Args:
occurred_start: Start of temporal range
occurred_end: End of temporal range
Returns:
Single datetime representing the temporal anchor (midpoint)
Examples:
- Point event (July 14): start=July 14, end=July 14 anchor=July 14
- Month range (February): start=Feb 1, end=Feb 28 anchor=Feb 14
- Year range (2023): start=Jan 1, end=Dec 31 anchor=July 1
"""
# Calculate midpoint
time_delta = occurred_end - occurred_start
midpoint = occurred_start + (time_delta / 2)
return midpoint
def calculate_temporal_proximity(anchor_a: datetime, anchor_b: datetime, half_life_days: float = 30.0) -> float:
"""
Calculate temporal proximity between two temporal anchors.
Used for spreading activation to determine how "close" two facts are
in time. Uses logarithmic decay so that temporal similarity doesn't
drop off too quickly.
Args:
anchor_a: Temporal anchor of first fact
anchor_b: Temporal anchor of second fact
half_life_days: Number of days for proximity to reach 0.5
(default: 30 days = 1 month)
Returns:
Proximity score in [0, 1] where:
- 1.0 = same day
- 0.5 = ~half_life days apart
- 0.0 = very distant in time
Examples:
- Same day: 1.0
- 1 week apart (half_life=30): ~0.7
- 1 month apart (half_life=30): ~0.5
- 1 year apart (half_life=30): ~0.2
"""
import math
days_apart = abs((anchor_a - anchor_b).days)
if days_apart == 0:
return 1.0
# Logarithmic decay: 1 / (1 + log(1 + days_apart/half_life))
# Similar to calculate_recency_weight but for proximity between events
normalized_distance = days_apart / half_life_days
proximity = 1.0 / (1.0 + math.log1p(normalized_distance))
return proximity
@@ -21,10 +21,6 @@ from hindsight_api.extensions.context import DefaultExtensionContext, ExtensionC
from hindsight_api.extensions.http import HttpExtension
from hindsight_api.extensions.loader import load_extension
from hindsight_api.extensions.operation_validator import (
# Consolidation operation
ConsolidateContext,
ConsolidateResult,
# Core operations
OperationValidationError,
OperationValidatorExtension,
RecallContext,
@@ -37,7 +33,6 @@ from hindsight_api.extensions.operation_validator import (
)
from hindsight_api.extensions.tenant import (
AuthenticationError,
Tenant,
TenantContext,
TenantExtension,
)
@@ -52,7 +47,7 @@ __all__ = [
"DefaultExtensionContext",
# HTTP Extension
"HttpExtension",
# Operation Validator - Core
# Operation Validator
"OperationValidationError",
"OperationValidatorExtension",
"RecallContext",
@@ -62,14 +57,10 @@ __all__ = [
"RetainContext",
"RetainResult",
"ValidationResult",
# Operation Validator - Consolidation
"ConsolidateContext",
"ConsolidateResult",
# Tenant/Auth
"ApiKeyTenantExtension",
"AuthenticationError",
"RequestContext",
"Tenant",
"TenantContext",
"TenantExtension",
]
@@ -1,6 +1,6 @@
"""Built-in tenant extension implementations."""
from hindsight_api.extensions.tenant import AuthenticationError, Tenant, TenantContext, TenantExtension
from hindsight_api.extensions.tenant import AuthenticationError, TenantContext, TenantExtension
from hindsight_api.models import RequestContext
@@ -31,7 +31,3 @@ class ApiKeyTenantExtension(TenantExtension):
if context.api_key != self.expected_api_key:
raise AuthenticationError("Invalid API key")
return TenantContext(schema_name="public")
async def list_tenants(self) -> list[Tenant]:
"""Return public schema for single-tenant setup."""
return [Tenant(schema="public")]
@@ -1,4 +1,4 @@
"""Operation Validator Extension for validating retain/recall/reflect/consolidate operations."""
"""Operation Validator Extension for validating retain/recall/reflect operations."""
from abc import ABC, abstractmethod
from dataclasses import dataclass, field
@@ -97,19 +97,6 @@ class ReflectContext:
context: str | None = None
# =============================================================================
# Consolidation Pre-operation Context
# =============================================================================
@dataclass
class ConsolidateContext:
"""Context for a consolidation operation validation (pre-operation)."""
bank_id: str
request_context: "RequestContext"
# =============================================================================
# Post-operation Contexts (includes results)
# =============================================================================
@@ -177,28 +164,9 @@ class ReflectResultContext:
error: str | None = None
# =============================================================================
# Consolidation Post-operation Context
# =============================================================================
@dataclass
class ConsolidateResult:
"""Result context for post-consolidation hook."""
bank_id: str
request_context: "RequestContext"
# Result
processed: int = 0
created: int = 0
updated: int = 0
success: bool = True
error: str | None = None
class OperationValidatorExtension(Extension, ABC):
"""
Validates and hooks into retain/recall/reflect/consolidate operations.
Validates and hooks into retain/recall/reflect operations.
This extension allows implementing custom logic such as:
- Rate limiting (pre-operation)
@@ -217,13 +185,9 @@ class OperationValidatorExtension(Extension, ABC):
-> config = {"max_requests": "100"}
Hook execution order:
1. validate_* (pre-operation)
1. validate_retain/validate_recall/validate_reflect (pre-operation)
2. [operation executes]
3. on_*_complete (post-operation)
Supported operations:
- retain, recall, reflect (core memory operations)
- consolidate (mental models consolidation)
3. on_retain_complete/on_recall_complete/on_reflect_complete (post-operation)
"""
# =========================================================================
@@ -361,44 +325,3 @@ class OperationValidatorExtension(Extension, ABC):
- error: Error message (if failed)
"""
pass
# =========================================================================
# Consolidation - Pre-operation validation hook (optional - override to implement)
# =========================================================================
async def validate_consolidate(self, ctx: ConsolidateContext) -> ValidationResult:
"""
Validate a consolidation operation before execution.
Override to implement custom validation logic for consolidation.
Args:
ctx: Context containing:
- bank_id: Bank identifier
- request_context: Request context with auth info
Returns:
ValidationResult indicating whether the operation is allowed.
"""
return ValidationResult.accept()
# =========================================================================
# Consolidation - Post-operation hook (optional - override to implement)
# =========================================================================
async def on_consolidate_complete(self, result: ConsolidateResult) -> None:
"""
Called after a consolidation operation completes (success or failure).
Override to implement post-operation logic such as usage tracking or audit logging.
Args:
result: Result context containing:
- bank_id: Bank identifier
- processed: Number of memories processed
- created: Number of mental models created
- updated: Number of mental models updated
- success: Whether the operation succeeded
- error: Error message (if failed)
"""
pass
@@ -28,18 +28,6 @@ class TenantContext:
schema_name: str
@dataclass
class Tenant:
"""
Represents a tenant for worker discovery.
Used by list_tenants() to return tenant information including
the PostgreSQL schema name for database operations.
"""
schema: str
class TenantExtension(Extension, ABC):
"""
Extension for multi-tenancy and API key authentication.
@@ -73,17 +61,3 @@ class TenantExtension(Extension, ABC):
AuthenticationError: If authentication fails.
"""
...
@abstractmethod
async def list_tenants(self) -> list[Tenant]:
"""
List all tenants that should be processed by workers.
This method is used by the worker to discover all tenants that need
task polling. Workers will poll for pending tasks in each tenant's schema.
Returns:
List of Tenant objects containing schema information.
For single-tenant setups, return [Tenant(schema="public")].
"""
...
+5 -15
View File
@@ -184,10 +184,6 @@ def main():
reflect_llm_api_key=config.reflect_llm_api_key,
reflect_llm_model=config.reflect_llm_model,
reflect_llm_base_url=config.reflect_llm_base_url,
consolidation_llm_provider=config.consolidation_llm_provider,
consolidation_llm_api_key=config.consolidation_llm_api_key,
consolidation_llm_model=config.consolidation_llm_model,
consolidation_llm_base_url=config.consolidation_llm_base_url,
embeddings_provider=config.embeddings_provider,
embeddings_local_model=config.embeddings_local_model,
embeddings_tei_url=config.embeddings_tei_url,
@@ -203,19 +199,18 @@ def main():
host=args.host,
port=args.port,
log_level=args.log_level,
log_format=config.log_format,
mcp_enabled=config.mcp_enabled,
graph_retriever=config.graph_retriever,
mpfp_top_k_neighbors=config.mpfp_top_k_neighbors,
recall_max_concurrent=config.recall_max_concurrent,
recall_connection_budget=config.recall_connection_budget,
observation_min_facts=config.observation_min_facts,
observation_top_entities=config.observation_top_entities,
retain_max_completion_tokens=config.retain_max_completion_tokens,
retain_chunk_size=config.retain_chunk_size,
retain_extract_causal_links=config.retain_extract_causal_links,
retain_extraction_mode=config.retain_extraction_mode,
retain_observations_async=config.retain_observations_async,
enable_observations=config.enable_observations,
consolidation_batch_size=config.consolidation_batch_size,
skip_llm_verification=config.skip_llm_verification,
lazy_reranker=config.lazy_reranker,
run_migrations_on_startup=config.run_migrations_on_startup,
@@ -223,14 +218,9 @@ def main():
db_pool_max_size=config.db_pool_max_size,
db_command_timeout=config.db_command_timeout,
db_acquire_timeout=config.db_acquire_timeout,
worker_enabled=config.worker_enabled,
worker_id=config.worker_id,
worker_poll_interval_ms=config.worker_poll_interval_ms,
worker_max_retries=config.worker_max_retries,
worker_batch_size=config.worker_batch_size,
worker_http_port=config.worker_http_port,
reflect_max_iterations=config.reflect_max_iterations,
mental_model_refresh_concurrency=config.mental_model_refresh_concurrency,
task_backend=config.task_backend,
task_backend_memory_batch_size=config.task_backend_memory_batch_size,
task_backend_memory_batch_interval=config.task_backend_memory_batch_interval,
)
config.configure_logging()
if not args.daemon:
+52 -11
View File
@@ -44,6 +44,7 @@ import os
import sys
from mcp.server.fastmcp import FastMCP
from mcp.types import Icon
from hindsight_api.config import (
DEFAULT_MCP_LOCAL_BANK_ID,
@@ -52,7 +53,6 @@ from hindsight_api.config import (
ENV_MCP_INSTRUCTIONS,
ENV_MCP_LOCAL_BANK_ID,
)
from hindsight_api.mcp_tools import MCPToolsConfig, register_mcp_tools
# Configure logging - default to warning to avoid polluting stderr during MCP init
# MCP clients interpret stderr output as errors, so we suppress INFO logs by default
@@ -85,6 +85,9 @@ def create_local_mcp_server(bank_id: str, memory=None) -> FastMCP:
"""
# Import here to avoid slow startup if just checking --help
from hindsight_api import MemoryEngine
from hindsight_api.engine.memory_engine import Budget
from hindsight_api.engine.response_models import VALID_RECALL_FACT_TYPES
from hindsight_api.models import RequestContext
# Create memory engine with pg0 embedded database if not provided
if memory is None:
@@ -102,17 +105,55 @@ def create_local_mcp_server(bank_id: str, memory=None) -> FastMCP:
mcp = FastMCP("hindsight")
# Configure and register tools using shared module
config = MCPToolsConfig(
bank_id_resolver=lambda: bank_id,
include_bank_id_param=False, # Local MCP uses fixed bank_id
tools={"retain", "recall"}, # Local MCP only has retain and recall
retain_description=retain_description,
recall_description=recall_description,
retain_fire_and_forget=True, # Local MCP uses fire-and-forget pattern
)
@mcp.tool(description=retain_description)
async def retain(content: str, context: str = "general") -> dict:
"""
Args:
content: The fact/memory to store (be specific and include relevant details)
context: Category for the memory (e.g., 'preferences', 'work', 'hobbies', 'family'). Default: 'general'
"""
import asyncio
register_mcp_tools(mcp, memory, config)
async def _retain():
try:
await memory.retain_batch_async(
bank_id=bank_id,
contents=[{"content": content, "context": context}],
request_context=RequestContext(),
)
except Exception as e:
logger.error(f"Error storing memory: {e}", exc_info=True)
# Fire and forget - don't block on memory storage
asyncio.create_task(_retain())
return {"status": "accepted", "message": "Memory storage initiated"}
@mcp.tool(description=recall_description)
async def recall(query: str, max_tokens: int = 4096, budget: str = "low") -> dict:
"""
Args:
query: Natural language search query (e.g., "user's food preferences", "what projects is user working on")
max_tokens: Maximum tokens to return in results (default: 4096)
budget: Search budget level - "low", "mid", or "high" (default: "low")
"""
try:
# Map string budget to enum
budget_map = {"low": Budget.LOW, "mid": Budget.MID, "high": Budget.HIGH}
budget_enum = budget_map.get(budget.lower(), Budget.LOW)
search_result = await memory.recall_async(
bank_id=bank_id,
query=query,
fact_type=list(VALID_RECALL_FACT_TYPES),
budget=budget_enum,
max_tokens=max_tokens,
request_context=RequestContext(),
)
return search_result.model_dump()
except Exception as e:
logger.error(f"Error searching: {e}", exc_info=True)
return {"error": str(e), "results": []}
return mcp
-494
View File
@@ -1,494 +0,0 @@
"""Shared MCP tool implementations for Hindsight.
This module provides the core tool logic used by both:
- mcp_local.py (stdio transport for Claude Code)
- api/mcp.py (HTTP transport for API server)
"""
import json
import logging
from dataclasses import dataclass
from datetime import datetime
from typing import Any, Callable
from fastmcp import FastMCP
from hindsight_api import MemoryEngine
from hindsight_api.config import (
DEFAULT_MCP_RECALL_DESCRIPTION,
DEFAULT_MCP_RETAIN_DESCRIPTION,
)
from hindsight_api.engine.memory_engine import Budget
from hindsight_api.engine.response_models import VALID_RECALL_FACT_TYPES
from hindsight_api.models import RequestContext
logger = logging.getLogger(__name__)
@dataclass
class MCPToolsConfig:
"""Configuration for MCP tools registration."""
# How to resolve bank_id for operations
bank_id_resolver: Callable[[], str | None]
# Whether to include bank_id as a parameter on tools (for multi-bank support)
include_bank_id_param: bool = False
# Which tools to register
tools: set[str] | None = None # None means all tools
# Custom descriptions (if None, uses defaults)
retain_description: str | None = None
recall_description: str | None = None
# Retain behavior
retain_fire_and_forget: bool = False # If True, use asyncio.create_task pattern
def parse_timestamp(timestamp: str) -> datetime | None:
"""Parse an ISO format timestamp string.
Args:
timestamp: ISO format timestamp (e.g., '2024-01-15T10:30:00Z')
Returns:
Parsed datetime or None if invalid
Raises:
ValueError: If timestamp format is invalid
"""
try:
return datetime.fromisoformat(timestamp.replace("Z", "+00:00"))
except ValueError as e:
raise ValueError(
f"Invalid timestamp format '{timestamp}'. "
"Expected ISO format like '2024-01-15T10:30:00' or '2024-01-15T10:30:00Z'"
) from e
def build_content_dict(
content: str,
context: str,
timestamp: str | None = None,
) -> tuple[dict[str, Any], str | None]:
"""Build a content dict for retain operations.
Args:
content: The memory content
context: Category for the memory
timestamp: Optional ISO timestamp
Returns:
Tuple of (content_dict, error_message). error_message is None if successful.
"""
content_dict: dict[str, Any] = {"content": content, "context": context}
if timestamp:
try:
parsed_timestamp = parse_timestamp(timestamp)
content_dict["event_date"] = parsed_timestamp
except ValueError as e:
return {}, str(e)
return content_dict, None
def register_mcp_tools(
mcp: FastMCP,
memory: MemoryEngine,
config: MCPToolsConfig,
) -> None:
"""Register MCP tools on a FastMCP server.
Args:
mcp: FastMCP server instance
memory: MemoryEngine instance
config: Tool configuration
"""
tools_to_register = config.tools or {"retain", "recall", "reflect", "list_banks", "create_bank"}
if "retain" in tools_to_register:
_register_retain(mcp, memory, config)
if "recall" in tools_to_register:
_register_recall(mcp, memory, config)
if "reflect" in tools_to_register:
_register_reflect(mcp, memory, config)
if "list_banks" in tools_to_register:
_register_list_banks(mcp, memory, config)
if "create_bank" in tools_to_register:
_register_create_bank(mcp, memory, config)
def _register_retain(mcp: FastMCP, memory: MemoryEngine, config: MCPToolsConfig) -> None:
"""Register the retain tool."""
description = config.retain_description or DEFAULT_MCP_RETAIN_DESCRIPTION
if config.include_bank_id_param:
if config.retain_fire_and_forget:
@mcp.tool(description=description)
async def retain(
content: str,
context: str = "general",
timestamp: str | None = None,
bank_id: str | None = None,
) -> dict:
"""
Args:
content: The fact/memory to store (be specific and include relevant details)
context: Category for the memory (e.g., 'preferences', 'work', 'hobbies', 'family'). Default: 'general'
timestamp: When this event/fact occurred (ISO format, e.g., '2024-01-15T10:30:00Z'). Useful for timeline tracking.
bank_id: Optional bank to store in (defaults to session bank). Use for cross-bank operations.
"""
import asyncio
target_bank = bank_id or config.bank_id_resolver()
if target_bank is None:
return {"status": "error", "message": "No bank_id configured"}
content_dict, error = build_content_dict(content, context, timestamp)
if error:
return {"status": "error", "message": error}
async def _retain():
try:
await memory.retain_batch_async(
bank_id=target_bank,
contents=[content_dict],
request_context=RequestContext(),
)
except Exception as e:
logger.error(f"Error storing memory: {e}", exc_info=True)
asyncio.create_task(_retain())
return {"status": "accepted", "message": "Memory storage initiated"}
else:
@mcp.tool(description=description)
async def retain(
content: str,
context: str = "general",
timestamp: str | None = None,
async_processing: bool = True,
bank_id: str | None = None,
) -> str:
"""
Args:
content: The fact/memory to store (be specific and include relevant details)
context: Category for the memory (e.g., 'preferences', 'work', 'hobbies', 'family'). Default: 'general'
timestamp: When this event/fact occurred (ISO format, e.g., '2024-01-15T10:30:00Z'). Useful for timeline tracking.
async_processing: If True, queue for background processing and return immediately. If False, wait for completion. Default: True
bank_id: Optional bank to store in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or config.bank_id_resolver()
if target_bank is None:
return "Error: No bank_id configured"
content_dict, error = build_content_dict(content, context, timestamp)
if error:
return f"Error: {error}"
contents = [content_dict]
if async_processing:
result = await memory.submit_async_retain(
bank_id=target_bank, contents=contents, request_context=RequestContext()
)
return f"Memory queued for background processing (operation_id: {result.get('operation_id', 'N/A')})"
else:
await memory.retain_batch_async(
bank_id=target_bank,
contents=contents,
request_context=RequestContext(),
)
return f"Memory stored successfully in bank '{target_bank}'"
except Exception as e:
logger.error(f"Error storing memory: {e}", exc_info=True)
return f"Error: {str(e)}"
else:
# No bank_id param - use fixed bank from resolver
@mcp.tool(description=description)
async def retain(
content: str,
context: str = "general",
timestamp: str | None = None,
) -> dict:
"""
Args:
content: The fact/memory to store (be specific and include relevant details)
context: Category for the memory (e.g., 'preferences', 'work', 'hobbies', 'family'). Default: 'general'
timestamp: When this event/fact occurred (ISO format, e.g., '2024-01-15T10:30:00Z'). Useful for timeline tracking.
"""
import asyncio
target_bank = config.bank_id_resolver()
if target_bank is None:
return {"status": "error", "message": "No bank_id configured"}
content_dict, error = build_content_dict(content, context, timestamp)
if error:
return {"status": "error", "message": error}
async def _retain():
try:
await memory.retain_batch_async(
bank_id=target_bank,
contents=[content_dict],
request_context=RequestContext(),
)
except Exception as e:
logger.error(f"Error storing memory: {e}", exc_info=True)
asyncio.create_task(_retain())
return {"status": "accepted", "message": "Memory storage initiated"}
def _register_recall(mcp: FastMCP, memory: MemoryEngine, config: MCPToolsConfig) -> None:
"""Register the recall tool."""
description = config.recall_description or DEFAULT_MCP_RECALL_DESCRIPTION
if config.include_bank_id_param:
@mcp.tool(description=description)
async def recall(
query: str,
max_tokens: int = 4096,
bank_id: str | None = None,
) -> str | dict:
"""
Args:
query: Natural language search query (e.g., "user's food preferences", "what projects is user working on")
max_tokens: Maximum tokens to return in results (default: 4096)
bank_id: Optional bank to search in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or config.bank_id_resolver()
if target_bank is None:
return "Error: No bank_id configured"
recall_result = await memory.recall_async(
bank_id=target_bank,
query=query,
fact_type=list(VALID_RECALL_FACT_TYPES),
budget=Budget.HIGH,
max_tokens=max_tokens,
request_context=RequestContext(),
)
return recall_result.model_dump_json(indent=2)
except Exception as e:
logger.error(f"Error searching: {e}", exc_info=True)
return f'{{"error": "{e}", "results": []}}'
else:
@mcp.tool(description=description)
async def recall(
query: str,
max_tokens: int = 4096,
) -> dict:
"""
Args:
query: Natural language search query (e.g., "user's food preferences", "what projects is user working on")
max_tokens: Maximum tokens to return in results (default: 4096)
"""
try:
target_bank = config.bank_id_resolver()
if target_bank is None:
return {"error": "No bank_id configured", "results": []}
recall_result = await memory.recall_async(
bank_id=target_bank,
query=query,
fact_type=list(VALID_RECALL_FACT_TYPES),
budget=Budget.HIGH,
max_tokens=max_tokens,
request_context=RequestContext(),
)
return recall_result.model_dump()
except Exception as e:
logger.error(f"Error searching: {e}", exc_info=True)
return {"error": str(e), "results": []}
def _register_reflect(mcp: FastMCP, memory: MemoryEngine, config: MCPToolsConfig) -> None:
"""Register the reflect tool."""
if config.include_bank_id_param:
@mcp.tool()
async def reflect(
query: str,
context: str | None = None,
budget: str = "low",
bank_id: str | None = None,
) -> str:
"""
Generate thoughtful analysis by synthesizing stored memories with the bank's personality.
WHEN TO USE THIS TOOL:
Use reflect when you need reasoned analysis, not just fact retrieval. This tool
thinks through the question using everything the bank knows and its personality traits.
EXAMPLES OF GOOD QUERIES:
- "What patterns have emerged in how I approach debugging?"
- "Based on my past decisions, what architectural style do I prefer?"
- "What might be the best approach for this problem given what you know about me?"
- "How should I prioritize these tasks based on my goals?"
HOW IT DIFFERS FROM RECALL:
- recall: Returns raw facts matching your search (fast lookup)
- reflect: Reasons across memories to form a synthesized answer (deeper analysis)
Use recall for "what did I say about X?" and reflect for "what should I do about X?"
Args:
query: The question or topic to reflect on
context: Optional context about why this reflection is needed
budget: Search budget - 'low', 'mid', or 'high' (default: 'low')
bank_id: Optional bank to reflect in (defaults to session bank). Use for cross-bank operations.
"""
try:
target_bank = bank_id or config.bank_id_resolver()
if target_bank is None:
return "Error: No bank_id configured"
budget_map = {"low": Budget.LOW, "mid": Budget.MID, "high": Budget.HIGH}
budget_enum = budget_map.get(budget.lower(), Budget.LOW)
reflect_result = await memory.reflect_async(
bank_id=target_bank,
query=query,
budget=budget_enum,
context=context,
request_context=RequestContext(),
)
return reflect_result.model_dump_json(indent=2)
except Exception as e:
logger.error(f"Error reflecting: {e}", exc_info=True)
return f'{{"error": "{e}", "text": ""}}'
else:
@mcp.tool()
async def reflect(
query: str,
context: str | None = None,
budget: str = "low",
) -> dict:
"""
Generate thoughtful analysis by synthesizing stored memories with the bank's personality.
WHEN TO USE THIS TOOL:
Use reflect when you need reasoned analysis, not just fact retrieval. This tool
thinks through the question using everything the bank knows and its personality traits.
EXAMPLES OF GOOD QUERIES:
- "What patterns have emerged in how I approach debugging?"
- "Based on my past decisions, what architectural style do I prefer?"
- "What might be the best approach for this problem given what you know about me?"
- "How should I prioritize these tasks based on my goals?"
HOW IT DIFFERS FROM RECALL:
- recall: Returns raw facts matching your search (fast lookup)
- reflect: Reasons across memories to form a synthesized answer (deeper analysis)
Use recall for "what did I say about X?" and reflect for "what should I do about X?"
Args:
query: The question or topic to reflect on
context: Optional context about why this reflection is needed
budget: Search budget - 'low', 'mid', or 'high' (default: 'low')
"""
try:
target_bank = config.bank_id_resolver()
if target_bank is None:
return {"error": "No bank_id configured", "text": ""}
budget_map = {"low": Budget.LOW, "mid": Budget.MID, "high": Budget.HIGH}
budget_enum = budget_map.get(budget.lower(), Budget.LOW)
reflect_result = await memory.reflect_async(
bank_id=target_bank,
query=query,
budget=budget_enum,
context=context,
request_context=RequestContext(),
)
return reflect_result.model_dump()
except Exception as e:
logger.error(f"Error reflecting: {e}", exc_info=True)
return {"error": str(e), "text": ""}
def _register_list_banks(mcp: FastMCP, memory: MemoryEngine, config: MCPToolsConfig) -> None:
"""Register the list_banks tool."""
@mcp.tool()
async def list_banks() -> str:
"""
List all available memory banks.
Use this tool to discover what memory banks exist in the system.
Each bank is an isolated memory store (like a separate "brain").
Returns:
JSON list of banks with their IDs, names, dispositions, and missions.
"""
try:
banks = await memory.list_banks(request_context=RequestContext())
return json.dumps({"banks": banks}, indent=2)
except Exception as e:
logger.error(f"Error listing banks: {e}", exc_info=True)
return f'{{"error": "{e}", "banks": []}}'
def _register_create_bank(mcp: FastMCP, memory: MemoryEngine, config: MCPToolsConfig) -> None:
"""Register the create_bank tool."""
@mcp.tool()
async def create_bank(bank_id: str, name: str | None = None, mission: str | None = None) -> str:
"""
Create a new memory bank or get an existing one.
Memory banks are isolated stores - each one is like a separate "brain" for a user/agent.
Banks are auto-created with default settings if they don't exist.
Args:
bank_id: Unique identifier for the bank (e.g., 'user-123', 'agent-alpha')
name: Optional human-friendly name for the bank
mission: Optional mission describing who the agent is and what they're trying to accomplish
"""
try:
# get_bank_profile auto-creates bank if it doesn't exist
profile = await memory.get_bank_profile(bank_id, request_context=RequestContext())
# Update name/mission if provided
if name is not None or mission is not None:
await memory.update_bank(
bank_id,
name=name,
mission=mission,
request_context=RequestContext(),
)
# Fetch updated profile
profile = await memory.get_bank_profile(bank_id, request_context=RequestContext())
# Serialize disposition if it's a Pydantic model
if "disposition" in profile and hasattr(profile["disposition"], "model_dump"):
profile["disposition"] = profile["disposition"].model_dump()
return json.dumps(profile, indent=2)
except Exception as e:
logger.error(f"Error creating bank: {e}", exc_info=True)
return f'{{"error": "{e}"}}'
+2
View File
@@ -95,6 +95,7 @@ class MemoryUnit(Base):
mentioned_at: Mapped[datetime | None] = mapped_column(TIMESTAMP(timezone=True)) # When fact was mentioned
fact_type: Mapped[str] = mapped_column(Text, nullable=False, server_default="world")
confidence_score: Mapped[float | None] = mapped_column(Float)
access_count: Mapped[int] = mapped_column(Integer, server_default="0")
unit_metadata: Mapped[dict] = mapped_column(
"metadata", JSONB, server_default=sql_text("'{}'::jsonb")
) # User-defined metadata (str->str)
@@ -130,6 +131,7 @@ class MemoryUnit(Base):
Index("idx_memory_units_document_id", "document_id"),
Index("idx_memory_units_event_date", "event_date", postgresql_ops={"event_date": "DESC"}),
Index("idx_memory_units_bank_date", "bank_id", "event_date", postgresql_ops={"event_date": "DESC"}),
Index("idx_memory_units_access_count", "access_count", postgresql_ops={"access_count": "DESC"}),
Index("idx_memory_units_fact_type", "fact_type"),
Index("idx_memory_units_bank_fact_type", "bank_id", "fact_type"),
Index(
@@ -1,11 +0,0 @@
"""
Worker package for distributed task processing.
This package provides:
- WorkerPoller: Polls PostgreSQL for pending tasks and executes them
- main: CLI entry point for hindsight-worker
"""
from .poller import WorkerPoller
__all__ = ["WorkerPoller"]
-296
View File
@@ -1,296 +0,0 @@
"""
Command-line interface for Hindsight Worker.
Run the worker with:
hindsight-worker
Stop with Ctrl+C (graceful shutdown).
"""
import argparse
import asyncio
import atexit
import logging
import os
import signal
import socket
import sys
import warnings
from ..config import get_config
from ..engine.task_backend import SyncTaskBackend
from .poller import WorkerPoller
# Filter deprecation warnings from third-party libraries
warnings.filterwarnings("ignore", message="websockets.legacy is deprecated")
warnings.filterwarnings("ignore", message="websockets.server.WebSocketServerProtocol is deprecated")
# Disable tokenizers parallelism to avoid warnings
os.environ["TOKENIZERS_PARALLELISM"] = "false"
logger = logging.getLogger(__name__)
def create_worker_app(poller: WorkerPoller, memory):
"""Create a minimal FastAPI app for worker metrics and health."""
from fastapi import FastAPI
from fastapi.responses import JSONResponse, Response
from prometheus_client import CONTENT_TYPE_LATEST, generate_latest
from ..metrics import create_metrics_collector, get_metrics_collector, initialize_metrics
app = FastAPI(
title="Hindsight Worker",
description="Worker process for distributed task execution",
)
# Initialize OpenTelemetry metrics
try:
prometheus_reader = initialize_metrics(service_name="hindsight-worker", service_version="1.0.0")
create_metrics_collector()
app.state.prometheus_reader = prometheus_reader
logger.info("Metrics initialized - available at /metrics endpoint")
except Exception as e:
logger.warning(f"Failed to initialize metrics: {e}. Metrics will be disabled.")
app.state.prometheus_reader = None
# Set up DB pool metrics if available
metrics_collector = get_metrics_collector()
if memory._pool is not None and hasattr(metrics_collector, "set_db_pool"):
metrics_collector.set_db_pool(memory._pool)
logger.info("DB pool metrics configured")
@app.get(
"/health",
summary="Health check endpoint",
description="Returns worker health status including database connectivity",
tags=["Monitoring"],
)
async def health_endpoint():
"""Health check endpoint."""
health = await memory.health_check()
health["worker_id"] = poller.worker_id
health["is_shutdown"] = poller.is_shutdown
status_code = 200 if health.get("status") == "healthy" else 503
return JSONResponse(content=health, status_code=status_code)
@app.get(
"/metrics",
summary="Prometheus metrics endpoint",
description="Exports metrics in Prometheus format for scraping",
tags=["Monitoring"],
)
async def metrics_endpoint():
"""Return Prometheus metrics."""
metrics_data = generate_latest()
return Response(content=metrics_data, media_type=CONTENT_TYPE_LATEST)
@app.get(
"/",
summary="Worker info",
description="Basic worker information",
tags=["Info"],
)
async def root():
"""Return basic worker info."""
return {
"service": "hindsight-worker",
"worker_id": poller.worker_id,
"is_shutdown": poller.is_shutdown,
}
return app
def main():
"""Main entry point for the hindsight-worker CLI."""
# Load configuration from environment
config = get_config()
parser = argparse.ArgumentParser(
prog="hindsight-worker",
description="Hindsight Worker - distributed task processor",
)
# Worker options
parser.add_argument(
"--worker-id",
default=config.worker_id or socket.gethostname(),
help="Worker identifier (default: hostname, env: HINDSIGHT_API_WORKER_ID)",
)
parser.add_argument(
"--poll-interval",
type=int,
default=config.worker_poll_interval_ms,
help=f"Poll interval in milliseconds (default: {config.worker_poll_interval_ms}, env: HINDSIGHT_API_WORKER_POLL_INTERVAL_MS)",
)
parser.add_argument(
"--batch-size",
type=int,
default=config.worker_batch_size,
help=f"Tasks to claim per poll (default: {config.worker_batch_size}, env: HINDSIGHT_API_WORKER_BATCH_SIZE)",
)
parser.add_argument(
"--max-retries",
type=int,
default=config.worker_max_retries,
help=f"Max retries before marking failed (default: {config.worker_max_retries}, env: HINDSIGHT_API_WORKER_MAX_RETRIES)",
)
# HTTP server options
parser.add_argument(
"--http-port",
type=int,
default=config.worker_http_port,
help=f"HTTP port for metrics/health endpoints (default: {config.worker_http_port}, env: HINDSIGHT_API_WORKER_HTTP_PORT)",
)
parser.add_argument(
"--http-host",
default="0.0.0.0",
help="HTTP host to bind (default: 0.0.0.0)",
)
# Logging options
parser.add_argument(
"--log-level",
default=config.log_level,
choices=["critical", "error", "warning", "info", "debug", "trace"],
help=f"Log level (default: {config.log_level}, env: HINDSIGHT_API_LOG_LEVEL)",
)
args = parser.parse_args()
# Configure logging
config.configure_logging()
# Import MemoryEngine here to avoid circular imports
from .. import MemoryEngine
print(f"Starting Hindsight Worker: {args.worker_id}")
print(f" Poll interval: {args.poll_interval}ms")
print(f" Batch size: {args.batch_size}")
print(f" Max retries: {args.max_retries}")
print(f" HTTP server: {args.http_host}:{args.http_port}")
print()
# Global references for cleanup
memory = None
poller = None
async def run():
nonlocal memory, poller
import uvicorn
from ..extensions import TenantExtension, load_extension
# Initialize MemoryEngine
# Workers use SyncTaskBackend because they execute tasks directly,
# they don't need to store tasks (they poll from DB)
memory = MemoryEngine(
run_migrations=False, # Workers don't run migrations
task_backend=SyncTaskBackend(),
)
await memory.initialize()
print(f"Database connected: {config.database_url}")
# Load tenant extension for dynamic schema discovery
tenant_extension = load_extension("TENANT", TenantExtension)
if tenant_extension:
print("Tenant extension loaded - schemas will be discovered dynamically on each poll")
else:
print("No tenant extension configured, using public schema only")
# Create a single poller that handles all schemas dynamically
poller = WorkerPoller(
pool=memory._pool,
worker_id=args.worker_id,
executor=memory.execute_task,
poll_interval_ms=args.poll_interval,
batch_size=args.batch_size,
max_retries=args.max_retries,
tenant_extension=tenant_extension,
)
# Create the HTTP app for metrics/health
app = create_worker_app(poller, memory)
# Setup signal handlers for graceful shutdown
shutdown_requested = asyncio.Event()
def signal_handler(signum, frame):
print(f"\nReceived signal {signum}, initiating graceful shutdown...")
shutdown_requested.set()
signal.signal(signal.SIGINT, signal_handler)
signal.signal(signal.SIGTERM, signal_handler)
# Create uvicorn config and server
uvicorn_config = uvicorn.Config(
app,
host=args.http_host,
port=args.http_port,
log_level="info", # Reduce uvicorn noise
access_log=False,
)
server = uvicorn.Server(uvicorn_config)
# Run the poller and HTTP server concurrently
poller_task = asyncio.create_task(poller.run())
http_task = asyncio.create_task(server.serve())
print(f"Worker started. Metrics available at http://{args.http_host}:{args.http_port}/metrics")
# Wait for shutdown signal
await shutdown_requested.wait()
# Graceful shutdown
print("Shutting down HTTP server...")
server.should_exit = True
print("Waiting for poller to finish...")
await poller.shutdown_graceful(timeout=30.0)
poller_task.cancel()
try:
await poller_task
except asyncio.CancelledError:
pass
# Wait for HTTP server to finish
try:
await asyncio.wait_for(http_task, timeout=5.0)
except asyncio.TimeoutError:
http_task.cancel()
try:
await http_task
except asyncio.CancelledError:
pass
# Close memory engine
await memory.close()
print("Worker shutdown complete")
def cleanup():
"""Synchronous cleanup for atexit."""
if memory is not None and memory._pg0 is not None:
try:
loop = asyncio.new_event_loop()
loop.run_until_complete(memory._pg0.stop())
loop.close()
print("\npg0 stopped.")
except Exception as e:
print(f"\nError stopping pg0: {e}")
atexit.register(cleanup)
try:
asyncio.run(run())
except KeyboardInterrupt:
print("\nWorker interrupted")
sys.exit(0)
if __name__ == "__main__":
main()
@@ -1,486 +0,0 @@
"""
Worker poller for distributed task execution.
Polls PostgreSQL for pending tasks and executes them using
FOR UPDATE SKIP LOCKED for safe concurrent claiming.
"""
import asyncio
import json
import logging
import time
import traceback
from collections.abc import Awaitable, Callable
from dataclasses import dataclass
from typing import TYPE_CHECKING, Any
if TYPE_CHECKING:
import asyncpg
from hindsight_api.extensions.tenant import TenantExtension
logger = logging.getLogger(__name__)
# Progress logging interval in seconds
PROGRESS_LOG_INTERVAL = 30
def fq_table(table: str, schema: str | None = None) -> str:
"""Get fully-qualified table name with optional schema prefix."""
if schema:
return f'"{schema}".{table}'
return table
@dataclass
class ClaimedTask:
"""A task claimed from the database with its schema context."""
operation_id: str
task_dict: dict[str, Any]
schema: str | None
class WorkerPoller:
"""
Polls PostgreSQL for pending tasks and executes them.
Uses FOR UPDATE SKIP LOCKED for safe distributed claiming,
allowing multiple workers to process tasks without conflicts.
Supports dynamic multi-tenant discovery via tenant_extension.
"""
def __init__(
self,
pool: "asyncpg.Pool",
worker_id: str,
executor: Callable[[dict[str, Any]], Awaitable[None]],
poll_interval_ms: int = 500,
batch_size: int = 10,
max_retries: int = 3,
schema: str | None = None,
tenant_extension: "TenantExtension | None" = None,
):
"""
Initialize the worker poller.
Args:
pool: asyncpg connection pool
worker_id: Unique identifier for this worker
executor: Async function to execute tasks (typically MemoryEngine.execute_task)
poll_interval_ms: Interval between polls when no tasks found (milliseconds)
batch_size: Maximum number of tasks to claim per poll cycle
max_retries: Maximum retry attempts before marking task as failed
schema: Database schema for single-tenant support (ignored if tenant_extension is set)
tenant_extension: Extension for dynamic multi-tenant discovery. If set, list_tenants()
is called on each poll cycle to discover schemas dynamically.
"""
self._pool = pool
self._worker_id = worker_id
self._executor = executor
self._poll_interval_ms = poll_interval_ms
self._batch_size = batch_size
self._max_retries = max_retries
self._schema = schema
self._tenant_extension = tenant_extension
self._shutdown = asyncio.Event()
self._current_tasks: set[asyncio.Task] = set()
self._in_flight_count = 0
self._in_flight_lock = asyncio.Lock()
self._last_progress_log = 0.0
self._tasks_completed_since_log = 0
# Track active tasks locally: operation_id -> (op_type, bank_id, schema)
self._active_tasks: dict[str, tuple[str, str, str | None]] = {}
async def _get_schemas(self) -> list[str | None]:
"""Get list of schemas to poll. Returns [None] for public schema."""
if self._tenant_extension is not None:
tenants = await self._tenant_extension.list_tenants()
# Convert "public" to None for SQL compatibility, keep others as-is
return [t.schema if t.schema != "public" else None for t in tenants]
# Single schema mode
return [self._schema]
async def claim_batch(self) -> list[ClaimedTask]:
"""
Claim up to batch_size pending tasks atomically across all tenant schemas.
Uses FOR UPDATE SKIP LOCKED to ensure no conflicts with other workers.
For consolidation tasks specifically, skips pending tasks if there's already
a processing consolidation for the same bank (to avoid duplicate work).
If tenant_extension is configured, dynamically discovers schemas on each call.
Returns:
List of ClaimedTask objects containing operation_id, task_dict, and schema
"""
schemas = await self._get_schemas()
all_tasks: list[ClaimedTask] = []
remaining_batch = self._batch_size
for schema in schemas:
if remaining_batch <= 0:
break
tasks = await self._claim_batch_for_schema(schema, remaining_batch)
all_tasks.extend(tasks)
remaining_batch -= len(tasks)
return all_tasks
async def _claim_batch_for_schema(self, schema: str | None, limit: int) -> list[ClaimedTask]:
"""Claim tasks from a specific schema."""
table = fq_table("async_operations", schema)
async with self._pool.acquire() as conn:
async with conn.transaction():
# Select and lock pending tasks
# For consolidation: skip if same bank already has one processing
rows = await conn.fetch(
f"""
SELECT operation_id, task_payload
FROM {table} AS pending
WHERE status = 'pending' AND task_payload IS NOT NULL
AND (
-- Non-consolidation tasks: always claimable
operation_type != 'consolidation'
OR
-- Consolidation: only if no other consolidation processing for same bank
NOT EXISTS (
SELECT 1 FROM {table} AS processing
WHERE processing.bank_id = pending.bank_id
AND processing.operation_type = 'consolidation'
AND processing.status = 'processing'
)
)
ORDER BY created_at
LIMIT $1
FOR UPDATE SKIP LOCKED
""",
limit,
)
if not rows:
return []
# Claim the tasks by updating status and worker_id
operation_ids = [row["operation_id"] for row in rows]
await conn.execute(
f"""
UPDATE {table}
SET status = 'processing', worker_id = $1, claimed_at = now(), updated_at = now()
WHERE operation_id = ANY($2)
""",
self._worker_id,
operation_ids,
)
# Parse and return task payloads with schema context
return [
ClaimedTask(
operation_id=str(row["operation_id"]),
task_dict=json.loads(row["task_payload"]),
schema=schema,
)
for row in rows
]
async def _mark_completed(self, operation_id: str, schema: str | None):
"""Mark a task as completed."""
table = fq_table("async_operations", schema)
await self._pool.execute(
f"""
UPDATE {table}
SET status = 'completed', completed_at = now(), updated_at = now()
WHERE operation_id = $1
""",
operation_id,
)
async def _mark_failed(self, operation_id: str, error_message: str, schema: str | None):
"""Mark a task as failed with error message."""
table = fq_table("async_operations", schema)
# Truncate error message if too long (max 5000 chars in schema)
error_message = error_message[:5000] if len(error_message) > 5000 else error_message
await self._pool.execute(
f"""
UPDATE {table}
SET status = 'failed', error_message = $2, completed_at = now(), updated_at = now()
WHERE operation_id = $1
""",
operation_id,
error_message,
)
async def _retry_or_fail(self, operation_id: str, error_message: str, schema: str | None):
"""Increment retry count or mark as failed if max retries exceeded."""
table = fq_table("async_operations", schema)
# Get current retry count
row = await self._pool.fetchrow(
f"SELECT retry_count FROM {table} WHERE operation_id = $1",
operation_id,
)
if row is None:
logger.warning(f"Operation {operation_id} not found, cannot retry")
return
retry_count = row["retry_count"]
if retry_count >= self._max_retries:
# Max retries exceeded, mark as failed
await self._mark_failed(
operation_id, f"Max retries ({self._max_retries}) exceeded. Last error: {error_message}", schema
)
logger.error(f"Task {operation_id} failed after {retry_count} retries")
else:
# Increment retry and reset to pending
await self._pool.execute(
f"""
UPDATE {table}
SET status = 'pending', worker_id = NULL, claimed_at = NULL,
retry_count = retry_count + 1, updated_at = now()
WHERE operation_id = $1
""",
operation_id,
)
logger.warning(f"Task {operation_id} failed, will retry (attempt {retry_count + 1}/{self._max_retries})")
async def execute_task(self, task: ClaimedTask):
"""Execute a single task and update its status."""
task_type = task.task_dict.get("type", "unknown")
bank_id = task.task_dict.get("bank_id", "unknown")
# Track this task as active
async with self._in_flight_lock:
self._active_tasks[task.operation_id] = (task_type, bank_id, task.schema)
try:
schema_info = f", schema={task.schema}" if task.schema else ""
logger.debug(f"Executing task {task.operation_id} (type={task_type}, bank={bank_id}{schema_info})")
# Pass schema to executor so it can set the correct context
if task.schema:
task.task_dict["_schema"] = task.schema
await self._executor(task.task_dict)
await self._mark_completed(task.operation_id, task.schema)
logger.debug(f"Task {task.operation_id} completed successfully")
except Exception as e:
error_msg = f"{type(e).__name__}: {e}\n{traceback.format_exc()}"
logger.error(f"Task {task.operation_id} failed: {e}")
await self._retry_or_fail(task.operation_id, error_msg, task.schema)
finally:
# Remove from active tasks
async with self._in_flight_lock:
self._active_tasks.pop(task.operation_id, None)
async def recover_own_tasks(self) -> int:
"""
Recover tasks that were assigned to this worker but not completed.
This handles the case where a worker crashes while processing tasks.
On startup, we reset any tasks stuck in 'processing' for this worker_id
back to 'pending' so they can be picked up again.
If tenant_extension is configured, recovers across all tenant schemas.
Returns:
Number of tasks recovered
"""
schemas = await self._get_schemas()
total_count = 0
for schema in schemas:
table = fq_table("async_operations", schema)
result = await self._pool.execute(
f"""
UPDATE {table}
SET status = 'pending', worker_id = NULL, claimed_at = NULL, updated_at = now()
WHERE status = 'processing' AND worker_id = $1
""",
self._worker_id,
)
# Parse "UPDATE N" to get count
count = int(result.split()[-1]) if result else 0
total_count += count
if total_count > 0:
logger.info(f"Worker {self._worker_id} recovered {total_count} stale tasks from previous run")
return total_count
async def run(self):
"""
Main polling loop.
Continuously polls for pending tasks, claims them, and executes them
until shutdown is signaled.
If tenant_extension is configured, dynamically discovers schemas on each poll.
"""
# Recover any tasks from a previous crash before starting
await self.recover_own_tasks()
logger.info(f"Worker {self._worker_id} starting polling loop")
while not self._shutdown.is_set():
try:
# Claim a batch of tasks (across all tenant schemas if configured)
tasks = await self.claim_batch()
if tasks:
# Log batch info
task_types: dict[str, int] = {}
schemas_seen: set[str | None] = set()
for task in tasks:
t = task.task_dict.get("type", "unknown")
task_types[t] = task_types.get(t, 0) + 1
schemas_seen.add(task.schema)
types_str = ", ".join(f"{k}:{v}" for k, v in task_types.items())
schemas_str = ", ".join(s or "public" for s in schemas_seen)
logger.info(
f"Worker {self._worker_id} claimed {len(tasks)} tasks: {types_str} (schemas: {schemas_str})"
)
# Track in-flight tasks
async with self._in_flight_lock:
self._in_flight_count += len(tasks)
# Execute tasks concurrently
try:
await asyncio.gather(
*[self.execute_task(task) for task in tasks],
return_exceptions=True,
)
finally:
async with self._in_flight_lock:
self._in_flight_count -= len(tasks)
else:
# No tasks found, wait before polling again
try:
await asyncio.wait_for(
self._shutdown.wait(),
timeout=self._poll_interval_ms / 1000,
)
except asyncio.TimeoutError:
pass # Normal timeout, continue polling
# Log progress stats periodically
await self._log_progress_if_due()
except asyncio.CancelledError:
logger.info(f"Worker {self._worker_id} polling loop cancelled")
break
except Exception as e:
logger.error(f"Worker {self._worker_id} error in polling loop: {e}")
traceback.print_exc()
# Backoff on error
await asyncio.sleep(1)
logger.info(f"Worker {self._worker_id} polling loop stopped")
async def shutdown_graceful(self, timeout: float = 30.0):
"""
Signal shutdown and wait for current tasks to complete.
Args:
timeout: Maximum time to wait for in-flight tasks (seconds)
"""
logger.info(f"Worker {self._worker_id} initiating graceful shutdown")
self._shutdown.set()
# Wait for in-flight tasks to complete
start_time = asyncio.get_event_loop().time()
while asyncio.get_event_loop().time() - start_time < timeout:
async with self._in_flight_lock:
in_flight = self._in_flight_count
if in_flight == 0:
logger.info(f"Worker {self._worker_id} graceful shutdown complete")
return
logger.info(f"Worker {self._worker_id} waiting for {in_flight} in-flight tasks")
await asyncio.sleep(0.5)
logger.warning(f"Worker {self._worker_id} shutdown timeout after {timeout}s")
async def _log_progress_if_due(self):
"""Log progress stats every PROGRESS_LOG_INTERVAL seconds."""
now = time.time()
if now - self._last_progress_log < PROGRESS_LOG_INTERVAL:
return
self._last_progress_log = now
try:
# Get local active tasks (this worker only)
async with self._in_flight_lock:
in_flight = self._in_flight_count
active_tasks = dict(self._active_tasks) # Copy to avoid holding lock
# Build local processing breakdown grouped by (op_type, bank_id)
task_groups: dict[tuple[str, str], int] = {}
for op_type, bank_id, _ in active_tasks.values():
key = (op_type, bank_id)
task_groups[key] = task_groups.get(key, 0) + 1
processing_info = [f"{op}:{bank}({cnt})" for (op, bank), cnt in task_groups.items()]
processing_str = ", ".join(processing_info[:10]) if processing_info else "none"
if len(processing_info) > 10:
processing_str += f" +{len(processing_info) - 10} more"
# Get global stats from DB across all schemas
schemas = await self._get_schemas()
global_pending = 0
all_worker_counts: dict[str, int] = {}
async with self._pool.acquire() as conn:
for schema in schemas:
table = fq_table("async_operations", schema)
row = await conn.fetchrow(f"SELECT COUNT(*) as count FROM {table} WHERE status = 'pending'")
global_pending += row["count"] if row else 0
# Get processing breakdown by worker
worker_rows = await conn.fetch(
f"""
SELECT worker_id, COUNT(*) as count
FROM {table}
WHERE status = 'processing'
GROUP BY worker_id
"""
)
for wr in worker_rows:
wid = wr["worker_id"] or "unknown"
all_worker_counts[wid] = all_worker_counts.get(wid, 0) + wr["count"]
# Format other workers' processing counts
other_workers = []
for wid, cnt in all_worker_counts.items():
if wid != self._worker_id:
other_workers.append(f"{wid}:{cnt}")
others_str = ", ".join(other_workers) if other_workers else "none"
schemas_str = ", ".join(s or "public" for s in schemas)
logger.info(
f"[WORKER_STATS] worker={self._worker_id} in_flight={in_flight} | "
f"global: pending={global_pending} (schemas: {schemas_str}) | "
f"others: {others_str} | "
f"my_active: {processing_str}"
)
except Exception as e:
logger.debug(f"Failed to log progress stats: {e}")
@property
def worker_id(self) -> str:
"""Get the worker ID."""
return self._worker_id
@property
def is_shutdown(self) -> bool:
"""Check if shutdown has been signaled."""
return self._shutdown.is_set()
+6 -14
View File
@@ -25,7 +25,7 @@ dependencies = [
"psycopg2-binary>=2.9.11",
"tiktoken>=0.12.0",
"httpx>=0.27.0",
"fastmcp>=2.14.0", # CVE-2025-66416
"fastmcp>=2.3.0",
"pg0-embedded>=0.11.0",
"python-dateutil>=2.8.0",
"opentelemetry-api>=1.20.0",
@@ -39,17 +39,10 @@ dependencies = [
"cohere>=5.0.0",
"flashrank>=0.2.0",
# Local ML models for embeddings/reranking - can be excluded in Docker with INCLUDE_LOCAL_MODELS=false
"sentence-transformers>=3.3.0",
"transformers>=4.53.0", # Security fixes for ReDoS vulnerabilities
"torch>=2.6.0", # CVE fix for remote code execution
"sentence-transformers>=3.0.0,<3.3.0",
"transformers>=4.30.0,<4.46.0",
"torch>=2.0.0",
"uvloop>=0.22.1",
# Transitive dependency security fixes
"pyasn1>=0.6.2", # DoS vulnerability fix
"urllib3>=2.6.3", # Decompression-bomb safeguards bypass fix
"langchain-core>=1.2.5", # Serialization injection vulnerability fix
"filelock>=3.20.1", # TOCTOU race condition fix
"authlib>=1.6.6", # Account takeover vulnerability fix
"aiohttp>=3.13.3", # Multiple DoS vulnerabilities
]
[project.optional-dependencies]
@@ -58,12 +51,11 @@ test = [
"pytest-asyncio>=0.21.0",
"pytest-timeout>=2.4.0",
"pytest-xdist>=3.0.0",
"filelock>=3.20.1", # TOCTOU race condition fix
"filelock>=3.0.0",
]
[project.scripts]
hindsight-api = "hindsight_api.main:main"
hindsight-worker = "hindsight_api.worker.main:main"
hindsight-local-mcp = "hindsight_api.mcp_local:main"
hindsight-admin = "hindsight_api.admin.cli:main"
@@ -105,7 +97,7 @@ dev = [
"pytest-timeout>=2.4.0",
"pytest-xdist>=3.8.0",
"python-dotenv>=1.2.1",
"filelock>=3.20.1", # TOCTOU race condition fix
"filelock>=3.0.0",
"ruff>=0.8.0",
"ty>=0.0.1",
]
+4 -56
View File
@@ -12,7 +12,6 @@ from hindsight_api import MemoryEngine, LLMConfig, LocalSTEmbeddings, RequestCon
from hindsight_api.engine.cross_encoder import LocalSTCrossEncoder
from hindsight_api.engine.query_analyzer import DateparserQueryAnalyzer
from hindsight_api.engine.task_backend import SyncTaskBackend
from hindsight_api.pg0 import EmbeddedPostgres
# Default pg0 instance configuration for tests
@@ -116,65 +115,16 @@ def llm_config():
@pytest.fixture(scope="session")
def embeddings(tmp_path_factory, worker_id):
"""
Session-scoped embeddings fixture with filelock to prevent race conditions.
def embeddings():
When pytest-xdist runs multiple workers in parallel, they all try to load
models from the HuggingFace cache simultaneously, which can cause race
conditions and meta tensor errors. We use a filelock to serialize model
initialization across workers.
"""
# Get shared temp dir for coordination between xdist workers
if worker_id == "master":
root_tmp_dir = tmp_path_factory.getbasetemp()
else:
root_tmp_dir = tmp_path_factory.getbasetemp().parent
return LocalSTEmbeddings()
lock_file = root_tmp_dir / "embeddings_init.lock"
emb = LocalSTEmbeddings()
# Serialize model initialization across workers
with filelock.FileLock(str(lock_file)):
loop = asyncio.new_event_loop()
try:
loop.run_until_complete(emb.initialize())
finally:
loop.close()
return emb
@pytest.fixture(scope="session")
def cross_encoder(tmp_path_factory, worker_id):
"""
Session-scoped cross-encoder fixture with filelock to prevent race conditions.
def cross_encoder():
When pytest-xdist runs multiple workers in parallel, they all try to load
models from the HuggingFace cache simultaneously, which can cause race
conditions and meta tensor errors. We use a filelock to serialize model
initialization across workers.
"""
# Get shared temp dir for coordination between xdist workers
if worker_id == "master":
root_tmp_dir = tmp_path_factory.getbasetemp()
else:
root_tmp_dir = tmp_path_factory.getbasetemp().parent
lock_file = root_tmp_dir / "cross_encoder_init.lock"
ce = LocalSTCrossEncoder()
# Serialize model initialization across workers
with filelock.FileLock(str(lock_file)):
loop = asyncio.new_event_loop()
try:
loop.run_until_complete(ce.initialize())
finally:
loop.close()
return ce
return LocalSTCrossEncoder()
@pytest.fixture(scope="session")
def query_analyzer():
@@ -197,7 +147,6 @@ async def memory(pg0_db_url, embeddings, cross_encoder, query_analyzer):
Uses pg0_db_url (a postgresql:// URL) directly, so MemoryEngine won't try to
manage pg0 lifecycle - that's handled by the session-scoped pg0_db_url fixture.
Migrations are disabled here since they're run once at session scope in pg0_db_url.
Uses SyncTaskBackend so async tasks execute immediately (no worker needed).
"""
mem = MemoryEngine(
db_url=pg0_db_url, # Direct postgresql:// URL, not pg0://
@@ -211,7 +160,6 @@ async def memory(pg0_db_url, embeddings, cross_encoder, query_analyzer):
pool_min_size=1,
pool_max_size=5,
run_migrations=False, # Migrations already run at session scope
task_backend=SyncTaskBackend(), # Execute tasks immediately in tests
)
await mem.initialize()
yield mem
+110 -1
View File
@@ -1,5 +1,5 @@
"""
Tests for agent management API (profile, disposition).
Tests for agent management API (profile, disposition, background).
"""
import pytest
import uuid
@@ -25,12 +25,15 @@ class TestAgentProfile:
assert profile is not None
assert "disposition" in profile
assert "background" in profile
disposition = profile["disposition"]
assert disposition.skepticism == 3
assert disposition.literalism == 3
assert disposition.empathy == 3
assert profile["background"] == ""
@pytest.mark.asyncio
async def test_update_agent_disposition(self, memory: MemoryEngine, request_context):
"""Test updating agent disposition traits."""
@@ -73,10 +76,63 @@ class TestAgentProfile:
for agent in agents:
assert "bank_id" in agent
assert "disposition" in agent
assert "background" in agent
assert "created_at" in agent
assert "updated_at" in agent
class TestAgentBackground:
"""Tests for agent background management."""
@pytest.mark.asyncio
async def test_merge_agent_background(self, memory: MemoryEngine, request_context):
"""Test merging agent background information."""
bank_id = unique_agent_id("test_profile_merge")
profile = await memory.get_bank_profile(bank_id, request_context=request_context)
assert profile["background"] == ""
result1 = await memory.merge_bank_background(
bank_id,
"I was born in Texas",
update_disposition=False,
request_context=request_context,
)
assert "Texas" in result1["background"]
result2 = await memory.merge_bank_background(
bank_id,
"I have 10 years of startup experience",
update_disposition=False,
request_context=request_context,
)
assert "Texas" in result2["background"] or "startup" in result2["background"]
final_profile = await memory.get_bank_profile(bank_id, request_context=request_context)
assert final_profile["background"] != ""
@pytest.mark.asyncio
async def test_merge_background_handles_conflicts(self, memory: MemoryEngine, request_context):
"""Test that merging background handles conflicts (new overwrites old)."""
bank_id = unique_agent_id("test_profile_conflict")
result1 = await memory.merge_bank_background(
bank_id,
"I was born in Colorado",
update_disposition=False,
request_context=request_context,
)
assert "Colorado" in result1["background"]
result2 = await memory.merge_bank_background(
bank_id,
"You were born in Texas",
update_disposition=False,
request_context=request_context,
)
assert "Texas" in result2["background"]
class TestAgentEndpoint:
"""Tests for agent PUT endpoint logic."""
@@ -91,6 +147,7 @@ class TestAgentEndpoint:
literalism=5,
empathy=2
),
background="I am a creative software engineer"
)
profile = await memory.get_bank_profile(bank_id, request_context=request_context)
@@ -102,10 +159,55 @@ class TestAgentEndpoint:
request_context=request_context,
)
if request.background is not None:
pool = await memory._get_pool()
async with pool.acquire() as conn:
await conn.execute(
"""
UPDATE banks
SET background = $2,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
request.background
)
final_profile = await memory.get_bank_profile(bank_id, request_context=request_context)
assert final_profile["disposition"].skepticism == 4
assert final_profile["disposition"].literalism == 5
assert final_profile["background"] == "I am a creative software engineer"
@pytest.mark.asyncio
async def test_put_agent_partial_update(self, memory: MemoryEngine, request_context):
"""Test updating only background."""
bank_id = unique_agent_id("test_put_partial")
request = CreateBankRequest(
background="I am a data scientist"
)
profile = await memory.get_bank_profile(bank_id, request_context=request_context)
if request.background is not None:
pool = await memory._get_pool()
async with pool.acquire() as conn:
await conn.execute(
"""
UPDATE banks
SET background = $2,
updated_at = NOW()
WHERE bank_id = $1
""",
bank_id,
request.background
)
final_profile = await memory.get_bank_profile(bank_id, request_context=request_context)
assert final_profile["disposition"].skepticism == 3 # Default
assert final_profile["background"] == "I am a data scientist"
class TestAgentDispositionIntegration:
@@ -123,6 +225,13 @@ class TestAgentDispositionIntegration:
}
await memory.update_bank_disposition(bank_id, disposition, request_context=request_context)
await memory.merge_bank_background(
bank_id,
"I am a creative artist who values innovation over tradition",
update_disposition=False,
request_context=request_context,
)
await memory.retain_batch_async(
bank_id=bank_id,
contents=[
File diff suppressed because it is too large Load Diff
@@ -9,18 +9,17 @@ Includes tests for:
import asyncio
import os
from datetime import datetime
import pytest
from datetime import datetime
from sqlalchemy import create_engine, text
from hindsight_api import MemoryEngine, RequestContext
from hindsight_api.engine.cross_encoder import CohereCrossEncoder, LocalSTCrossEncoder
from hindsight_api.engine.embeddings import CohereEmbeddings, LocalSTEmbeddings, OpenAIEmbeddings
from hindsight_api.engine.embeddings import LocalSTEmbeddings, OpenAIEmbeddings, CohereEmbeddings
from hindsight_api.engine.cross_encoder import LocalSTCrossEncoder, CohereCrossEncoder
from hindsight_api.engine.query_analyzer import DateparserQueryAnalyzer
from hindsight_api.engine.task_backend import SyncTaskBackend
from hindsight_api.extensions import TenantContext, TenantExtension
from hindsight_api.migrations import ensure_embedding_dimension, run_migrations
from hindsight_api.extensions import TenantExtension, TenantContext
from hindsight_api.migrations import run_migrations, ensure_embedding_dimension
# =============================================================================
# Shared Utilities
@@ -36,11 +35,6 @@ class SchemaTenantExtension(TenantExtension):
async def authenticate(self, request_context: RequestContext) -> TenantContext:
return TenantContext(schema_name=self.schema_name)
async def list_tenants(self) -> list:
from hindsight_api.extensions.tenant import Tenant
return [Tenant(schema=self.schema_name)]
def get_test_schema(prefix: str, worker_id: str) -> str:
"""Get unique schema name per xdist worker."""
@@ -329,7 +323,6 @@ class TestOpenAIEmbeddings:
pool_max_size=3,
run_migrations=False,
tenant_extension=SchemaTenantExtension(schema_name),
task_backend=SyncTaskBackend(),
)
try:
@@ -399,7 +392,6 @@ class TestOpenAIEmbeddings:
pool_max_size=3,
run_migrations=False,
tenant_extension=SchemaTenantExtension(schema_name),
task_backend=SyncTaskBackend(),
)
try:
@@ -567,7 +559,6 @@ class TestCohereIntegration:
pool_max_size=3,
run_migrations=False,
tenant_extension=SchemaTenantExtension(schema_name),
task_backend=SyncTaskBackend(),
)
try:
+2 -17
View File
@@ -24,9 +24,6 @@ from hindsight_api.extensions import (
TenantExtension,
ValidationResult,
load_extension,
# Consolidation operation
ConsolidateContext,
ConsolidateResult,
)
@@ -131,18 +128,14 @@ class TrackingValidator(OperationValidatorExtension):
def __init__(self, config: dict):
super().__init__(config)
# Pre-hook tracking - Core operations
# Pre-hook tracking
self.pre_retain_calls: list[RetainContext] = []
self.pre_recall_calls: list[RecallContext] = []
self.pre_reflect_calls: list[ReflectContext] = []
# Post-hook tracking - Core operations
# Post-hook tracking
self.post_retain_calls: list[RetainResult] = []
self.post_recall_calls: list[RecallResult] = []
self.post_reflect_calls: list[ReflectResultContext] = []
# Pre-hook tracking - Consolidation
self.pre_consolidate_calls: list[ConsolidateContext] = []
# Post-hook tracking - Consolidation
self.post_consolidate_calls: list[ConsolidateResult] = []
async def validate_retain(self, ctx: RetainContext) -> ValidationResult:
self.pre_retain_calls.append(ctx)
@@ -165,14 +158,6 @@ class TrackingValidator(OperationValidatorExtension):
async def on_reflect_complete(self, result: ReflectResultContext) -> None:
self.post_reflect_calls.append(result)
# Consolidation hooks
async def validate_consolidate(self, ctx: ConsolidateContext) -> ValidationResult:
self.pre_consolidate_calls.append(ctx)
return ValidationResult.accept()
async def on_consolidate_complete(self, result: ConsolidateResult) -> None:
self.post_consolidate_calls.append(result)
class TestMemoryEngineValidation:
"""Tests for validation integration with MemoryEngine.
@@ -947,3 +947,172 @@ so the algorithm learns to box out. See you next week!
raise e
# =============================================================================
# DISPOSITION INFERENCE TESTS
# =============================================================================
class TestDispositionInference:
"""Tests for LLM-based disposition trait inference from background."""
@pytest.mark.asyncio
async def test_background_merge_with_disposition_inference(self, memory, request_context):
"""Test that background merge infers disposition traits by default."""
import uuid
bank_id = f"test_infer_{uuid.uuid4().hex[:8]}"
result = await memory.merge_bank_background(
bank_id,
"I am a creative software engineer who loves innovation and trying new technologies",
update_disposition=True,
request_context=request_context,
)
assert "background" in result
assert "disposition" in result
background = result["background"]
disposition = result["disposition"]
assert "creative" in background.lower() or "innovation" in background.lower()
# Check that new traits are present with valid values (1-5)
required_traits = ["skepticism", "literalism", "empathy"]
for trait in required_traits:
assert trait in disposition
assert 1 <= disposition[trait] <= 5
@pytest.mark.asyncio
async def test_background_merge_without_disposition_inference(self, memory, request_context):
"""Test that background merge skips disposition inference when disabled."""
import uuid
bank_id = f"test_no_infer_{uuid.uuid4().hex[:8]}"
initial_profile = await memory.get_bank_profile(bank_id, request_context=request_context)
initial_disposition = initial_profile["disposition"]
result = await memory.merge_bank_background(
bank_id,
"I am a data scientist",
update_disposition=False,
request_context=request_context,
)
assert "background" in result
assert "disposition" not in result
final_profile = await memory.get_bank_profile(bank_id, request_context=request_context)
final_disposition = final_profile["disposition"]
assert initial_disposition == final_disposition
@pytest.mark.asyncio
async def test_disposition_inference_for_lawyer(self, memory, request_context):
"""Test disposition inference for lawyer profile (high skepticism, high literalism)."""
import uuid
bank_id = f"test_lawyer_{uuid.uuid4().hex[:8]}"
result = await memory.merge_bank_background(
bank_id,
"I am a lawyer who focuses on contract details and never takes claims at face value",
update_disposition=True,
request_context=request_context,
)
disposition = result["disposition"]
# Lawyers should have higher skepticism and literalism
assert disposition["skepticism"] >= 3
assert disposition["literalism"] >= 3
@pytest.mark.asyncio
async def test_disposition_inference_for_therapist(self, memory, request_context):
"""Test disposition inference for therapist profile (high empathy)."""
import uuid
bank_id = f"test_therapist_{uuid.uuid4().hex[:8]}"
result = await memory.merge_bank_background(
bank_id,
"I am a therapist who deeply understands and connects with people's emotional struggles",
update_disposition=True,
request_context=request_context,
)
disposition = result["disposition"]
# Therapists should have higher empathy
assert disposition["empathy"] >= 3
@pytest.mark.asyncio
async def test_disposition_updates_in_database(self, memory, request_context):
"""Test that inferred disposition is actually stored in database."""
import uuid
bank_id = f"test_db_update_{uuid.uuid4().hex[:8]}"
result = await memory.merge_bank_background(
bank_id,
"I am an innovative designer",
update_disposition=True,
request_context=request_context,
)
inferred_disposition = result["disposition"]
profile = await memory.get_bank_profile(bank_id, request_context=request_context)
db_disposition = profile["disposition"]
# Compare values (db_disposition is a Pydantic model)
assert db_disposition.skepticism == inferred_disposition["skepticism"]
assert db_disposition.literalism == inferred_disposition["literalism"]
assert db_disposition.empathy == inferred_disposition["empathy"]
@pytest.mark.asyncio
async def test_multiple_background_merges_update_disposition(self, memory, request_context):
"""Test that each background merge can update disposition."""
import uuid
bank_id = f"test_multi_merge_{uuid.uuid4().hex[:8]}"
result1 = await memory.merge_bank_background(
bank_id,
"I am a software engineer",
update_disposition=True,
request_context=request_context,
)
disposition1 = result1["disposition"]
result2 = await memory.merge_bank_background(
bank_id,
"I love creative problem solving and innovation",
update_disposition=True,
request_context=request_context,
)
disposition2 = result2["disposition"]
assert "engineer" in result2["background"].lower() or "software" in result2["background"].lower()
assert "creative" in result2["background"].lower() or "innovation" in result2["background"].lower()
@pytest.mark.asyncio
async def test_background_merge_conflict_resolution_with_disposition(self, memory, request_context):
"""Test that conflicts are resolved and disposition reflects final background."""
import uuid
bank_id = f"test_conflict_{uuid.uuid4().hex[:8]}"
await memory.merge_bank_background(
bank_id,
"I was born in Colorado and prefer stability",
update_disposition=True,
request_context=request_context,
)
result = await memory.merge_bank_background(
bank_id,
"You were born in Texas and are very skeptical of people",
update_disposition=True,
request_context=request_context,
)
background = result["background"]
disposition = result["disposition"]
assert "texas" in background.lower()
# Higher skepticism expected from "very skeptical of people"
assert disposition["skepticism"] >= 3
+28 -27
View File
@@ -51,7 +51,7 @@ Marcus: Yeah, I realized I was being too optimistic about their defense.
results = await memory.recall_async(
bank_id=bank_id,
query="Marcus prediction Rams",
fact_type=['experience', 'world'],
fact_type=['opinion', 'experience', 'world'],
budget=Budget.LOW,
max_tokens=8192,
request_context=request_context,
@@ -61,8 +61,8 @@ Marcus: Yeah, I realized I was being too optimistic about their defense.
for i, result in enumerate(results.results):
print(f"{i+1}. [{result.mentioned_at}] {result.text[:100]}")
# Get all facts (Marcus's predictions/statements)
agent_facts = results.results
# Get all opinion facts (Marcus's predictions/statements)
agent_facts = [r for r in results.results if r.fact_type == 'opinion']
print(f"\n=== Agent facts (Marcus's statements) ===")
for i, fact in enumerate(agent_facts):
@@ -70,7 +70,6 @@ Marcus: Yeah, I realized I was being too optimistic about their defense.
# Check that agent facts have different timestamps
if len(agent_facts) >= 2:
# Parse timestamps
timestamps = [datetime.fromisoformat(f.mentioned_at.replace('Z', '+00:00')) for f in agent_facts]
# Verify timestamps are different (have time offsets)
@@ -78,40 +77,42 @@ Marcus: Yeah, I realized I was being too optimistic about their defense.
assert len(unique_timestamps) == len(timestamps), \
f"Expected unique timestamps for each fact, but got duplicates: {timestamps}"
# Sort facts by timestamp for ordering check
# Note: recall returns by relevance, not time order
sorted_facts = sorted(agent_facts, key=lambda f: datetime.fromisoformat(f.mentioned_at.replace('Z', '+00:00')))
sorted_timestamps = [datetime.fromisoformat(f.mentioned_at.replace('Z', '+00:00')) for f in sorted_facts]
# Verify sorted timestamps are in ascending order
for i in range(len(sorted_timestamps) - 1):
assert sorted_timestamps[i] < sorted_timestamps[i + 1], \
f"Facts should have sequential timestamps. Fact {i} ({sorted_timestamps[i]}) >= Fact {i+1} ({sorted_timestamps[i+1]})"
# Verify timestamps are in order (ascending)
for i in range(len(timestamps) - 1):
assert timestamps[i] < timestamps[i + 1], \
f"Facts should be ordered by time. Fact {i} ({timestamps[i]}) >= Fact {i+1} ({timestamps[i+1]})"
# Verify reasonable time spacing (should be ~10 seconds apart)
time_diffs = [(sorted_timestamps[i+1] - sorted_timestamps[i]).total_seconds() for i in range(len(sorted_timestamps) - 1)]
time_diffs = [(timestamps[i+1] - timestamps[i]).total_seconds() for i in range(len(timestamps) - 1)]
print(f"\n=== Time differences between facts: {time_diffs} seconds ===")
# Each fact should be 10+ seconds apart (allowing for some flexibility)
for diff in time_diffs:
assert diff >= 5, f"Expected at least 5 seconds between facts, got {diff}"
# Update agent_facts to be sorted for subsequent checks
agent_facts = sorted_facts
timestamps = sorted_timestamps
print(f"\n✅ All {len(agent_facts)} agent facts have properly ordered timestamps")
# Verify that facts capture the key information
# Note: LLM may merge related predictions into single facts
# Verify that retrieval returns facts in chronological order
# The first prediction should come before the changed prediction
agent_texts = [f.text.lower() for f in agent_facts]
all_text = " ".join(agent_texts)
# Look for evidence of the predictions being captured (may be merged or separate)
has_prediction_info = '27' in all_text or 'rams' in all_text or 'prediction' in all_text
# Look for evidence of the sequence
has_first_prediction = any('27' in text and '24' in text for text in agent_texts)
has_changed_prediction = any('chang' in text or 'by 3' in text or 'realized' in text for text in agent_texts)
assert has_prediction_info, "Facts should contain information about Marcus's predictions"
print(f"\n✅ Facts capture prediction information")
if has_first_prediction and has_changed_prediction:
# Find indices
first_idx = next(i for i, text in enumerate(agent_texts) if '27' in text and '24' in text)
changed_idx = next(i for i, text in enumerate(agent_texts) if 'chang' in text or 'by 3' in text or 'realized' in text)
print(f"\nFirst prediction at index {first_idx}: {agent_facts[first_idx].text[:100]}")
print(f"Changed prediction at index {changed_idx}: {agent_facts[changed_idx].text[:100]}")
# The original prediction should come before the changed one
assert timestamps[first_idx] < timestamps[changed_idx], \
"Original prediction should have earlier timestamp than changed prediction"
print(f"\n✅ Temporal ordering preserved: First prediction came before changed prediction")
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
@@ -155,14 +156,14 @@ Alice: I reconsidered the team's experience level.
results = await memory.recall_async(
bank_id=bank_id,
query="Alice preference React Vue",
fact_type=['experience', 'world'],
fact_type=['opinion', 'experience'],
budget=Budget.LOW,
max_tokens=8192,
request_context=request_context,
)
print(f"\n=== Retrieved {len(results.results)} agent facts ===")
agent_facts = results.results
agent_facts = [r for r in results.results if r.fact_type in ('opinion', 'experience')]
for i, fact in enumerate(agent_facts):
print(f"{i+1}. [{fact.mentioned_at}] {fact.text[:80]}")
@@ -60,6 +60,17 @@ async def test_full_api_workflow(api_client, test_bank_id):
assert response.status_code == 200
profile = response.json()
assert "disposition" in profile
assert "background" in profile
# Add background
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/background",
json={
"content": "A software engineer passionate about AI and memory systems."
}
)
assert response.status_code == 200
assert "software engineer" in response.json()["background"].lower()
# ================================================================
# 2. Memory Storage
@@ -233,9 +244,7 @@ async def test_full_api_workflow(api_client, test_bank_id):
response = await api_client.get(f"/v1/default/banks/{test_bank_id}/profile")
assert response.status_code == 200
updated_profile = response.json()
assert updated_profile["disposition"]["skepticism"] == 4
assert updated_profile["disposition"]["literalism"] == 3
assert updated_profile["disposition"]["empathy"] == 4
assert "software engineer" in updated_profile["background"].lower()
# ================================================================
# 8. Test Entity Endpoints
@@ -280,11 +289,11 @@ async def test_full_api_workflow(api_client, test_bank_id):
entity_detail = response.json()
assert "id" in entity_detail
# Test regenerate observations (deprecated - returns 410 Gone)
# Test regenerate observations
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/entities/{entity_id}/regenerate"
)
assert response.status_code == 410 # Deprecated endpoint
assert response.status_code == 200
# ================================================================
# 9. List All Banks (should include our test bank)
@@ -836,8 +845,9 @@ async def test_reflect_structured_output(api_client):
assert response.status_code == 200
result = response.json()
# Verify text field exists (may contain text even with structured output)
# Verify text field exists (empty when using structured output)
assert "text" in result
assert result["text"] == ""
# Verify structured output exists and has expected structure
assert "structured_output" in result
@@ -969,12 +979,10 @@ async def test_reflect_returns_token_usage(api_client):
assert "text" in result
assert len(result["text"]) > 0
# Verify usage field exists and is populated (agentic reflect aggregates all LLM calls)
# Verify usage field exists and has expected structure
assert "usage" in result, "Response should include 'usage' field"
usage = result["usage"]
# Usage must be present - agentic reflect now aggregates token usage from all LLM calls
assert usage is not None, "Usage should not be None - reflect aggregates all LLM call usages"
assert usage is not None, "Usage should not be None for reflect"
assert "input_tokens" in usage, "Usage should have 'input_tokens'"
assert "output_tokens" in usage, "Usage should have 'output_tokens'"
assert "total_tokens" in usage, "Usage should have 'total_tokens'"
@@ -1,278 +0,0 @@
"""
Tests for LinkExpansion graph retrieval.
Tests cover the entity-based graph traversal for observations.
"""
from datetime import datetime, timezone
import pytest
@pytest.fixture(autouse=True)
def enable_observations():
"""Enable observations for all tests in this module."""
from hindsight_api.config import get_config
config = get_config()
original_value = config.enable_observations
config.enable_observations = True
yield
config.enable_observations = original_value
@pytest.mark.asyncio
async def test_link_expansion_observation_graph_retrieval(memory, request_context):
"""
Test that observations can find other observations via shared entities.
This tests the scenario where:
1. World fact A has entity "Python"
2. World fact B has entity "Python"
3. Observation OA is derived from world fact A
4. Observation OB is derived from world fact B
When searching for observations related to OA, graph retrieval should find OB
because they share the "Python" entity through their source world facts.
Current issue: Graph retrieval returns 0 for observations because:
- Entity links are copied from world facts to observations during consolidation
- But the entity expansion query filters by fact_type
- Observations only share entities with world facts (cross-type), not with other observations
- So filtering to fact_type='observation' returns 0 results
"""
bank_id = f"test_link_expansion_obs_{datetime.now(timezone.utc).timestamp()}"
try:
# Store world facts with shared entities using retain_batch_async
# We need enough facts that semantic search won't return all of them as seeds
# Key: "Alice" query should find Alice's observation but NOT Bob's via semantic search
# Then graph retrieval should find Bob via shared "Python" entity
await memory.retain_batch_async(
bank_id=bank_id,
contents=[
# Python developers - should be connected via "Python" entity
{
"content": "Alice works with Python at TechCorp building REST APIs",
"context": "employee info",
"entities": [{"text": "Python"}, {"text": "Alice"}, {"text": "TechCorp"}],
},
{
"content": "Bob uses Python at DataSoft for machine learning models",
"context": "employee info",
"entities": [{"text": "Python"}, {"text": "Bob"}, {"text": "DataSoft"}],
},
# Many unrelated facts to dilute semantic search and ensure
# "Alice" query only finds Alice-related content as seeds
{
"content": "The weather in San Francisco is often foggy and cool",
"context": "weather info",
"entities": [{"text": "San Francisco"}],
},
{
"content": "Tokyo is the capital city of Japan with many trains",
"context": "geography info",
"entities": [{"text": "Tokyo"}, {"text": "Japan"}],
},
{
"content": "The Great Wall of China is a historic fortification",
"context": "history info",
"entities": [{"text": "Great Wall"}, {"text": "China"}],
},
{
"content": "Coffee beans are grown in tropical regions worldwide",
"context": "food info",
"entities": [{"text": "Coffee"}],
},
{
"content": "Electric vehicles are becoming more popular globally",
"context": "technology info",
"entities": [{"text": "Electric vehicles"}],
},
{
"content": "The Amazon rainforest contains diverse wildlife species",
"context": "nature info",
"entities": [{"text": "Amazon"}, {"text": "Rainforest"}],
},
{
"content": "Basketball is a popular sport in the United States",
"context": "sports info",
"entities": [{"text": "Basketball"}, {"text": "United States"}],
},
{
"content": "Mozart composed many famous classical music pieces",
"context": "music info",
"entities": [{"text": "Mozart"}, {"text": "Classical music"}],
},
],
request_context=request_context,
)
# Consolidation runs automatically after retain - wait for it to complete
# by querying for observations (consolidation creates them)
import asyncio
from hindsight_api.engine.memory_engine import Budget
# Wait for consolidation to complete with retry logic
# Consolidation runs as a background task and may take longer in CI
obs_result = None
for _ in range(30): # Try up to 30 times (30 seconds max)
await asyncio.sleep(1) # Wait 1 second between attempts
obs_result = await memory.recall_async(
bank_id=bank_id,
query="Python developer",
fact_type=["observation"],
budget=Budget.MID,
max_tokens=2048,
request_context=request_context,
)
if obs_result.results and len(obs_result.results) >= 1:
break
assert obs_result is not None and obs_result.results is not None, "Should have observations after consolidation"
# We should have observations from consolidation
assert len(obs_result.results) >= 1, f"Should have at least 1 observation about Python, got {len(obs_result.results)}"
# Now test graph retrieval specifically
# Query for Alice - should find Bob via shared "Python" entity
result = await memory.recall_async(
bank_id=bank_id,
query="Alice",
fact_type=["observation"],
budget=Budget.MID,
max_tokens=2048,
enable_trace=True,
request_context=request_context,
)
# Verify graph retrieval is working by checking the internal debug logs
# The graph retrieval finds observations via entity links, but may not return
# NEW results if semantic search already found all connected observations.
# This is correct behavior - we verify the entity traversal path works.
# Check the trace for graph results
assert result.trace is not None, "Should have trace data"
# The key verification: the entity expansion path works (sources -> entities -> observations)
# We validated this in the debug logs above:
# - Observations have source_memory_ids pointing to world facts ✓
# - World facts have entity links ✓
# - Graph retrieval can traverse this path (seen in logs: potential_obs > 0)
# For a more rigorous test, we need data where semantic search misses something.
# Let's verify the world fact graph retrieval works (it uses direct entity links).
world_result = await memory.recall_async(
bank_id=bank_id,
query="Alice",
fact_type=["world"],
budget=Budget.MID,
max_tokens=2048,
enable_trace=True,
request_context=request_context,
)
assert world_result.trace is not None, "Should have trace data for world facts"
world_retrieval_results = world_result.trace.get("retrieval_results", [])
world_graph_results = [
r for r in world_retrieval_results if r.get("method_name") == "graph"
]
if world_graph_results:
world_graph_result = [r for r in world_graph_results if r.get("fact_type") == "world"][0]
world_graph_results_list = world_graph_result.get("results", [])
# World facts use direct entity links, so graph may find results
if world_graph_results_list:
print(f"\n✓ Graph retrieval found {len(world_graph_results_list)} connected world facts")
graph_texts = [r.get("text", "") for r in world_graph_results_list]
bob_found = any("Bob" in t or "DataSoft" in t for t in graph_texts)
if bob_found:
print(" Found Bob's world fact via shared 'Python' entity!")
print("\n✓ Link expansion observation test passed!")
print(" Entity traversal path verified (observations -> sources -> entities -> connected sources -> observations)")
finally:
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_link_expansion_world_fact_graph_retrieval(memory, request_context):
"""
Test that world facts can find other world facts via shared entities.
This verifies the direct entity link traversal for world facts works correctly.
Note: When semantic search finds all world facts as seeds, graph retrieval
won't return NEW results (this is correct - it shouldn't duplicate results).
"""
bank_id = f"test_link_expansion_world_{datetime.now(timezone.utc).timestamp()}"
try:
# Store world facts with shared entities
await memory.retain_batch_async(
bank_id=bank_id,
contents=[
# Python developers - should be connected via "Python" entity
{
"content": "Alice works with Python at TechCorp building REST APIs",
"context": "employee info",
"entities": [{"text": "Python"}, {"text": "Alice"}, {"text": "TechCorp"}],
},
{
"content": "Bob uses Python at DataSoft for machine learning models",
"context": "employee info",
"entities": [{"text": "Python"}, {"text": "Bob"}, {"text": "DataSoft"}],
},
# Unrelated facts
{
"content": "The weather in San Francisco is often foggy",
"context": "weather info",
"entities": [{"text": "San Francisco"}],
},
{
"content": "Coffee beans are grown in tropical regions",
"context": "food info",
"entities": [{"text": "Coffee"}],
},
],
request_context=request_context,
)
from hindsight_api.engine.memory_engine import Budget
# Query for Alice
result = await memory.recall_async(
bank_id=bank_id,
query="Alice",
fact_type=["world"],
budget=Budget.MID,
max_tokens=2048,
enable_trace=True,
request_context=request_context,
)
assert result.trace is not None, "Should have trace data"
# Verify graph retrieval ran (it may or may not find new results depending
# on whether semantic search already found everything)
retrieval_results = result.trace.get("retrieval_results", [])
graph_results = [
r for r in retrieval_results if r.get("method_name") == "graph"
]
assert len(graph_results) > 0, "Should have graph retrieval results in trace"
# The important thing is that recall works and returns relevant results
assert result.results is not None and len(result.results) > 0, (
"Should return results for 'Alice' query"
)
# Alice's result should be at or near the top
result_texts = [r.text for r in result.results]
alice_found = any("Alice" in t for t in result_texts)
assert alice_found, f"Should find Alice in results: {result_texts[:3]}"
print("\n✓ Link expansion world fact test passed!")
print(f" Recall returned {len(result.results)} results for 'Alice' query")
finally:
await memory.delete_bank(bank_id, request_context=request_context)
-329
View File
@@ -1,329 +0,0 @@
"""
Tests for LLM tool calling functionality.
"""
import pytest
from hindsight_api.engine.llm_wrapper import LLMProvider
from hindsight_api.engine.response_models import LLMToolCall, LLMToolCallResult
# Sample tools for testing
SAMPLE_TOOLS = [
{
"type": "function",
"function": {
"name": "get_weather",
"description": "Get weather for a location",
"parameters": {
"type": "object",
"properties": {
"location": {"type": "string", "description": "City name"},
"unit": {"type": "string", "enum": ["celsius", "fahrenheit"]},
},
"required": ["location"],
},
},
},
{
"type": "function",
"function": {
"name": "search",
"description": "Search for information",
"parameters": {
"type": "object",
"properties": {
"query": {"type": "string", "description": "Search query"},
},
"required": ["query"],
},
},
},
]
class TestMockToolCalling:
"""Test tool calling with mock provider."""
@pytest.mark.asyncio
async def test_call_with_tools_returns_tool_calls(self):
"""Test that mock provider can return tool calls."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
# Set mock response to return tool calls
llm.set_mock_response([
{"name": "get_weather", "arguments": {"location": "Paris", "unit": "celsius"}},
])
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "What's the weather in Paris?"}],
tools=SAMPLE_TOOLS,
)
assert isinstance(result, LLMToolCallResult)
assert len(result.tool_calls) == 1
assert result.tool_calls[0].name == "get_weather"
assert result.tool_calls[0].arguments == {"location": "Paris", "unit": "celsius"}
assert result.finish_reason == "tool_calls"
@pytest.mark.asyncio
async def test_call_with_tools_returns_content(self):
"""Test that mock provider can return plain content."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
# Default mock response is plain content
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "Hello"}],
tools=SAMPLE_TOOLS,
)
assert isinstance(result, LLMToolCallResult)
assert result.content == "mock response"
assert len(result.tool_calls) == 0
assert result.finish_reason == "stop"
@pytest.mark.asyncio
async def test_call_with_tools_records_calls(self):
"""Test that mock calls are recorded."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
llm.clear_mock_calls()
await llm.call_with_tools(
messages=[{"role": "user", "content": "Test message"}],
tools=SAMPLE_TOOLS,
scope="test_scope",
)
calls = llm.get_mock_calls()
assert len(calls) == 1
assert calls[0]["scope"] == "test_scope"
assert "get_weather" in calls[0]["tools"]
assert "search" in calls[0]["tools"]
@pytest.mark.asyncio
async def test_call_with_tools_multiple_tool_calls(self):
"""Test handling multiple tool calls in one response."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
llm.set_mock_response([
{"name": "get_weather", "arguments": {"location": "Paris"}},
{"name": "search", "arguments": {"query": "weather forecast"}},
])
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "Weather in Paris and search for forecasts"}],
tools=SAMPLE_TOOLS,
)
assert len(result.tool_calls) == 2
assert result.tool_calls[0].name == "get_weather"
assert result.tool_calls[1].name == "search"
@pytest.mark.asyncio
async def test_call_with_tools_accepts_llm_tool_call_result(self):
"""Test that mock can accept LLMToolCallResult directly."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
expected_result = LLMToolCallResult(
content="Here's the info",
tool_calls=[LLMToolCall(id="call_123", name="search", arguments={"query": "test"})],
finish_reason="tool_calls",
)
llm.set_mock_response(expected_result)
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "Search for test"}],
tools=SAMPLE_TOOLS,
)
assert result == expected_result
class TestToolCallConversation:
"""Test tool call conversation flow."""
@pytest.mark.asyncio
async def test_tool_result_message_format(self):
"""Test that tool result messages can be passed in subsequent calls."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
# First call returns tool call
llm.set_mock_response([{"name": "get_weather", "arguments": {"location": "Paris"}}])
result1 = await llm.call_with_tools(
messages=[{"role": "user", "content": "What's the weather?"}],
tools=SAMPLE_TOOLS,
)
# Build conversation with tool result
messages = [
{"role": "user", "content": "What's the weather?"},
{
"role": "assistant",
"tool_calls": [
{
"id": result1.tool_calls[0].id,
"type": "function",
"function": {
"name": result1.tool_calls[0].name,
"arguments": '{"location": "Paris"}',
},
}
],
},
{
"role": "tool",
"tool_call_id": result1.tool_calls[0].id,
"content": '{"temperature": 20, "conditions": "sunny"}',
},
]
# Second call should work with tool result in history
llm.set_mock_response(None) # Reset to default
result2 = await llm.call_with_tools(
messages=messages,
tools=SAMPLE_TOOLS,
)
assert result2.content == "mock response"
class TestToolSchemas:
"""Test tool schema handling."""
@pytest.mark.asyncio
async def test_empty_tools_list(self):
"""Test calling with empty tools list."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "Hello"}],
tools=[],
)
assert result.content == "mock response"
@pytest.mark.asyncio
async def test_tool_with_no_required_params(self):
"""Test tool with no required parameters."""
llm = LLMProvider(provider="mock", api_key="", base_url="", model="mock")
tools = [
{
"type": "function",
"function": {
"name": "list_items",
"description": "List all items",
"parameters": {"type": "object", "properties": {}, "required": []},
},
}
]
llm.set_mock_response([{"name": "list_items", "arguments": {}}])
result = await llm.call_with_tools(
messages=[{"role": "user", "content": "List items"}],
tools=tools,
)
assert len(result.tool_calls) == 1
assert result.tool_calls[0].name == "list_items"
assert result.tool_calls[0].arguments == {}
class TestReflectToolSchemas:
"""Test reflect agent tool schemas."""
def test_get_reflect_tools_default(self):
"""Test getting default reflect tools."""
from hindsight_api.engine.reflect.tools_schema import get_reflect_tools
tools = get_reflect_tools()
tool_names = [t["function"]["name"] for t in tools]
assert "search_mental_models" in tool_names
assert "search_observations" in tool_names
assert "recall" in tool_names
assert "expand" in tool_names
assert "done" in tool_names
def test_get_reflect_tools_with_directives(self):
"""Test getting reflect tools with directive rules."""
from hindsight_api.engine.reflect.tools_schema import get_reflect_tools
tools = get_reflect_tools(directive_rules=["Always respond in French"])
tool_names = [t["function"]["name"] for t in tools]
assert "recall" in tool_names
assert "done" in tool_names
# Done tool should have directive_compliance field when directives are present
done_tool = next(t for t in tools if t["function"]["name"] == "done")
params = done_tool["function"]["parameters"]["properties"]
assert "directive_compliance" in params
def test_get_reflect_tools_answer_mode(self):
"""Test getting reflect tools with answer output mode."""
from hindsight_api.engine.reflect.tools_schema import get_reflect_tools
tools = get_reflect_tools()
done_tool = next(t for t in tools if t["function"]["name"] == "done")
params = done_tool["function"]["parameters"]["properties"]
assert "answer" in params
assert "memory_ids" in params
assert "observation_ids" in params
assert "mental_model_ids" in params
class TestLLMToolCallResult:
"""Test LLMToolCallResult model."""
def test_tool_call_result_defaults(self):
"""Test default values for LLMToolCallResult."""
result = LLMToolCallResult()
assert result.content is None
assert result.tool_calls == []
assert result.finish_reason is None
def test_tool_call_result_with_content(self):
"""Test LLMToolCallResult with content."""
result = LLMToolCallResult(content="Hello", finish_reason="stop")
assert result.content == "Hello"
assert result.tool_calls == []
assert result.finish_reason == "stop"
def test_tool_call_result_with_tool_calls(self):
"""Test LLMToolCallResult with tool calls."""
result = LLMToolCallResult(
tool_calls=[
LLMToolCall(id="call_1", name="test_tool", arguments={"arg": "value"}),
],
finish_reason="tool_calls",
)
assert result.content is None
assert len(result.tool_calls) == 1
assert result.tool_calls[0].name == "test_tool"
assert result.finish_reason == "tool_calls"
class TestLLMToolCall:
"""Test LLMToolCall model."""
def test_tool_call_basic(self):
"""Test basic LLMToolCall creation."""
call = LLMToolCall(id="call_123", name="get_weather", arguments={"location": "Paris"})
assert call.id == "call_123"
assert call.name == "get_weather"
assert call.arguments == {"location": "Paris"}
def test_tool_call_empty_arguments(self):
"""Test LLMToolCall with empty arguments."""
call = LLMToolCall(id="call_456", name="list_items", arguments={})
assert call.arguments == {}
@@ -19,7 +19,6 @@ import pytest_asyncio
from hindsight_api import MemoryEngine, LLMConfig, LocalSTEmbeddings, RequestContext
from hindsight_api.engine.cross_encoder import LocalSTCrossEncoder
from hindsight_api.engine.query_analyzer import DateparserQueryAnalyzer
from hindsight_api.engine.task_backend import SyncTaskBackend
from hindsight_api.engine.retain.fact_extraction import FactExtractionResponse, ExtractedFact
from hindsight_api.engine.llm_wrapper import TokenUsage
@@ -107,7 +106,6 @@ class TestLargeBatchRetain:
pool_max_size=10,
run_migrations=False,
skip_llm_verification=True, # Skip LLM verification since we're mocking
task_backend=SyncTaskBackend(), # Execute tasks immediately in tests
)
await mem.initialize()
yield mem
+5 -10
View File
@@ -355,14 +355,14 @@ class TestMainModuleExtensionLoading:
# Mock extensions for testing
from hindsight_api.extensions import (
TenantExtension,
TenantContext,
RequestContext,
OperationValidatorExtension,
ValidationResult,
RetainContext,
RecallContext,
ReflectContext,
RequestContext,
RetainContext,
TenantContext,
TenantExtension,
ValidationResult,
)
@@ -376,11 +376,6 @@ class MockTenantExtension(TenantExtension):
async def authenticate(self, request_context: RequestContext) -> TenantContext:
return TenantContext(schema_name="public")
async def list_tenants(self) -> list:
from hindsight_api.extensions.tenant import Tenant
return [Tenant(schema="public")]
def set_context(self, context) -> None:
self._context_set = True
+5 -55
View File
@@ -62,9 +62,9 @@ async def test_local_mcp_server_recall(mock_memory):
tools = mcp_server._tool_manager._tools
assert "recall" in tools
# Call recall
# Call recall with new params
recall_tool = tools["recall"]
result = await recall_tool.fn(query="test query", max_tokens=2048)
result = await recall_tool.fn(query="test query", max_tokens=2048, budget="mid")
# Result is a dict
assert isinstance(result, dict)
@@ -75,7 +75,7 @@ async def test_local_mcp_server_recall(mock_memory):
assert call_kwargs["bank_id"] == "test-bank"
assert call_kwargs["query"] == "test query"
assert call_kwargs["max_tokens"] == 2048
assert call_kwargs["budget"] == Budget.HIGH
assert call_kwargs["budget"] == Budget.MID
@pytest.mark.asyncio
@@ -141,7 +141,7 @@ async def test_local_mcp_server_recall_error_handling(mock_memory):
@pytest.mark.asyncio
async def test_local_mcp_server_recall_with_defaults(mock_memory):
"""Test that recall uses default max_tokens and HIGH budget."""
"""Test that recall uses default max_tokens and budget."""
from hindsight_api.mcp_local import create_local_mcp_server
from hindsight_api.engine.memory_engine import Budget
@@ -159,54 +159,4 @@ async def test_local_mcp_server_recall_with_defaults(mock_memory):
call_kwargs = mock_memory.recall_async.call_args.kwargs
assert call_kwargs["max_tokens"] == 4096
assert call_kwargs["budget"] == Budget.HIGH
@pytest.mark.asyncio
async def test_local_mcp_server_retain_with_timestamp(mock_memory):
"""Test that retain passes timestamp as event_date."""
from datetime import datetime, timezone
from hindsight_api.mcp_local import create_local_mcp_server
mcp_server = create_local_mcp_server("test-bank", memory=mock_memory)
tools = mcp_server._tool_manager._tools
retain_tool = tools["retain"]
# Call retain with timestamp
result = await retain_tool.fn(
content="test content", context="test_context", timestamp="2024-01-15T10:30:00Z"
)
assert result["status"] == "accepted"
# Wait for background task
await asyncio.sleep(0.1)
call_kwargs = mock_memory.retain_batch_async.call_args.kwargs
contents = call_kwargs["contents"]
assert len(contents) == 1
assert contents[0]["content"] == "test content"
assert contents[0]["context"] == "test_context"
assert "event_date" in contents[0]
assert contents[0]["event_date"] == datetime(2024, 1, 15, 10, 30, 0, tzinfo=timezone.utc)
@pytest.mark.asyncio
async def test_local_mcp_server_retain_with_invalid_timestamp(mock_memory):
"""Test that retain rejects invalid timestamp format."""
from hindsight_api.mcp_local import create_local_mcp_server
mcp_server = create_local_mcp_server("test-bank", memory=mock_memory)
tools = mcp_server._tool_manager._tools
retain_tool = tools["retain"]
# Call retain with invalid timestamp
result = await retain_tool.fn(content="test content", timestamp="not-a-date")
assert result["status"] == "error"
assert "Invalid timestamp format" in result["message"]
# Verify retain_batch_async was NOT called
mock_memory.retain_batch_async.assert_not_called()
assert call_kwargs["budget"] == Budget.LOW
-63
View File
@@ -1,63 +0,0 @@
"""Tests for the shared MCP tools module."""
from datetime import datetime, timezone
import pytest
from hindsight_api.mcp_tools import build_content_dict, parse_timestamp
class TestParseTimestamp:
"""Tests for parse_timestamp function."""
def test_parse_iso_format_with_z(self):
"""Test parsing ISO format with Z suffix."""
result = parse_timestamp("2024-01-15T10:30:00Z")
assert result == datetime(2024, 1, 15, 10, 30, 0, tzinfo=timezone.utc)
def test_parse_iso_format_with_offset(self):
"""Test parsing ISO format with timezone offset."""
result = parse_timestamp("2024-01-15T10:30:00+00:00")
assert result == datetime(2024, 1, 15, 10, 30, 0, tzinfo=timezone.utc)
def test_parse_iso_format_without_tz(self):
"""Test parsing ISO format without timezone."""
result = parse_timestamp("2024-01-15T10:30:00")
assert result == datetime(2024, 1, 15, 10, 30, 0)
def test_parse_invalid_format_raises(self):
"""Test that invalid format raises ValueError."""
with pytest.raises(ValueError) as exc_info:
parse_timestamp("not-a-date")
assert "Invalid timestamp format" in str(exc_info.value)
class TestBuildContentDict:
"""Tests for build_content_dict function."""
def test_basic_content(self):
"""Test building content dict with just content and context."""
result, error = build_content_dict("test content", "test_context")
assert error is None
assert result == {"content": "test content", "context": "test_context"}
def test_with_valid_timestamp(self):
"""Test building content dict with valid timestamp."""
result, error = build_content_dict("test content", "test_context", "2024-01-15T10:30:00Z")
assert error is None
assert result["content"] == "test content"
assert result["context"] == "test_context"
assert result["event_date"] == datetime(2024, 1, 15, 10, 30, 0, tzinfo=timezone.utc)
def test_with_invalid_timestamp(self):
"""Test building content dict with invalid timestamp."""
result, error = build_content_dict("test content", "test_context", "invalid")
assert error is not None
assert "Invalid timestamp format" in error
assert result == {}
def test_with_none_timestamp(self):
"""Test building content dict with None timestamp."""
result, error = build_content_dict("test content", "test_context", None)
assert error is None
assert "event_date" not in result
-453
View File
@@ -1,453 +0,0 @@
"""Tests for directive functionality.
Directives are hard rules injected into prompts.
They are stored in the 'directives' table.
"""
import uuid
import pytest
from hindsight_api.engine.memory_engine import MemoryEngine
@pytest.fixture
async def memory_with_bank(memory: MemoryEngine, request_context):
"""Memory engine with a bank that has some data.
Uses a unique bank_id to avoid conflicts between parallel tests.
"""
# Use unique bank_id to avoid conflicts between parallel tests
bank_id = f"test-directives-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Add some test data
await memory.retain_batch_async(
bank_id=bank_id,
contents=[
{"content": "The team has daily standups at 9am where everyone shares their progress."},
{"content": "Alice is the frontend engineer and specializes in React."},
{"content": "Bob is the backend engineer and owns the API services."},
],
request_context=request_context,
)
# Wait for any background tasks from retain to complete
await memory.wait_for_background_tasks()
yield memory, bank_id
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestBankMission:
"""Test bank mission operations."""
async def test_set_and_get_mission(self, memory: MemoryEngine, request_context):
"""Test setting and getting a bank's mission."""
bank_id = f"test-mission-{uuid.uuid4().hex[:8]}"
# Set mission
result = await memory.set_bank_mission(
bank_id=bank_id,
mission="Track customer feedback",
request_context=request_context,
)
assert result["bank_id"] == bank_id
assert result["mission"] == "Track customer feedback"
# Get mission via profile
profile = await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
assert profile["mission"] == "Track customer feedback"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestDirectives:
"""Test directive functionality."""
async def test_create_directive(self, memory: MemoryEngine, request_context):
"""Test creating a directive."""
bank_id = f"test-directive-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create a directive
directive = await memory.create_directive(
bank_id=bank_id,
name="Competitor Policy",
content="Never mention competitor product names directly. If asked about competitors, redirect to our features.",
request_context=request_context,
)
assert directive["name"] == "Competitor Policy"
assert "Never mention competitor" in directive["content"]
assert directive["is_active"] is True
assert directive["priority"] == 0
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
async def test_directive_crud(self, memory: MemoryEngine, request_context):
"""Test basic CRUD operations for directives."""
bank_id = f"test-directive-crud-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create
directive = await memory.create_directive(
bank_id=bank_id,
name="Test Directive",
content="Follow this rule",
request_context=request_context,
)
directive_id = directive["id"]
# Read
retrieved = await memory.get_directive(
bank_id=bank_id,
directive_id=directive_id,
request_context=request_context,
)
assert retrieved is not None
assert retrieved["name"] == "Test Directive"
assert retrieved["content"] == "Follow this rule"
# List
directives = await memory.list_directives(
bank_id=bank_id,
request_context=request_context,
)
assert len(directives) == 1
assert directives[0]["id"] == directive_id
# Update
updated = await memory.update_directive(
bank_id=bank_id,
directive_id=directive_id,
content="Updated rule content",
request_context=request_context,
)
assert updated["content"] == "Updated rule content"
# Delete
deleted = await memory.delete_directive(
bank_id=bank_id,
directive_id=directive_id,
request_context=request_context,
)
assert deleted is True
# Verify deletion
retrieved_after = await memory.get_directive(
bank_id=bank_id,
directive_id=directive_id,
request_context=request_context,
)
assert retrieved_after is None
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
async def test_directive_priority(self, memory: MemoryEngine, request_context):
"""Test that directive priority works correctly."""
bank_id = f"test-directive-priority-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create directives with different priorities
await memory.create_directive(
bank_id=bank_id,
name="Low Priority",
content="Low priority rule",
priority=1,
request_context=request_context,
)
await memory.create_directive(
bank_id=bank_id,
name="High Priority",
content="High priority rule",
priority=10,
request_context=request_context,
)
# List should order by priority (desc)
directives = await memory.list_directives(
bank_id=bank_id,
request_context=request_context,
)
assert len(directives) == 2
assert directives[0]["name"] == "High Priority"
assert directives[1]["name"] == "Low Priority"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
async def test_directive_is_active(self, memory: MemoryEngine, request_context):
"""Test that inactive directives are filtered by default."""
bank_id = f"test-directive-active-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create active and inactive directives
await memory.create_directive(
bank_id=bank_id,
name="Active Rule",
content="This is active",
is_active=True,
request_context=request_context,
)
await memory.create_directive(
bank_id=bank_id,
name="Inactive Rule",
content="This is inactive",
is_active=False,
request_context=request_context,
)
# List active only (default)
active_directives = await memory.list_directives(
bank_id=bank_id,
active_only=True,
request_context=request_context,
)
assert len(active_directives) == 1
assert active_directives[0]["name"] == "Active Rule"
# List all
all_directives = await memory.list_directives(
bank_id=bank_id,
active_only=False,
request_context=request_context,
)
assert len(all_directives) == 2
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestDirectiveTags:
"""Test tags functionality for directives."""
async def test_directive_with_tags(self, memory: MemoryEngine, request_context):
"""Test creating a directive with tags."""
bank_id = f"test-directive-tags-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create a directive with tags
directive = await memory.create_directive(
bank_id=bank_id,
name="Tagged Rule",
content="Follow this rule",
tags=["project-a", "team-x"],
request_context=request_context,
)
assert directive["tags"] == ["project-a", "team-x"]
# Retrieve and verify tags
retrieved = await memory.get_directive(
bank_id=bank_id,
directive_id=directive["id"],
request_context=request_context,
)
assert retrieved["tags"] == ["project-a", "team-x"]
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
async def test_list_directives_by_tags(self, memory: MemoryEngine, request_context):
"""Test listing directives filtered by tags."""
bank_id = f"test-directive-tags-list-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Create directives with different tags
await memory.create_directive(
bank_id=bank_id,
name="Rule A",
content="Rule for project A",
tags=["project-a"],
request_context=request_context,
)
await memory.create_directive(
bank_id=bank_id,
name="Rule B",
content="Rule for project B",
tags=["project-b"],
request_context=request_context,
)
# List all
all_directives = await memory.list_directives(
bank_id=bank_id,
request_context=request_context,
)
assert len(all_directives) == 2
# Filter by project-a tag
filtered = await memory.list_directives(
bank_id=bank_id,
tags=["project-a"],
request_context=request_context,
)
assert len(filtered) == 1
assert filtered[0]["name"] == "Rule A"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestReflect:
"""Test reflect endpoint."""
async def test_reflect_basic(self, memory_with_bank, request_context):
"""Test basic reflect query works."""
memory, bank_id = memory_with_bank
# Run a reflect query
result = await memory.reflect_async(
bank_id=bank_id,
query="Who are the team members?",
request_context=request_context,
)
assert result.text is not None
assert len(result.text) > 0
class TestDirectivesInReflect:
"""Test that directives are followed during reflect operations."""
async def test_reflect_follows_language_directive(self, memory: MemoryEngine, request_context):
"""Test that reflect follows a directive to respond in a specific language."""
bank_id = f"test-directive-reflect-{uuid.uuid4().hex[:8]}"
# Ensure bank exists
await memory.get_bank_profile(bank_id, request_context=request_context)
# Add some content in English
await memory.retain_batch_async(
bank_id=bank_id,
contents=[
{"content": "Alice is a software engineer who works at Google."},
{"content": "Alice enjoys hiking on weekends and has been to Yosemite."},
{"content": "Alice is currently working on a machine learning project."},
],
request_context=request_context,
)
await memory.wait_for_background_tasks()
# Create a directive to always respond in French
await memory.create_directive(
bank_id=bank_id,
name="Language Policy",
content="ALWAYS respond in French language. Never respond in English.",
request_context=request_context,
)
# Run reflect query
result = await memory.reflect_async(
bank_id=bank_id,
query="What does Alice do for work?",
request_context=request_context,
)
assert result.text is not None
assert len(result.text) > 0
# Check that the response contains French words/patterns
# Common French words that would appear when talking about someone's job
french_indicators = [
"elle",
"travaille",
"est",
"une",
"le",
"la",
"qui",
"chez",
"logiciel",
"ingénieur",
"ingénieure",
"développeur",
"développeuse",
]
response_lower = result.text.lower()
# At least some French words should appear in the response
french_word_count = sum(1 for word in french_indicators if word in response_lower)
assert (
french_word_count >= 2
), f"Expected French response, but got: {result.text[:200]}"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestDirectivesPromptInjection:
"""Test that directives are properly injected into the system prompt."""
def test_build_directives_section_empty(self):
"""Test that empty directives returns empty string."""
from hindsight_api.engine.reflect.prompts import build_directives_section
result = build_directives_section([])
assert result == ""
def test_build_directives_section_with_content(self):
"""Test that directives with content are formatted correctly."""
from hindsight_api.engine.reflect.prompts import build_directives_section
directives = [
{
"name": "Competitor Policy",
"content": "Never mention competitor names. Redirect to our features.",
}
]
result = build_directives_section(directives)
assert "## DIRECTIVES (MANDATORY)" in result
assert "Competitor Policy" in result
assert "Never mention competitor names" in result
assert "NEVER violate these directives" in result
def test_system_prompt_includes_directives(self):
"""Test that build_system_prompt_for_tools includes directives."""
from hindsight_api.engine.reflect.prompts import build_system_prompt_for_tools
bank_profile = {"name": "Test Bank", "mission": "Test mission"}
directives = [
{
"name": "Test Directive",
"content": "Follow this rule",
}
]
prompt = build_system_prompt_for_tools(
bank_profile=bank_profile,
directives=directives,
)
assert "## DIRECTIVES (MANDATORY)" in prompt
assert "Follow this rule" in prompt
# Directives should appear before CRITICAL RULES
directives_pos = prompt.find("## DIRECTIVES")
critical_rules_pos = prompt.find("## CRITICAL RULES")
assert directives_pos < critical_rules_pos
-159
View File
@@ -275,165 +275,6 @@ async def test_retain_japanese_content(memory, request_context):
pass
@pytest.mark.asyncio
async def test_english_content_stays_english(memory, request_context):
"""
Test that English content is NOT incorrectly translated to Japanese or Chinese.
This test specifically catches the bug where the language instruction in the
CONCISE extraction prompt mentioned Japanese/Chinese explicitly, which primed
the LLM to sometimes output facts in those languages even for English input.
See: https://github.com/vectorize-io/hindsight/issues/181
"""
bank_id = f"test_english_retain_{datetime.now(timezone.utc).timestamp()}"
try:
# English content about a developer
english_content = """
John Smith is a software engineer at TechCorp in Seattle.
He specializes in machine learning and has been working on
recommendation systems for the past three years.
Last month, he launched a new feature that improved click-through rates by 25%.
He prefers working in Python and uses PyTorch for model training.
"""
unit_ids = await memory.retain_async(
bank_id=bank_id,
content=english_content,
context="Team profile",
event_date=datetime(2024, 1, 15, tzinfo=timezone.utc),
request_context=request_context,
)
logger.info(f"Retained {len(unit_ids)} facts from English content")
assert len(unit_ids) > 0, "Should have extracted facts from English content"
# Recall with English query
result = await memory.recall_async(
bank_id=bank_id,
query="Tell me about John Smith",
budget=Budget.MID,
max_tokens=1000,
fact_type=["world"],
request_context=request_context,
)
assert len(result.results) > 0, "Should recall facts about John Smith"
# Verify facts are NOT in Japanese or Chinese
for fact in result.results:
logger.info(f"Fact: {fact.text}")
# Count Japanese characters (hiragana, katakana)
japanese_chars = sum(
1 for char in fact.text
if ("\u3040" <= char <= "\u309f") or ("\u30a0" <= char <= "\u30ff")
)
# Count Chinese/CJK characters (excluding those also used in Japanese)
# Note: Kanji/CJK ideographs overlap between Chinese and Japanese
cjk_chars = sum(1 for char in fact.text if "\u4e00" <= char <= "\u9fff")
# For English input, there should be minimal CJK characters
# Allow for occasional edge cases (e.g., proper nouns) but not full translation
total_chars = len(fact.text)
cjk_ratio = cjk_chars / max(total_chars, 1)
assert cjk_ratio < 0.1, (
f"English content was incorrectly translated to CJK language! "
f"CJK ratio: {cjk_ratio:.1%}, Japanese chars: {japanese_chars}, CJK chars: {cjk_chars}. "
f"Fact: {fact.text}"
)
logger.info("English content test passed - facts stayed in English")
finally:
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_italian_content_stays_italian(memory, request_context):
"""
Test that Italian content is NOT incorrectly translated to Japanese or Chinese.
Similar to the English test, this catches the bug where non-CJK languages
could be incorrectly translated due to biased language instruction.
See: https://github.com/vectorize-io/hindsight/issues/181
"""
bank_id = f"test_italian_retain_{datetime.now(timezone.utc).timestamp()}"
try:
# Italian content about a chef
italian_content = """
Marco Rossi è uno chef italiano che lavora in un ristorante a Milano.
È specializzato nella cucina toscana e ha vinto tre premi gastronomici.
Il mese scorso ha aperto un nuovo ristorante nel centro della città.
Preferisce usare ingredienti freschi e locali per i suoi piatti.
"""
unit_ids = await memory.retain_async(
bank_id=bank_id,
content=italian_content,
context="Profilo dello chef",
event_date=datetime(2024, 1, 15, tzinfo=timezone.utc),
request_context=request_context,
)
logger.info(f"Retained {len(unit_ids)} facts from Italian content")
assert len(unit_ids) > 0, "Should have extracted facts from Italian content"
# Recall with Italian query
result = await memory.recall_async(
bank_id=bank_id,
query="Dimmi di Marco Rossi", # "Tell me about Marco Rossi"
budget=Budget.MID,
max_tokens=1000,
fact_type=["world"],
request_context=request_context,
)
assert len(result.results) > 0, "Should recall facts about Marco Rossi"
# Verify facts are NOT in Japanese or Chinese - should stay in Italian
for fact in result.results:
logger.info(f"Fact: {fact.text}")
# Count CJK characters
cjk_chars = sum(1 for char in fact.text if "\u4e00" <= char <= "\u9fff")
japanese_chars = sum(
1 for char in fact.text
if ("\u3040" <= char <= "\u309f") or ("\u30a0" <= char <= "\u30ff")
)
total_chars = len(fact.text)
cjk_ratio = (cjk_chars + japanese_chars) / max(total_chars, 1)
assert cjk_ratio < 0.1, (
f"Italian content was incorrectly translated to CJK language! "
f"CJK ratio: {cjk_ratio:.1%}. Fact: {fact.text}"
)
# Verify facts contain Italian words (basic sanity check)
all_text = " ".join(f.text for f in result.results).lower()
italian_indicators = ["marco", "rossi", "chef", "ristorante", "milano", "cucina", "italiano", "italiana"]
has_italian = any(word in all_text for word in italian_indicators)
# Allow English translation as acceptable (not ideal but not the bug)
english_indicators = ["chef", "restaurant", "milan", "italian", "cooking"]
has_english = any(word in all_text for word in english_indicators)
assert has_italian or has_english, (
f"Expected facts to be in Italian or English, but got neither. Facts: {all_text}"
)
logger.info("Italian content test passed - facts not translated to CJK")
finally:
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_mixed_language_entities(memory, request_context):
"""
+187 -258
View File
@@ -1,38 +1,28 @@
"""
Test observation generation and entity state functionality.
NOTE: Observations are now stored as summaries on the entities table,
not as separate memory_units. The observations list in EntityState is
populated from the summary for backwards compatibility.
"""
import pytest
from hindsight_api.engine.memory_engine import Budget
from hindsight_api import RequestContext
from hindsight_api.config import get_config
from datetime import datetime, timezone
@pytest.fixture
def disable_observations():
"""Disable observations for a specific test."""
config = get_config()
original_value = config.enable_observations
config.enable_observations = False
yield
config.enable_observations = original_value
@pytest.mark.asyncio
async def test_entity_extraction_on_retain(memory, request_context):
async def test_observation_generation_on_put(memory, request_context):
"""
Test that entities are extracted when new facts are added.
Test that observations are generated SYNCHRONOUSLY when new facts are added.
This test stores multiple facts and verifies entities are extracted.
Observations are generated during retain when:
- Entity has >= 5 facts (MIN_FACTS_THRESHOLD)
- Entity is in top 5 by mention count
This test stores enough facts to trigger automatic observation generation.
"""
bank_id = f"test_entity_extraction_{datetime.now(timezone.utc).timestamp()}"
bank_id = f"test_obs_{datetime.now(timezone.utc).timestamp()}"
try:
# Store multiple facts about John
# Store multiple facts about John to reach the MIN_FACTS_THRESHOLD (5)
# Each retain call should extract at least one fact about John
contents = [
"John is a software engineer at Google.",
"John is detail-oriented and methodical in his work.",
@@ -51,8 +41,9 @@ async def test_entity_extraction_on_retain(memory, request_context):
request_context=request_context,
)
# Wait for background tasks
await memory.wait_for_background_tasks()
# Observations are generated SYNCHRONOUSLY during retain,
# so they should be available immediately after retain completes.
# No need to wait for background tasks for observations.
# Find the John entity
pool = await memory._get_pool()
@@ -67,7 +58,7 @@ async def test_entity_extraction_on_retain(memory, request_context):
bank_id
)
# Check the fact count for this entity
# Also check the fact count for this entity
if entity_row:
fact_count = await conn.fetchval(
"""
@@ -79,9 +70,30 @@ async def test_entity_extraction_on_retain(memory, request_context):
print(f"Entity: {entity_row['canonical_name']} has {fact_count} linked facts")
assert entity_row is not None, "John entity should have been extracted"
entity_id = str(entity_row['id'])
entity_name = entity_row['canonical_name']
print(f"\n=== Found Entity ===")
print(f"Entity: {entity_row['canonical_name']} (id: {entity_row['id']})")
print(f"Entity was successfully extracted")
print(f"Entity: {entity_name} (id: {entity_id})")
# Get observations for the entity - should be available immediately
observations = await memory.get_entity_observations(bank_id, entity_id, limit=10, request_context=request_context)
print(f"\n=== Observations for {entity_name} ===")
print(f"Total observations: {len(observations)}")
for obs in observations:
print(f" - {obs.text}")
# Verify observations were created (requires >= 5 facts)
assert len(observations) > 0, \
f"Observations should have been generated synchronously during retain (entity has {fact_count} facts, threshold is 5)"
# Check that observations mention relevant content
obs_texts = " ".join([o.text.lower() for o in observations])
assert any(keyword in obs_texts for keyword in ["google", "engineer", "ai", "machine learning", "detail"]), \
"Observations should contain relevant information about John"
print(f"✓ Observations were successfully generated synchronously during retain")
finally:
# Cleanup
@@ -94,7 +106,7 @@ async def test_entity_extraction_on_retain(memory, request_context):
@pytest.mark.asyncio
async def test_regenerate_entity_observations(memory, request_context):
"""
Test explicit regeneration of summary for an entity.
Test explicit regeneration of observations for an entity.
"""
bank_id = f"test_regen_obs_{datetime.now(timezone.utc).timestamp()}"
@@ -127,7 +139,7 @@ async def test_regenerate_entity_observations(memory, request_context):
entity_id = str(entity_row['id'])
entity_name = entity_row['canonical_name']
# Manually regenerate summary (via observations API for backwards compat)
# Manually regenerate observations
created_ids = await memory.regenerate_entity_observations(
bank_id=bank_id,
entity_id=entity_id,
@@ -135,25 +147,23 @@ async def test_regenerate_entity_observations(memory, request_context):
request_context=request_context,
)
print(f"\n=== Regenerated Summary ===")
print(f"Created {len(created_ids)} summary for {entity_name}")
print(f"\n=== Regenerated Observations ===")
print(f"Created {len(created_ids)} observations for {entity_name}")
# Get entity state
state = await memory.get_entity_state(
bank_id, entity_id, entity_name, request_context=request_context
)
for obs in state.observations:
# Get the observations
observations = await memory.get_entity_observations(bank_id, entity_id, limit=10, request_context=request_context)
for obs in observations:
print(f" - {obs.text}")
# Verify summary was created
# Verify observations were created
if len(created_ids) > 0:
assert len(state.observations) == 1, "Should have exactly 1 observation (the summary)"
print(f"Summary regenerated successfully")
assert len(observations) == len(created_ids), "Should have same number of observations as created IDs"
print(f"✓ Observations regenerated successfully")
else:
print(f"Note: No summary was regenerated")
print(f"Note: No observations were regenerated")
else:
print(f"Note: No 'Sarah' entity was extracted")
print(f"Note: No 'Sarah' entity was extracted")
finally:
# Cleanup
@@ -164,14 +174,19 @@ async def test_regenerate_entity_observations(memory, request_context):
@pytest.mark.asyncio
async def test_entity_state_retrieval(memory, request_context):
async def test_manual_regenerate_with_few_facts(memory, request_context):
"""
Test retrieving entity state with facts.
Test that manual regeneration works even with fewer than 5 facts.
This is important because:
- Automatic generation during retain requires MIN_FACTS_THRESHOLD (5)
- But manual regeneration via API should work with any number of facts
- The UI triggers manual regeneration, so it should work regardless of fact count
"""
bank_id = f"test_entity_state_{datetime.now(timezone.utc).timestamp()}"
bank_id = f"test_manual_regen_{datetime.now(timezone.utc).timestamp()}"
try:
# Store facts
# Store only 2 facts - below the automatic threshold
await memory.retain_async(
bank_id=bank_id,
content="Alice works at Google as a senior software engineer.",
@@ -205,25 +220,51 @@ async def test_entity_state_retrieval(memory, request_context):
entity_id = str(entity_row['id'])
entity_name = entity_row['canonical_name']
# Check fact count
# Check fact count - should be < 5
async with pool.acquire() as conn:
fact_count = await conn.fetchval(
"SELECT COUNT(*) FROM unit_entities WHERE entity_id = $1",
entity_row['id']
)
print(f"\n=== Entity State Test ===")
print(f"\n=== Manual Regeneration Test ===")
print(f"Entity: {entity_name} (id: {entity_id})")
print(f"Linked facts: {fact_count}")
# Get entity state
state = await memory.get_entity_state(
bank_id, entity_id, entity_name, request_context=request_context
# Verify we're testing with fewer than the automatic threshold
assert fact_count < 5, f"Test requires < 5 facts, but entity has {fact_count}"
# Before regeneration - should have no observations (auto threshold not met)
obs_before = await memory.get_entity_observations(bank_id, entity_id, limit=10, request_context=request_context)
print(f"Observations before manual regenerate: {len(obs_before)}")
# Manually regenerate observations - this should work regardless of fact count
created_ids = await memory.regenerate_entity_observations(
bank_id=bank_id,
entity_id=entity_id,
entity_name=entity_name,
request_context=request_context,
)
assert state.entity_id == entity_id
assert state.canonical_name == entity_name
print(f"Entity state retrieved successfully")
print(f"Observations created by manual regenerate: {len(created_ids)}")
# Get observations after regeneration
observations = await memory.get_entity_observations(bank_id, entity_id, limit=10, request_context=request_context)
print(f"Observations after manual regenerate: {len(observations)}")
for obs in observations:
print(f" - {obs.text}")
# Manual regeneration should create observations even with < 5 facts
assert len(observations) > 0, \
f"Manual regeneration should create observations even with only {fact_count} facts. " \
f"The LLM should synthesize at least 1 observation from the available facts."
# Verify observations contain relevant content
obs_texts = " ".join([o.text.lower() for o in observations])
assert any(keyword in obs_texts for keyword in ["google", "engineer", "hiking", "photography", "alice"]), \
"Observations should contain relevant information about Alice"
print(f"✓ Manual regeneration works with {fact_count} facts (below automatic threshold of 5)")
finally:
# Cleanup
@@ -236,16 +277,16 @@ async def test_entity_state_retrieval(memory, request_context):
@pytest.mark.asyncio
async def test_search_with_include_entities(memory, request_context):
"""
Test that search with include_entities=True returns entity information.
Test that search with include_entities=True returns entity observations.
This test verifies that:
1. Entities are extracted after retain
2. Entity info is returned in recall results with include_entities=True
1. Observations are generated during retain (when entity has >= 5 facts)
2. Observations are returned in recall results with include_entities=True
"""
bank_id = f"test_search_ent_{datetime.now(timezone.utc).timestamp()}"
try:
# Store facts about Alice
# Store enough facts about Alice to trigger observation generation (>= 5 facts)
contents = [
"Alice is a data scientist who works on recommendation systems at Netflix.",
"Alice presented her research at the ML conference last month.",
@@ -264,8 +305,7 @@ async def test_search_with_include_entities(memory, request_context):
request_context=request_context,
)
# Wait for background tasks
await memory.wait_for_background_tasks()
# Observations are generated synchronously during retain, no need to wait
# Search with include_entities=True
result = await memory.recall_async(
@@ -275,7 +315,7 @@ async def test_search_with_include_entities(memory, request_context):
budget=Budget.LOW,
max_tokens=2000,
include_entities=True,
max_entity_tokens=5000,
max_entity_tokens=500,
request_context=request_context,
)
@@ -286,28 +326,40 @@ async def test_search_with_include_entities(memory, request_context):
if fact.entities:
print(f" Entities: {', '.join(fact.entities)}")
print(f"\n=== Entity Observations in Recall ===")
if result.entities:
for name, state in result.entities.items():
print(f"\n{name}:")
for obs in state.observations:
print(f" - {obs.text}")
else:
print("No entity observations returned")
# Verify results
assert len(result.results) > 0, "Should find some facts"
# Check if entities are included in facts
facts_with_entities = [f for f in result.results if f.entities]
assert len(facts_with_entities) > 0, "Some facts should have entity information"
print(f"{len(facts_with_entities)} facts have entity information")
print(f"{len(facts_with_entities)} facts have entity information")
# Check if entity info is returned
if result.entities:
print(f"Entity info included for {len(result.entities)} entities")
# Check if entity observations are included in recall
assert result.entities is not None and len(result.entities) > 0, \
"Entity observations should be included in recall results"
print(f"✓ Entity observations included for {len(result.entities)} entities")
# Verify Alice entity is in results
alice_found = False
for name, state in result.entities.items():
assert state.canonical_name == name, "Entity canonical_name should match key"
assert state.entity_id, "Entity should have an ID"
if "alice" in name.lower():
alice_found = True
print(f"Alice entity found: {name}")
# Verify Alice entity has observations
alice_found = False
for name, state in result.entities.items():
assert state.canonical_name == name, "Entity canonical_name should match key"
assert state.entity_id, "Entity should have an ID"
if "alice" in name.lower():
alice_found = True
assert len(state.observations) > 0, \
"Alice should have observations (generated during retain)"
print(f"✓ Alice has {len(state.observations)} observations in recall result")
assert alice_found, "Alice entity should be in recall results"
assert alice_found, "Alice entity should be in recall results"
finally:
# Cleanup
@@ -381,12 +433,9 @@ async def test_get_entity_state(memory, request_context):
@pytest.mark.asyncio
async def test_observation_fact_type_in_database(memory, request_context, disable_observations):
async def test_observation_fact_type_in_database(memory, request_context):
"""
Test that when observations are disabled, no observation records are created.
When enable_observations=False, consolidation does not run and no
memory_units with fact_type='observation' should exist.
Test that observations are stored with correct fact_type in database.
"""
bank_id = f"test_obs_db_{datetime.now(timezone.utc).timestamp()}"
@@ -402,7 +451,7 @@ async def test_observation_fact_type_in_database(memory, request_context, disabl
await memory.wait_for_background_tasks()
# Check that NO observations exist in memory_units
# Check that observations have correct fact_type
pool = await memory._get_pool()
async with pool.acquire() as conn:
observations = await conn.fetch(
@@ -414,11 +463,17 @@ async def test_observation_fact_type_in_database(memory, request_context, disabl
bank_id
)
print(f"\n=== Observation Records in memory_units ===")
print(f"Found {len(observations)} observation records (should be 0)")
print(f"\n=== Observation Records in Database ===")
print(f"Found {len(observations)} observation records")
for obs in observations:
print(f" - fact_type: {obs['fact_type']}")
print(f" text: {obs['text']}")
print(f" context: {obs['context']}")
# Observations are no longer stored as memory_units
assert len(observations) == 0, "Observations should NOT be stored as memory_units"
if len(observations) > 0:
for obs in observations:
assert obs['fact_type'] == 'observation', "All observation records should have fact_type='observation'"
print(f"✓ All observations have correct fact_type")
finally:
# Cleanup
@@ -429,183 +484,23 @@ async def test_observation_fact_type_in_database(memory, request_context, disabl
@pytest.mark.asyncio
async def test_entity_mention_counts(memory, request_context):
async def test_user_entity_prioritized_for_observations(memory, request_context):
"""
Test that entity mention counts are tracked correctly.
Test that the 'user' entity gets observations even when many other entities exist.
This test creates entities with varying mention counts and verifies
that the counts are accurate.
The retain pipeline only regenerates observations for TOP_N_ENTITIES (5) entities,
sorted by mention count. This test verifies that the most mentioned entity ('user')
gets prioritized and receives observations.
This is critical because 'user' is often the most important entity in personal memory.
"""
bank_id = f"test_mention_counts_{datetime.now(timezone.utc).timestamp()}"
bank_id = f"test_user_priority_{datetime.now(timezone.utc).timestamp()}"
try:
# Create content with varying entity mention counts:
# - "HighMention Corp" mentioned 10+ times
# - "LowMention Ltd" mentioned 1 time
contents = [
# High mentions - HighMention Corp
"HighMention Corp is a tech company based in San Francisco.",
"HighMention Corp was founded in 2010 by experienced entrepreneurs.",
"HighMention Corp has over 500 employees worldwide.",
"HighMention Corp specializes in cloud computing solutions.",
"HighMention Corp recently raised $50 million in Series C funding.",
"HighMention Corp has partnerships with major tech companies.",
"HighMention Corp is known for its innovative culture.",
"HighMention Corp offers competitive salaries and benefits.",
"HighMention Corp has offices in 5 countries.",
"HighMention Corp won the best workplace award last year.",
# Low mentions - LowMention Ltd
"LowMention Ltd is a small consulting firm.",
]
for i, content in enumerate(contents):
await memory.retain_async(
bank_id=bank_id,
content=content,
context="company info",
event_date=datetime(2024, 1, 15 + i, tzinfo=timezone.utc),
request_context=request_context,
)
# Wait for background tasks
await memory.wait_for_background_tasks()
# Check entity mention counts
pool = await memory._get_pool()
async with pool.acquire() as conn:
entities = await conn.fetch(
"""
SELECT e.id, e.canonical_name, e.mention_count
FROM entities e
WHERE e.bank_id = $1
ORDER BY e.mention_count DESC
""",
bank_id
)
print(f"\n=== Entity Mention Counts Test ===")
print(f"Total entities: {len(entities)}")
high_mention_entity = None
low_mention_entity = None
for entity in entities:
name = entity['canonical_name'].lower()
mention_count = entity['mention_count']
print(f" {entity['canonical_name']}: mentions={mention_count}")
if "highmention" in name:
high_mention_entity = entity
elif "lowmention" in name:
low_mention_entity = entity
# Verify HighMention Corp has higher mention count
if high_mention_entity and low_mention_entity:
assert high_mention_entity['mention_count'] > low_mention_entity['mention_count'], \
"HighMention Corp should have more mentions than LowMention Ltd"
print("PASS: Entity mention counts are tracked correctly")
finally:
# Cleanup
pool = await memory._get_pool()
async with pool.acquire() as conn:
await conn.execute("DELETE FROM memory_units WHERE bank_id = $1", bank_id)
await conn.execute("DELETE FROM entities WHERE bank_id = $1", bank_id)
@pytest.mark.asyncio
async def test_entity_mention_ranking(memory, request_context):
"""
Test that entity mention counts correctly rank entities.
This test:
1. Creates an entity with 6 mentions
2. Adds more entities with higher mention counts
3. Verifies entities are ranked correctly by mention count
"""
bank_id = f"test_ranking_{datetime.now(timezone.utc).timestamp()}"
try:
# Phase 1: Create "OriginalEntity" with 6 mentions
print("\n=== Phase 1: Create OriginalEntity with 6 mentions ===")
for i in range(6):
await memory.retain_async(
bank_id=bank_id,
content=f"OriginalEntity is mentioned here in fact {i+1}.",
context="test",
event_date=datetime(2024, 1, 1 + i, tzinfo=timezone.utc),
request_context=request_context,
)
await memory.wait_for_background_tasks()
# Phase 2: Add more entities with MORE mentions
print("\n=== Phase 2: Add entities with 10+ mentions each ===")
for entity_num in range(3): # Reduced from 10 to 3 to speed up test
entity_name = f"NewEntity{entity_num}"
for mention in range(10):
await memory.retain_async(
bank_id=bank_id,
content=f"{entity_name} is a very important entity, mention {mention+1}.",
context="test",
event_date=datetime(2024, 2, 1 + mention, tzinfo=timezone.utc),
request_context=request_context,
)
await memory.wait_for_background_tasks()
# Phase 3: Verify entities are ranked by mention count
print("\n=== Phase 3: Check entity ranking ===")
pool = await memory._get_pool()
async with pool.acquire() as conn:
all_entities = await conn.fetch(
"""
SELECT canonical_name, mention_count
FROM entities
WHERE bank_id = $1
ORDER BY mention_count DESC
""",
bank_id
)
print(f"\nAll entities by mention count:")
for e in all_entities:
print(f" {e['canonical_name']}: mentions={e['mention_count']}")
# Verify new entities have higher counts than OriginalEntity
original = next((e for e in all_entities if 'originalentity' in e['canonical_name'].lower()), None)
new_entities = [e for e in all_entities if 'newentity' in e['canonical_name'].lower()]
assert original is not None, "OriginalEntity should exist"
assert len(new_entities) > 0, "NewEntity entities should exist"
# Verify entities are created and have mention counts
# Note: LLM may merge mentions, so we just check that new entities exist
print(f"OriginalEntity mentions: {original['mention_count']}")
for new_entity in new_entities:
print(f"{new_entity['canonical_name']} mentions: {new_entity['mention_count']}")
print("PASS: Entities are created with mention counts tracked")
finally:
# Cleanup
pool = await memory._get_pool()
async with pool.acquire() as conn:
await conn.execute("DELETE FROM memory_units WHERE bank_id = $1", bank_id)
await conn.execute("DELETE FROM entities WHERE bank_id = $1", bank_id)
@pytest.mark.asyncio
async def test_user_entity_extraction(memory, request_context):
"""
Test that the 'user' entity is correctly extracted when mentioned frequently.
"""
bank_id = f"test_user_entity_{datetime.now(timezone.utc).timestamp()}"
try:
# Create content where 'user' is mentioned many times
# Create content where 'user' (the user) is mentioned many times
# along with several other entities
contents = [
# User mentioned frequently
"The user loves hiking in the mountains during summer.",
"The user works as a software engineer at Microsoft.",
"The user has a dog named Max who is a golden retriever.",
@@ -615,8 +510,11 @@ async def test_user_entity_extraction(memory, request_context):
# Other entities mentioned fewer times
"Sarah is a friend who works at Google.",
"Bob is a colleague from the data science team.",
"Tokyo is a city the user visited last year.",
"Python is the user's favorite programming language.",
]
# Retain all content in a single batch for efficiency
for i, content in enumerate(contents):
await memory.retain_async(
bank_id=bank_id,
@@ -626,12 +524,12 @@ async def test_user_entity_extraction(memory, request_context):
request_context=request_context,
)
# Wait for background tasks
await memory.wait_for_background_tasks()
# Observations are generated synchronously during retain
# Find the 'user' entity
pool = await memory._get_pool()
async with pool.acquire() as conn:
# Find user entity (may be named "user", "the user", etc.)
user_entity = await conn.fetchrow(
"""
SELECT e.id, e.canonical_name,
@@ -646,7 +544,7 @@ async def test_user_entity_extraction(memory, request_context):
bank_id
)
# Get all entities with their fact counts
# Get all entities with their fact counts to verify prioritization
all_entities = await conn.fetch(
"""
SELECT e.id, e.canonical_name,
@@ -666,10 +564,41 @@ async def test_user_entity_extraction(memory, request_context):
# Verify user entity exists
assert user_entity is not None, "User entity should have been extracted"
user_entity_id = str(user_entity['id'])
user_entity_name = user_entity['canonical_name']
user_fact_count = user_entity['fact_count']
print(f"\n=== User Entity ===")
print(f"Entity: {user_entity['canonical_name']} (id: {user_entity['id']})")
print(f"Fact count: {user_entity['fact_count']}")
print(f"User entity was successfully extracted")
print(f"Entity: {user_entity_name} (id: {user_entity_id})")
print(f"Fact count: {user_fact_count}")
# Verify user has enough facts for observations (>= MIN_FACTS_THRESHOLD of 5)
assert user_fact_count >= 5, \
f"User entity should have at least 5 facts, but has {user_fact_count}"
# Get observations for user entity
observations = await memory.get_entity_observations(bank_id, user_entity_id, limit=10, request_context=request_context)
print(f"\n=== User Entity Observations ===")
print(f"Total observations: {len(observations)}")
for obs in observations:
print(f" - {obs.text}")
# Verify observations were generated for user (critical assertion)
assert len(observations) > 0, \
f"User entity should have observations (has {user_fact_count} facts, threshold is 5). " \
f"This may indicate that 'user' is not being prioritized in the top 5 entities by mention count."
# Verify observations mention relevant content about the user
obs_texts = " ".join([o.text.lower() for o in observations])
user_keywords = ["hiking", "software", "engineer", "dog", "max", "cooking",
"italian", "mit", "dune", "microsoft"]
matching_keywords = [k for k in user_keywords if k in obs_texts]
assert len(matching_keywords) > 0, \
f"Observations should contain relevant information about the user. Keywords found: {matching_keywords}"
print(f"✓ User entity was prioritized and received {len(observations)} observations")
print(f"✓ Observations contain relevant keywords: {matching_keywords}")
finally:
# Cleanup
-403
View File
@@ -1,403 +0,0 @@
"""
Tests for the reflect agent with mocked LLM outputs.
These tests verify:
1. Tool name normalization for various LLM output formats
2. Recovery from unknown tool calls
3. Recovery from tool execution errors
"""
import pytest
from unittest.mock import AsyncMock, MagicMock, patch
from hindsight_api.engine.reflect.agent import (
_normalize_tool_name,
_is_done_tool,
_clean_answer_text,
_clean_done_answer,
run_reflect_agent,
)
from hindsight_api.engine.response_models import LLMToolCall, LLMToolCallResult, TokenUsage
class TestCleanAnswerText:
"""Test cleanup of answer text that includes done() tool call syntax."""
def test_clean_text_with_done_call(self):
"""Text ending with done() call should have it stripped."""
text = '''The team's OKRs focus on performance.done({"answer":"The team's OKRs","memory_ids":[]})'''
cleaned = _clean_answer_text(text)
assert cleaned == "The team's OKRs focus on performance."
assert "done(" not in cleaned
def test_clean_text_with_done_call_and_whitespace(self):
"""done() call with whitespace should be stripped."""
text = '''Answer text here. done( {"answer": "short", "memory_ids": []} )'''
cleaned = _clean_answer_text(text)
assert cleaned == "Answer text here."
def test_clean_text_without_done_call(self):
"""Text without done() call should be unchanged."""
text = "This is a normal answer without any tool calls."
cleaned = _clean_answer_text(text)
assert cleaned == text
def test_clean_text_with_done_word_in_content(self):
"""The word 'done' in regular text should not be stripped."""
text = "The task is done and completed successfully."
cleaned = _clean_answer_text(text)
assert cleaned == text
def test_clean_empty_text(self):
"""Empty text should return empty."""
assert _clean_answer_text("") == ""
def test_clean_text_multiline_done(self):
"""done() call spanning multiple lines should be stripped."""
text = '''Summary of findings.done({
"answer": "Summary",
"memory_ids": ["id1", "id2"]
})'''
cleaned = _clean_answer_text(text)
assert cleaned == "Summary of findings."
class TestCleanDoneAnswer:
"""Test cleanup of answer field from done() tool call that leaks structured output."""
def test_clean_answer_with_leaked_json_code_block(self):
"""Answer with leaked JSON code block at the end should be cleaned."""
text = '''The user's favorite color is blue.
```json
{"observation_ids": ["obs-1", "obs-2"]}
```'''
cleaned = _clean_done_answer(text)
assert cleaned == "The user's favorite color is blue."
assert "observation_ids" not in cleaned
def test_clean_answer_with_memory_ids_code_block(self):
"""Answer with leaked memory_ids JSON code block should be cleaned."""
text = '''Here is the answer.
```json
{"memory_ids": ["mem-1"]}
```'''
cleaned = _clean_done_answer(text)
assert cleaned == "Here is the answer."
def test_clean_answer_with_raw_json_object(self):
"""Answer with raw JSON object containing IDs at the end should be cleaned."""
text = 'The answer is 42. {"observation_ids": ["obs-1"]}'
cleaned = _clean_done_answer(text)
assert cleaned == "The answer is 42."
def test_clean_answer_with_trailing_ids_pattern(self):
"""Answer with 'observation_ids: [...]' pattern at the end should be cleaned."""
text = "This is the answer.\n\nobservation_ids: [\"obs-1\", \"obs-2\"]"
cleaned = _clean_done_answer(text)
assert cleaned == "This is the answer."
def test_clean_answer_with_memory_ids_equals(self):
"""Answer with 'memory_ids = [...]' pattern at the end should be cleaned."""
text = "Answer text here.\nmemory_ids = [\"mem-1\"]"
cleaned = _clean_done_answer(text)
assert cleaned == "Answer text here."
def test_clean_normal_answer_unchanged(self):
"""Normal answer without leaked output should be unchanged."""
text = "This is a normal answer about observation strategies."
cleaned = _clean_done_answer(text)
assert cleaned == text
def test_clean_empty_answer(self):
"""Empty answer should return empty."""
assert _clean_done_answer("") == ""
def test_clean_answer_with_observation_word_in_content(self):
"""The word 'observation' in regular text should not be stripped."""
text = "Based on my observation, the user prefers dark mode."
cleaned = _clean_done_answer(text)
assert cleaned == text
def test_clean_answer_multiline_with_markdown(self):
"""Answer with markdown and leaked JSON at end should clean only the leak."""
text = '''Summary:
- Point 1
- Point 2
```json
{"mental_model_ids": ["mm-1"]}
```'''
cleaned = _clean_done_answer(text)
assert "Point 1" in cleaned
assert "Point 2" in cleaned
assert "mental_model_ids" not in cleaned
class TestToolNameNormalization:
"""Test tool name normalization for various LLM output formats."""
def test_normalize_standard_name(self):
"""Standard tool names should pass through unchanged."""
assert _normalize_tool_name("done") == "done"
assert _normalize_tool_name("recall") == "recall"
assert _normalize_tool_name("search_mental_models") == "search_mental_models"
assert _normalize_tool_name("search_observations") == "search_observations"
assert _normalize_tool_name("expand") == "expand"
def test_normalize_functions_prefix(self):
"""Tool names with 'functions.' prefix should be normalized."""
assert _normalize_tool_name("functions.done") == "done"
assert _normalize_tool_name("functions.recall") == "recall"
assert _normalize_tool_name("functions.search_mental_models") == "search_mental_models"
def test_normalize_call_equals_prefix(self):
"""Tool names with 'call=' prefix should be normalized."""
assert _normalize_tool_name("call=done") == "done"
assert _normalize_tool_name("call=recall") == "recall"
def test_normalize_call_equals_functions_prefix(self):
"""Tool names with 'call=functions.' prefix should be normalized."""
assert _normalize_tool_name("call=functions.done") == "done"
assert _normalize_tool_name("call=functions.recall") == "recall"
assert _normalize_tool_name("call=functions.search_observations") == "search_observations"
def test_is_done_tool(self):
"""Test _is_done_tool helper."""
# Standard
assert _is_done_tool("done") is True
assert _is_done_tool("recall") is False
# With prefixes
assert _is_done_tool("functions.done") is True
assert _is_done_tool("call=done") is True
assert _is_done_tool("call=functions.done") is True
# Not done
assert _is_done_tool("functions.recall") is False
assert _is_done_tool("call=functions.recall") is False
class TestReflectAgentMocked:
"""Test reflect agent with mocked LLM outputs."""
@pytest.fixture
def mock_llm(self):
"""Create a mock LLM provider."""
llm = MagicMock()
llm.call_with_tools = AsyncMock()
# Also mock call() for final iteration fallback - returns (response, usage) tuple
llm.call = AsyncMock(
return_value=("Fallback answer from final iteration", TokenUsage(input_tokens=100, output_tokens=50, total_tokens=150))
)
return llm
@pytest.fixture
def mock_functions(self):
"""Create mock search/recall functions."""
return {
"search_mental_models_fn": AsyncMock(return_value={"mental_models": []}),
"search_observations_fn": AsyncMock(return_value={"observations": []}),
"recall_fn": AsyncMock(return_value={"memories": [{"id": "mem-1", "content": "test memory"}]}),
"expand_fn": AsyncMock(return_value={"memories": []}),
}
@pytest.mark.asyncio
async def test_handles_functions_prefix_in_done(self, mock_llm, mock_functions):
"""Test that 'functions.done' is handled correctly."""
# First call: LLM calls recall
# Second call: LLM calls functions.done
mock_llm.call_with_tools.side_effect = [
LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="recall", arguments={"query": "test"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[
LLMToolCall(
id="2",
name="functions.done",
arguments={"answer": "Test answer", "memory_ids": ["mem-1"]},
)
],
finish_reason="tool_calls",
),
]
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
**mock_functions,
)
assert result.text == "Test answer"
assert "mem-1" in result.used_memory_ids
@pytest.mark.asyncio
async def test_handles_call_equals_functions_prefix(self, mock_llm, mock_functions):
"""Test that 'call=functions.done' is handled correctly."""
mock_llm.call_with_tools.side_effect = [
LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="recall", arguments={"query": "test"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[
LLMToolCall(
id="2",
name="call=functions.done",
arguments={"answer": "Test answer", "memory_ids": ["mem-1"]},
)
],
finish_reason="tool_calls",
),
]
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
**mock_functions,
)
assert result.text == "Test answer"
@pytest.mark.asyncio
async def test_recovery_from_unknown_tool(self, mock_llm, mock_functions):
"""Test that LLM can recover after calling an unknown tool."""
# First call: LLM calls unknown tool
# Second call: LLM calls valid recall after seeing error
# Third call: LLM calls done
mock_llm.call_with_tools.side_effect = [
LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="invalid_tool", arguments={"foo": "bar"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[LLMToolCall(id="2", name="recall", arguments={"query": "test"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[
LLMToolCall(
id="3",
name="done",
arguments={"answer": "Recovered successfully", "memory_ids": ["mem-1"]},
)
],
finish_reason="tool_calls",
),
]
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
**mock_functions,
)
assert result.text == "Recovered successfully"
# Verify the LLM was called 3 times (initial + recovery + done)
assert mock_llm.call_with_tools.call_count == 3
@pytest.mark.asyncio
async def test_recovery_from_tool_execution_error(self, mock_llm, mock_functions):
"""Test that LLM can recover after a tool execution fails."""
# Make recall fail the first time, succeed the second time
mock_functions["recall_fn"].side_effect = [
Exception("Database connection failed"),
{"memories": [{"id": "mem-1", "content": "test memory"}]},
]
mock_llm.call_with_tools.side_effect = [
LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="recall", arguments={"query": "test"})],
finish_reason="tool_calls",
),
# LLM tries again after seeing error
LLMToolCallResult(
tool_calls=[LLMToolCall(id="2", name="recall", arguments={"query": "test retry"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[
LLMToolCall(
id="3",
name="done",
arguments={"answer": "Recovered from error", "memory_ids": ["mem-1"]},
)
],
finish_reason="tool_calls",
),
]
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
**mock_functions,
)
assert result.text == "Recovered from error"
assert mock_llm.call_with_tools.call_count == 3
@pytest.mark.asyncio
async def test_normalizes_tool_names_in_other_tools(self, mock_llm, mock_functions):
"""Test that tool names are normalized for all tools, not just done."""
mock_llm.call_with_tools.side_effect = [
# LLM calls 'functions.recall' instead of 'recall'
LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="functions.recall", arguments={"query": "test"})],
finish_reason="tool_calls",
),
LLMToolCallResult(
tool_calls=[
LLMToolCall(
id="2",
name="done",
arguments={"answer": "Test answer", "memory_ids": ["mem-1"]},
)
],
finish_reason="tool_calls",
),
]
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
**mock_functions,
)
assert result.text == "Test answer"
# Verify recall was actually called (normalization worked)
mock_functions["recall_fn"].assert_called_once()
@pytest.mark.asyncio
async def test_max_iterations_reached(self, mock_llm, mock_functions):
"""Test that agent stops after max iterations even with errors."""
# LLM keeps calling unknown tools
mock_llm.call_with_tools.return_value = LLMToolCallResult(
tool_calls=[LLMToolCall(id="1", name="unknown_tool", arguments={})],
finish_reason="tool_calls",
)
result = await run_reflect_agent(
llm_config=mock_llm,
bank_id="test-bank",
query="test query",
bank_profile={"name": "Test", "mission": "Testing"},
max_iterations=3,
**mock_functions,
)
# Should have a result even if no memories found
assert result is not None
assert result.iterations == 3
-448
View File
@@ -1,448 +0,0 @@
"""Tests for mental models (formerly reflections), observations, and learnings functionality."""
import uuid
import pytest
import pytest_asyncio
import httpx
from hindsight_api.api import create_app
from hindsight_api.engine.memory_engine import MemoryEngine
@pytest_asyncio.fixture
async def api_client(memory):
"""Create an async test client for the FastAPI app."""
app = create_app(memory, initialize_memory=False)
transport = httpx.ASGITransport(app=app)
async with httpx.AsyncClient(transport=transport, base_url="http://test") as client:
yield client
@pytest.fixture
def test_bank_id():
"""Provide a unique bank ID for this test run."""
return f"test_mental_models_{uuid.uuid4().hex[:8]}"
class TestMentalModelsCRUD:
"""Test mental models CRUD operations via memory engine."""
@pytest.mark.asyncio
async def test_create_and_get_mental_model(self, memory: MemoryEngine, request_context):
"""Test creating and retrieving a mental model."""
bank_id = f"test-mental-model-{uuid.uuid4().hex[:8]}"
# Create the bank first
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Create a mental model
mental_model = await memory.create_mental_model(
bank_id=bank_id,
name="Team Preferences",
source_query="What are the team's communication preferences?",
content="The team prefers async communication via Slack",
tags=["team"],
request_context=request_context,
)
assert mental_model["name"] == "Team Preferences"
assert mental_model["source_query"] == "What are the team's communication preferences?"
assert mental_model["content"] == "The team prefers async communication via Slack"
assert mental_model["tags"] == ["team"]
assert "id" in mental_model
# Get the mental model
fetched = await memory.get_mental_model(
bank_id=bank_id,
mental_model_id=mental_model["id"],
request_context=request_context,
)
assert fetched["id"] == mental_model["id"]
assert fetched["name"] == "Team Preferences"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_list_mental_models(self, memory: MemoryEngine, request_context):
"""Test listing mental models with filters."""
bank_id = f"test-mental-model-list-{uuid.uuid4().hex[:8]}"
# Create the bank first
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Create multiple mental models
await memory.create_mental_model(
bank_id=bank_id,
name="Mental Model 1",
source_query="Query 1",
content="Content 1",
tags=["tag1"],
request_context=request_context,
)
await memory.create_mental_model(
bank_id=bank_id,
name="Mental Model 2",
source_query="Query 2",
content="Content 2",
tags=["tag2"],
request_context=request_context,
)
# List all
all_mental_models = await memory.list_mental_models(
bank_id=bank_id,
request_context=request_context,
)
assert len(all_mental_models) == 2
# List with tag filter
tag1_mental_models = await memory.list_mental_models(
bank_id=bank_id,
tags=["tag1"],
request_context=request_context,
)
assert len(tag1_mental_models) == 1
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_update_mental_model(self, memory: MemoryEngine, request_context):
"""Test updating a mental model."""
bank_id = f"test-mental-model-update-{uuid.uuid4().hex[:8]}"
# Create the bank first
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Create a mental model
mental_model = await memory.create_mental_model(
bank_id=bank_id,
name="Original Name",
source_query="Original Query",
content="Original Content",
request_context=request_context,
)
# Update the mental model
updated = await memory.update_mental_model(
bank_id=bank_id,
mental_model_id=mental_model["id"],
name="Updated Name",
content="Updated Content",
request_context=request_context,
)
assert updated["name"] == "Updated Name"
assert updated["content"] == "Updated Content"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_delete_mental_model(self, memory: MemoryEngine, request_context):
"""Test deleting a mental model."""
bank_id = f"test-mental-model-delete-{uuid.uuid4().hex[:8]}"
# Create the bank first
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Create a mental model
mental_model = await memory.create_mental_model(
bank_id=bank_id,
name="To Delete",
source_query="Query",
content="Content",
request_context=request_context,
)
# Delete the mental model
await memory.delete_mental_model(
bank_id=bank_id,
mental_model_id=mental_model["id"],
request_context=request_context,
)
# Verify deletion - should return None
fetched = await memory.get_mental_model(
bank_id=bank_id,
mental_model_id=mental_model["id"],
request_context=request_context,
)
assert fetched is None
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
class TestObservationsAPI:
"""Test observations API endpoints.
NOTE: Observations are now stored in memory_units with fact_type='observation'
and accessed via recall with fact_type=["observation"]. The old /observations
endpoint was removed. These tests are skipped.
"""
@pytest.mark.skip(reason="Observations endpoint removed - use recall with fact_type=['observation']")
@pytest.mark.asyncio
async def test_list_observations_empty(self, api_client, test_bank_id):
"""Test listing observations when none exist."""
pass
@pytest.mark.skip(reason="Observations endpoint removed - use recall with fact_type=['observation']")
@pytest.mark.asyncio
async def test_get_observation_not_found(self, api_client, test_bank_id):
"""Test getting a non-existent observation."""
pass
class TestMentalModelsAPI:
"""Test mental models API endpoints."""
@pytest.mark.asyncio
async def test_mental_models_api_crud(self, api_client, test_bank_id):
"""Test full CRUD cycle through API."""
import asyncio
# Create bank first via profile endpoint
await api_client.get(f"/v1/default/banks/{test_bank_id}/profile")
# Create a mental model (async operation)
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/mental-models",
json={
"name": "API Test Mental Model",
"source_query": "What is the API test about?",
"content": "This is an API test mental model",
"tags": ["api-test"],
},
)
assert response.status_code == 200
create_result = response.json()
assert "operation_id" in create_result
operation_id = create_result["operation_id"]
# Wait for the async operation to complete
for _ in range(30): # Wait up to 30 seconds
response = await api_client.get(f"/v1/default/banks/{test_bank_id}/operations/{operation_id}")
if response.status_code == 200:
op_status = response.json()
if op_status.get("status") == "completed":
break
await asyncio.sleep(1)
# List mental models to get the created mental model
response = await api_client.get(f"/v1/default/banks/{test_bank_id}/mental-models")
assert response.status_code == 200
mental_models = response.json()["items"]
assert len(mental_models) >= 1
# Find our mental model
mental_model = next((m for m in mental_models if m["name"] == "API Test Mental Model"), None)
assert mental_model is not None, f"Mental model not found. Items: {mental_models}"
mental_model_id = mental_model["id"]
# Get the mental model
response = await api_client.get(f"/v1/default/banks/{test_bank_id}/mental-models/{mental_model_id}")
assert response.status_code == 200
assert response.json()["name"] == "API Test Mental Model"
# Update the mental model
response = await api_client.patch(
f"/v1/default/banks/{test_bank_id}/mental-models/{mental_model_id}",
json={"name": "Updated API Test Mental Model"},
)
assert response.status_code == 200
assert response.json()["name"] == "Updated API Test Mental Model"
# Delete the mental model
response = await api_client.delete(f"/v1/default/banks/{test_bank_id}/mental-models/{mental_model_id}")
assert response.status_code == 200
# Verify deletion
response = await api_client.get(f"/v1/default/banks/{test_bank_id}/mental-models/{mental_model_id}")
assert response.status_code == 404
# Cleanup
await api_client.delete(f"/v1/default/banks/{test_bank_id}")
class TestRecallWithObservationsAndMentalModels:
"""Test recall integration with observations and mental models."""
@pytest.mark.asyncio
async def test_recall_includes_observations(self, api_client, test_bank_id):
"""Test that recall can include observations in the response."""
# Create bank first via profile endpoint
await api_client.get(f"/v1/default/banks/{test_bank_id}/profile")
# Note: Observations are auto-created via consolidation, not manually
# This test just verifies the include parameter works
# Recall with observations included
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/memories/recall",
json={
"query": "What is machine learning?",
"include": {
"observations": {"max_results": 5},
},
},
)
assert response.status_code == 200
result = response.json()
# Should have observations field in response (may be empty)
assert "observations" in result or result.get("observations") is None
# Cleanup
await api_client.delete(f"/v1/default/banks/{test_bank_id}")
@pytest.mark.asyncio
async def test_recall_includes_mental_models(self, api_client, test_bank_id):
"""Test that recall can include mental models in the response."""
# Create bank first via profile endpoint
await api_client.get(f"/v1/default/banks/{test_bank_id}/profile")
# Create a mental model first
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/mental-models",
json={
"name": "AI Overview",
"source_query": "What is AI?",
"content": "Artificial intelligence is the simulation of human intelligence",
"tags": [],
},
)
assert response.status_code == 200
# Recall with mental models included
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/memories/recall",
json={
"query": "What is artificial intelligence?",
"include": {
"mental_models": {"max_results": 5},
},
},
)
assert response.status_code == 200
result = response.json()
# Should have mental_models in response (may be empty if embedding not generated yet)
assert "mental_models" in result or result.get("mental_models") is None
# Cleanup
await api_client.delete(f"/v1/default/banks/{test_bank_id}")
@pytest.mark.asyncio
async def test_recall_without_observations_by_default(self, api_client, test_bank_id):
"""Test that recall does not include observations by default."""
# Create bank first via profile endpoint
await api_client.get(f"/v1/default/banks/{test_bank_id}/profile")
# Recall without specifying observations
response = await api_client.post(
f"/v1/default/banks/{test_bank_id}/memories/recall",
json={
"query": "Test query",
},
)
assert response.status_code == 200
result = response.json()
# Observations should not be in response
assert result.get("observations") is None
# Cleanup
await api_client.delete(f"/v1/default/banks/{test_bank_id}")
class TestReflectUsesMentalModels:
"""Test that reflect searches and uses mental models when available."""
@pytest.mark.asyncio
async def test_reflect_searches_mental_models_when_available(self, memory: MemoryEngine, request_context):
"""Test that reflect uses search_mental_models when the bank has mental models.
Given:
- A bank with a mental model about "team collaboration"
Expected:
- Reflect should call search_mental_models tool
- The mental model content should influence the response
"""
bank_id = f"test-reflect-mm-{uuid.uuid4().hex[:8]}"
# Create the bank
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Create a mental model about team collaboration
mental_model = await memory.create_mental_model(
bank_id=bank_id,
mental_model_id=str(uuid.uuid4()),
name="Team Collaboration Practices",
source_query="How does the team collaborate?",
content="The team uses async communication via Slack and holds daily standups at 9am. "
"Code reviews are required before merging. The team values documentation and "
"prefers written communication for complex decisions.",
tags=["team"],
request_context=request_context,
)
# Run reflect with a query about team collaboration
result = await memory.reflect_async(
bank_id=bank_id,
query="How does the team work together?",
request_context=request_context,
)
# Check that mental models were searched
tool_calls = result.tool_trace
search_mm_calls = [tc for tc in tool_calls if tc.tool == "search_mental_models"]
assert len(search_mm_calls) > 0, (
f"Expected search_mental_models to be called when bank has mental models. "
f"Tool calls: {[tc.tool for tc in tool_calls]}"
)
# Check that the reason field is populated for debugging
for tc in search_mm_calls:
assert tc.reason is not None, "Tool call should have a reason for debugging"
# The response should mention concepts from the mental model
response_text = result.text.lower()
has_relevant_content = any(
keyword in response_text
for keyword in ["slack", "async", "standup", "code review", "documentation", "communication"]
)
assert has_relevant_content, (
f"Expected response to reference mental model content. Got: {result.text[:500]}"
)
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
@pytest.mark.asyncio
async def test_reflect_tool_trace_includes_reason(self, memory: MemoryEngine, request_context):
"""Test that tool traces include the reason field for debugging."""
bank_id = f"test-reflect-reason-{uuid.uuid4().hex[:8]}"
# Create the bank
await memory.get_bank_profile(bank_id=bank_id, request_context=request_context)
# Run reflect - it should use observations or recall
result = await memory.reflect_async(
bank_id=bank_id,
query="What is the weather like?",
request_context=request_context,
)
# All tool calls should have a reason
for tc in result.tool_trace:
if tc.tool != "done": # done doesn't need a reason
assert tc.reason is not None, f"Tool {tc.tool} should have a reason for debugging"
# Cleanup
await memory.delete_bank(bank_id, request_context=request_context)
+1 -25
View File
@@ -279,7 +279,6 @@ async def test_event_date_storage(memory, request_context):
@pytest.mark.asyncio
@pytest.mark.xfail(reason="LLM date extraction from content is non-deterministic", strict=False)
async def test_temporal_ordering(memory, request_context):
"""
Test that facts can be stored and retrieved with correct temporal ordering.
@@ -466,7 +465,7 @@ async def test_occurred_dates_not_defaulted(memory, request_context):
query="Tell me about Alice",
budget=Budget.LOW,
max_tokens=500,
fact_type=["world", "experience"],
fact_type=["world", "opinion"],
request_context=request_context,
)
@@ -2059,26 +2058,3 @@ async def test_user_provided_entities(memory, request_context):
finally:
await memory.delete_bank(bank_id, request_context=request_context)
def test_recall_result_model_empty_construction():
"""
Test that RecallResultModel can be constructed with empty results.
This is a regression test for the bug where constructing an empty RecallResultModel
would cause an UnboundLocalError because RecallResult was imported as RecallResultModel
but the code mistakenly used the wrong name.
The fix ensures RecallResultModel is used consistently throughout memory_engine.py.
"""
from hindsight_api.engine.response_models import RecallResult
# This should not raise any errors
result = RecallResult(results=[], entities={}, chunks={})
assert result is not None, "Should create a result object"
assert result.results == [], "Should have empty results"
assert result.entities == {}, "Should have empty entities"
assert result.chunks == {}, "Should have empty chunks"
logger.info("✓ RecallResult empty construction works correctly")
+1 -6
View File
@@ -11,8 +11,8 @@ import uuid
import pytest
import pytest_asyncio
from hindsight_api.engine.memory_engine import _current_schema, fq_table
from hindsight_api.extensions import RequestContext, TenantContext, TenantExtension
from hindsight_api.engine.memory_engine import _current_schema, fq_table
from hindsight_api.migrations import run_migrations
@@ -52,11 +52,6 @@ class MultiSchemaTestTenantExtension(TenantExtension):
raise AuthenticationError(f"Unknown API key: {context.api_key}")
async def list_tenants(self) -> list:
from hindsight_api.extensions.tenant import Tenant
return [Tenant(schema=schema) for schema in self.valid_schemas]
async def drop_schema(conn, schema_name: str) -> None:
"""Drop a schema and all its contents."""

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