recallbricks 1.1.1

Enterprise-Grade Memory Layer for AI - Persistent memory with advanced metacognition

RecallBricks Python SDK

Enterprise-Grade Memory Layer for AI - Persistent, intelligent memory across all AI models with advanced metacognition features.

Installation

pip install recallbricks

Quick Start (< 10 lines)

from recallbricks import RecallBricks

rb = RecallBricks("your-api-key")

# Save and retrieve memories
rb.save("User prefers dark mode", tags=["preference", "ui"])

# Get intelligent suggestions based on context
suggestions = rb.suggest_memories("Building a login form", min_confidence=0.7)
for sug in suggestions:
    print(f"💡 {sug.content} - {sug.reasoning}")

Features

🧠 Phase 2A: Metacognition & Intelligence

RecallBricks now includes advanced metacognition features that make your AI smarter about its own memory:

1. Predict Memories - Proactive Memory Suggestions

Predict which memories might be useful based on context and recent usage patterns:

# Predict memories based on what you're working on
predictions = rb.predict_memories(
    context="User is implementing authentication",
    recent_memory_ids=["mem_123", "mem_456"],  # Recently accessed
    limit=10
)

for pred in predictions:
    print(f"Predicted: {pred.content}")
    print(f"Confidence: {pred.confidence_score}")
    print(f"Reasoning: {pred.reasoning}")

2. Suggest Memories - Context-Aware Recommendations

Get intelligent memory suggestions based on current context:

# Get suggestions for current task
suggestions = rb.suggest_memories(
    context="Building a React authentication flow with JWT",
    limit=5,
    min_confidence=0.7,
    include_reasoning=True
)

for sug in suggestions:
    print(f"\n📌 {sug.content}")
    print(f"   Confidence: {sug.confidence:.2%}")
    print(f"   Why: {sug.reasoning}")
    print(f"   Context: {sug.relevance_context}")

3. Learning Metrics - Understand Memory Performance

Analyze how your AI is learning and using memories:

# Get learning metrics for the past 30 days
metrics = rb.get_learning_metrics(days=30)

print(f"Average Helpfulness: {metrics.avg_helpfulness:.2%}")
print(f"Total Usage: {metrics.total_usage}")
print(f"Active Memories: {metrics.active_memories}/{metrics.total_memories}")
print(f"Helpfulness Trend: {metrics.trends.helpfulness_trend}")
print(f"Usage Trend: {metrics.trends.usage_trend}")
print(f"Growth Rate: {metrics.trends.growth_rate:.2%}")

4. Pattern Analysis - Discover Usage Patterns

Discover patterns in how memories are being used:

# Analyze memory usage patterns
patterns = rb.get_patterns(days=14)

print(f"Summary: {patterns.summary}")
print(f"\nMost Useful Tags: {', '.join(patterns.most_useful_tags[:5])}")

print("\nFrequently Accessed Together:")
for pair in patterns.frequently_accessed_together[:3]:
    print(f"  - {pair[0]} ↔ {pair[1]}")

print("\nUnderutilized Memories:")
for mem in patterns.underutilized_memories[:5]:
    print(f"  - {mem['text']}")

5. Weighted Search - Intelligent Search Ranking

Search with intelligent weighting based on usage, helpfulness, and recency:

# Smart search with adaptive weighting
results = rb.search_weighted(
    query="authentication",
    limit=10,
    weight_by_usage=True,        # Boost frequently used memories
    decay_old_memories=True,      # Reduce score for old memories
    adaptive_weights=True,        # Use ML-based adaptive weighting
    min_helpfulness_score=0.7     # Filter by helpfulness
)

for result in results:
    print(f"\n🔍 {result.text}")
    print(f"   Relevance: {result.relevance_score:.2f}")
    print(f"   Usage Boost: +{result.usage_boost:.2f}")
    print(f"   Helpfulness: +{result.helpfulness_boost:.2f}")
    print(f"   Recency: +{result.recency_boost:.2f}")
    print(f"   Tags: {', '.join(result.tags)}")

🔗 Relationship Support

Build connected knowledge graphs with memory relationships:

# Save a memory
memory = rb.save("Fixed authentication bug in login flow")

# Get relationships for a memory
rels = rb.get_relationships(memory['id'])
print(f"Found {rels['count']} relationships")

# Get memory graph with relationships
graph = rb.get_graph_context(memory['id'], depth=2)
print(f"Graph contains {len(graph['nodes'])} connected memories")

# Search with relationships included
results = rb.search("authentication", include_relationships=True)
for result in results:
    if result.get('relationships'):
        print(f"Memory: {result['text']}")
        print(f"Related memories: {result['relationships']['count']}")

🛡️ Enterprise-Grade Reliability

• Automatic Retry Logic: Exponential backoff (1s, 2s, 4s) with 3 retry attempts
• Rate Limiting Handling: Automatic retry on 429 errors with respect for rate limits
• Network Timeout Recovery: Configurable timeouts with automatic recovery
• Input Sanitization: Protection against injection attacks (SQL, XSS, command injection)
• Comprehensive Error Handling: Detailed error messages and status codes

# Configure timeout and automatic retries
rb = RecallBricks(
    api_key="your-api-key",
    timeout=30  # 30 second timeout
)

# All methods automatically retry on transient failures
memory = rb.save("Important data")  # Retries up to 3 times on failure

API Reference

Core Methods

save(text, source="api", project_id="default", tags=None, metadata=None, max_retries=3)

Save a new memory with automatic retry on failure.

get_all(limit=None)

Retrieve all memories.

search(query, limit=10, include_relationships=False)

Search memories by text.

get(memory_id)

Get a specific memory by ID.

delete(memory_id)

Delete a memory.

Metacognition Methods (Phase 2A)

predict_memories(context=None, recent_memory_ids=None, limit=10)

Predict which memories might be useful.

suggest_memories(context, limit=5, min_confidence=0.6, include_reasoning=True)

Get memory suggestions based on context.

get_learning_metrics(days=30)

Get learning metrics showing memory usage patterns.

get_patterns(days=30)

Analyze patterns in memory usage and access.

search_weighted(query, limit=10, weight_by_usage=False, decay_old_memories=False, adaptive_weights=True, min_helpfulness_score=None)

Search with intelligent weighting.

Relationship Methods

get_relationships(memory_id)

Get relationships for a specific memory.

get_graph_context(memory_id, depth=2)

Get memory graph with relationships at specified depth.

Type Definitions

The SDK includes comprehensive type definitions for all Phase 2A features:

from recallbricks import (
    PredictedMemory,
    SuggestedMemory,
    LearningMetrics,
    PatternAnalysis,
    WeightedSearchResult
)

Error Handling

from recallbricks import (
    RecallBricks,
    RecallBricksError,
    AuthenticationError,
    RateLimitError,
    APIError
)

try:
    rb = RecallBricks("your-api-key")
    memory = rb.save("Test memory")
except AuthenticationError:
    print("Invalid API key")
except RateLimitError as e:
    print(f"Rate limited. Retry after: {e.retry_after}")
except APIError as e:
    print(f"API error: {e.status_code}")
except RecallBricksError as e:
    print(f"General error: {str(e)}")

Testing

Run the comprehensive test suite:

# Run all tests
python -m pytest tests/ -v

# Run specific test suites
python tests/test_relationships.py
python tests/test_stress.py
python tests/test_load_stress.py
python tests/test_phase2a_security.py

# Run with coverage
pip install pytest pytest-cov
pytest tests/ --cov=recallbricks --cov-report=html

Documentation

• Full Documentation: https://recallbricks.com/docs
• API Reference: https://recallbricks.com/docs/api
• TypeScript SDK: https://github.com/recallbricks/recallbricks-typescript

Contributing

Contributions are welcome! Please feel free to submit a Pull Request.

License

MIT

Support

• GitHub Issues: https://github.com/recallbricks/recallbricks-python/issues
• Email: [e-mail]
• Documentation: https://recallbricks.com/docs