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qavr-memory

Q-Value Augmented Vector Retrieval for learned memory ranking. Tracks which memories are most useful over time and prioritizes them in retrieval.

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kimasplund/clawdbot-skills-pack
Dernière activité de la source
26 janvier 2026 à 09:44
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SKILL.md
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name
qavr-memory
description
Q-Value Augmented Vector Retrieval for learned memory ranking. Tracks which memories are most useful over time and prioritizes them in retrieval.
metadata
{"clawdbot":{"requires":{"bins":"[Truncated]"}}}
user-invocable
false
disable-model-invocation
false
# QAVR - Q-Value Augmented Vector Retrieval Memory system that learns which information is most useful over time. ## Concept Standard vector retrieval returns results by semantic similarity alone. QAVR adds **learned utility scoring** based on actual usage outcomes: ``` Final Score = (1 - α) × Semantic Similarity + α × Q-Value ``` Where: - **Semantic Similarity**: How relevant the memory is to the query - **Q-Value**: Learned utility score (0.0 - 1.0) based on past usefulness - **α**: Blending factor (increases as more data collected) ## How It Works ### Cold Context (< 100 interactions) - Pure semantic similarity (α = 0) - Q-values being collected but not used - Learning phase ### Warm Context (≥ 100 interactions) - Q-value re-ranking active (α = 0.3) - Memories that led to successful outcomes ranked higher - Continuous learning from feedback ## Q-Value Updates After each interaction: ```python # Positive outcome (task succeeded, user satisfied) q_new = q_old + learning_rate * (reward - q_old) reward = 1.0 for success, 0.0 for failure # Temporal decay (unused memories fade) q_decayed = q_old * decay_factor # e.g., 0.99 per day ``` ## Implementation ### Storage Format ```json { "memories": { "memory_id_1": { "q_value": 0.75, "access_count": 12, "last_accessed": "2026-01-26", "success_count": 9, "failure_count": 3 } }, "contexts": { "debugging": {"interactions": 82, "mode": "cold"}, "coding": {"interactions": 156, "mode": "warm"} }, "config": { "learning_rate": 0.1, "decay_factor": 0.99, "warm_threshold": 100 } } ``` ### Integration with Vector DB ```python def qavr_query(query_text, collection, n_results=5): # Get semantic results results = collection.query( query_texts=[query_text], n_results=n_results * 2 # Over-fetch for re-ranking ) # Apply Q-value re-ranking if warm if context_is_warm(): results = rerank_by_qvalue(results, alpha=0.3) return results[:n_results] ``` ## Feedback Signals QAVR learns from implicit signals: | Signal | Interpretation | Reward | |--------|----------------|--------| | Memory used in successful task | Highly useful | +1.0 | | Memory retrieved but not used | Somewhat relevant | +0.1 | | Memory retrieved, task failed | Possibly misleading | -0.2 | | Memory not retrieved for days | Decaying relevance | decay | ## Benefits 1. **Personalization**: Learns YOUR usage patterns 2. **Noise Reduction**: Unhelpful memories sink to bottom 3. **Efficiency**: Most useful info surfaces first 4. **Adaptation**: Adjusts as your needs change ## Configuration ```json { "qavr": { "enabled": true, "learning_rate": 0.1, "decay_factor": 0.99, "warm_threshold": 100, "alpha_warm": 0.3, "contexts": ["debugging", "coding", "research"] } } ``` ## Monitoring Check QAVR status: - Total memories tracked - Context modes (cold/warm) - Top Q-value memories - Learning progress
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