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Memory is the cornerstone of intelligent agents. Without it, every
Agent Memory Systems
Memory is the cornerstone of intelligent agents. Without it, every interaction
starts from zero. This skill covers the architecture of agent memory: short-term
(context window), long-term (vector stores), and the cognitive architectures
that organize them.
Key insight: Memory isn't just storage - it's retrieval. A million stored facts
mean nothing if you can't find the right one. Chunking, embedding, and retrieval
strategies determine whether your agent remembers or forgets.
The field is fragmented with inconsistent terminology. We use the CoALA cognitive
architecture framework: semantic memory (facts), episodic memory (experiences),
and procedural memory (how-to knowledge).
Principles
Memory quality = retrieval quality, not storage quantity
Chunk for retrieval, not for storage
Context isolation is the enemy of memory
Right memory type for right information
Decay old memories - not everything should be forever
Test retrieval accuracy before production
Background memory formation beats real-time
Capabilities
agent-memory
long-term-memory
short-term-memory
working-memory
episodic-memory
semantic-memory
procedural-memory
memory-retrieval
memory-formation
memory-decay
Scope
vector-database-operations → data-engineer
rag-pipeline-architecture → llm-architect
embedding-model-selection → ml-engineer
knowledge-graph-design → knowledge-engineer
Tooling
Memory_frameworks
LangMem (LangChain) - When: LangGraph agents with persistent memory Note: Semantic, episodic, procedural memory types
MemGPT / Letta - When: Virtual context management, OS-style memory Note: Hierarchical memory tiers, automatic paging
Mem0 - When: User memory layer for personalization Note: Designed for user preferences and history
Vector_stores
Pinecone - When: Managed, enterprise-scale (billions of vectors) Note: Best query performance, highest cost
Qdrant - When: Complex metadata filtering, open-source Note: Rust-based, excellent filtering
Weaviate - When: Hybrid search, knowledge graph features Note: GraphQL interface, good for relationships
ChromaDB - When: Prototyping, small/medium apps Note: Developer-friendly, ~20ms p50 at 100K vectors
pgvector - When: Already using PostgreSQL, simpler setup Note: Good for <1M vectors, familiar tooling
Embedding_models
OpenAI text-embedding-3-large - When: Best quality, 3072 dimensions Note: $0.13/1M tokens
OpenAI text-embedding-3-small - When: Good balance, 1536 dimensions Note: $0.02/1M tokens, 5x cheaper
nomic-embed-text-v1.5 - When: Open-source, local deployment Note: 768 dimensions, good quality
all-MiniLM-L6-v2 - When: Lightweight, fast local embedding Note: 384 dimensions, lowest latency
Patterns
Memory Type Architecture
Choosing the right memory type for different information
When to use: Designing agent memory system
MEMORY TYPE ARCHITECTURE (CoALA Framework):
"""
Three memory types for different purposes:
Semantic Memory: Facts and knowledge
What you know about the world
User preferences, domain knowledge
Stored in profiles (structured) or collections (unstructured)
Episodic Memory: Experiences and events
What happened (timestamped events)
Past conversations, task outcomes
Used for learning from experience
Procedural Memory: How to do things
Rules, skills, workflows
Often implemented as few-shot examples
"How did I solve this before?"
"""
LangMem Implementation
"""
from langmem import MemoryStore
from langgraph.graph import StateGraph
Initialize memory store
memory = MemoryStore(
connection_string=os.environ["POSTGRES_URL"]
)
Semantic memory: user profile
await memory.semantic.upsert(
namespace="user_profile",
key=user_id,
content={
"name": "Alice",
"preferences": ["dark mode", "concise responses"],
"expertise_level": "developer",
}
)
Episodic memory: past interaction
await memory.episodic.add(
namespace="conversations",
content={
"timestamp": datetime.now(),
"summary": "Helped debug authentication issue",
"outcome": "resolved",
"key_insights": ["Token expiry was root cause"],
},
metadata={"user_id": user_id, "topic": "debugging"}
)
Procedural memory: learned pattern
await memory.procedural.add(
namespace="skills",
content={
"task_type": "debug_auth",
"steps": ["Check token expiry", "Verify refresh flow"],
"example_interaction": few_shot_example,
}
)
"""
Memory Retrieval at Runtime
"""
async def prepare_context(user_id, query):
# Get user profile (semantic)
profile = await memory.semantic.get(
namespace="user_profile",
key=user_id
)
# Find relevant past experiences (episodic)
similar_experiences = await memory.episodic.search(
namespace="conversations",
query=query,
filter={"user_id": user_id},
limit=3
)
# Find relevant skills (procedural)
relevant_skills = await memory.procedural.search(
namespace="skills",
query=query,
limit=2
)
return {
"profile": profile,
"past_experiences": similar_experiences,
"relevant_skills": relevant_skills,
}
"""
Vector Store Selection Pattern
Choosing the right vector database for your use case
When to use: Setting up persistent memory storage
VECTOR STORE SELECTION:
"""
Decision matrix:
Pinecone
Qdrant
Weaviate
ChromaDB
pgvector
Scale
Billions
100M+
100M+
1M
1M
Managed
Yes
Both
Both
Self
Self
Filtering
Basic
Best
Good
Basic
SQL
Hybrid
No
Yes
Best
No
Yes
Cost
High
Medium
Medium
Free
Free
Latency
5ms
7ms
10ms
20ms
15ms
"""
Pinecone (Enterprise Scale)
"""
from pinecone import Pinecone
pc = Pinecone(api_key=os.environ["PINECONE_API_KEY"])
index = pc.Index("agent-memory")
Upsert with metadata
index.upsert(
vectors=[
{
"id": f"memory-{uuid4()}",
"values": embedding,
"metadata": {
"user_id": user_id,
"timestamp": datetime.now().isoformat(),
"type": "episodic",
"content": memory_text,
}
}
],
namespace=namespace
)
Query with filter
results = index.query(
vector=query_embedding,
filter={"user_id": user_id, "type": "episodic"},
top_k=5,
include_metadata=True
)
"""
Qdrant (Complex Filtering)
"""
from qdrant_client import QdrantClient
from qdrant_client.models import PointStruct, Filter, FieldCondition
client = QdrantClient(url="http://localhost:6333")
Complex filtering with Qdrant
results = client.search(
collection_name="agent_memory",
query_vector=query_embedding,
query_filter=Filter(
must=[
FieldCondition(key="user_id", match={"value": user_id}),
FieldCondition(key="type", match={"value": "semantic"}),
],
should=[
FieldCondition(key="topic", match={"any": ["auth", "security"]}),
]
),
limit=5
)
"""
ChromaDB (Prototyping)
"""
import chromadb
client = chromadb.PersistentClient(path="./memory_db")
collection = client.get_or_create_collection("agent_memory")
Simple and fast for prototypes
collection.add(
ids=[str(uuid4())],
embeddings=[embedding],
documents=[memory_text],
metadatas=[{"user_id": user_id, "type": "episodic"}]
)
results = collection.query(
query_embeddings=[query_embedding],
n_results=5,
where={"user_id": user_id}
)
"""
Chunking Strategy Pattern
Breaking documents into retrievable chunks
When to use: Processing documents for memory storage
CHUNKING STRATEGIES:
"""
The chunking dilemma:
Too large: Vector loses specificity
Too small: Loses context
Optimal chunk size depends on:
Document type (code vs prose vs data)
Query patterns (factual vs exploratory)
Embedding model (each has sweet spot)
General guidance: 256-512 tokens for most use cases
"""
Fixed-Size Chunking (Baseline)
"""
from langchain.text_splitter import RecursiveCharacterTextSplitter
splitter = RecursiveCharacterTextSplitter(
chunk_size=500, # Characters
chunk_overlap=50, # Overlap prevents cutting sentences
separators=["\n\n", "\n", ". ", " ", ""] # Priority order
)
chunks = splitter.split_text(document)
"""
Semantic Chunking (Better Quality)
"""
from langchain_experimental.text_splitter import SemanticChunker
from langchain_openai import OpenAIEmbeddings
Splits based on semantic similarity
splitter = SemanticChunker(
embeddings=OpenAIEmbeddings(),
breakpoint_threshold_type="percentile",
breakpoint_threshold_amount=95
)
chunks = splitter.split_text(document)
"""
Structure-Aware Chunking (Documents with Hierarchy)
"""
from langchain.text_splitter import MarkdownHeaderTextSplitter
Respect document structure
splitter = MarkdownHeaderTextSplitter(
headers_to_split_on=[
("#", "Header 1"),
("##", "Header 2"),
("###", "Header 3"),
]
)
chunks = splitter.split_text(markdown_doc)
Each chunk has header metadata for context
"""
Contextual Chunking (Anthropic's Approach)
"""
Add context to each chunk before embedding
Reduces retrieval failures by 35%
def add_context_to_chunk(chunk, document_summary):
context_prompt = f'''
Document summary: {document_summary}
The following is a chunk from this document:
{chunk}
'''
return context_prompt
Embed the contextualized chunk, not raw chunk
for chunk in chunks:
contextualized = add_context_to_chunk(chunk, summary)
embedding = embed(contextualized)
store(chunk, embedding) # Store original, embed contextualized
"""
Code-Specific Chunking
"""
from langchain.text_splitter import Language, RecursiveCharacterTextSplitter
Language-aware splitting
python_splitter = RecursiveCharacterTextSplitter.from_language(
language=Language.PYTHON,
chunk_size=1000,
chunk_overlap=200
)
Respects function/class boundaries
chunks = python_splitter.split_text(python_code)
"""
Background Memory Formation
Processing memories asynchronously for better quality
When to use: You want higher recall without slowing interactions
BACKGROUND MEMORY FORMATION:
"""
Real-time memory extraction slows conversations and adds
complexity to agent tool calls. Background processing after
conversations yields higher quality memories.
Pattern: Subconscious memory formation
"""
LangGraph Background Processing
"""
from langgraph.graph import StateGraph
from langgraph.checkpoint.postgres import PostgresSaver
async def background_memory_processor(thread_id: str):
# Run after conversation ends or goes idle
conversation = await load_conversation(thread_id)
# Extract insights without time pressure
insights = await llm.invoke('''
Analyze this conversation and extract:
1. Key facts learned about the user
2. User preferences revealed
3. Tasks completed or pending
4. Patterns in user behavior
Be thorough - this runs in background.
Conversation:
{conversation}
''')
# Store to long-term memory
for insight in insights:
await memory.semantic.upsert(
namespace="user_insights",
key=generate_key(insight),
content=insight,
metadata={"source_thread": thread_id}
)
Trigger on conversation end or idle timeout
@on_conversation_idle(timeout_minutes=5)
async def process_conversation(thread_id):
await background_memory_processor(thread_id)
"""
Memory Consolidation (Like Sleep)
"""
Periodically consolidate and deduplicate memories
async def consolidate_memories(user_id: str):
# Get all memories for user
memories = await memory.semantic.list(
namespace="user_insights",
filter={"user_id": user_id}
)
# Find similar memories (potential duplicates)
clusters = cluster_by_similarity(memories, threshold=0.9)
# Merge similar memories
for cluster in clusters:
if len(cluster) > 1:
merged = await llm.invoke(f'''
Consolidate these related memories into one:
{cluster}
Preserve all important information.
''')
await memory.semantic.upsert(
namespace="user_insights",
key=generate_key(merged),
content=merged
)
# Delete originals
for old in cluster:
await memory.semantic.delete(old.id)
"""
Memory Decay Pattern
Forgetting old, irrelevant memories
When to use: Memory grows large, retrieval slows down
MEMORY DECAY:
"""
Not all memories should live forever:
Old preferences may be outdated
Task details lose relevance
Conflicting memories confuse retrieval
Implement intelligent decay based on:
Recency (when was it created/accessed?)
Frequency (how often is it retrieved?)
Importance (is it a core fact or detail?)
"""
Time-Based Decay
"""
from datetime import datetime, timedelta
async def decay_old_memories(namespace: str, max_age_days: int):
cutoff = datetime.now() - timedelta(days=max_age_days)
old_memories = await memory.episodic.list(
namespace=namespace,
filter={"last_accessed": {"$lt": cutoff.isoformat()}}
)
for mem in old_memories:
# Soft delete (mark as archived)
await memory.episodic.update(
id=mem.id,
metadata={"archived": True, "archived_at": datetime.now()}
)
"""
Utility-Based Decay (MIRIX Approach)
"""
def calculate_memory_utility(memory):
'''
Composite utility score inspired by cognitive science:
- Recency: When was it last accessed?
- Frequency: How often is it accessed?
- Importance: How critical is this information?
'''
now = datetime.now()
# Recency score (exponential decay with 72h half-life)
hours_since_access = (now - memory.last_accessed).total_seconds() / 3600
recency_score = 0.5 ** (hours_since_access / 72)
# Frequency score
frequency_score = min(memory.access_count / 10, 1.0)
# Importance (from metadata or heuristic)
importance = memory.metadata.get("importance", 0.5)
# Weighted combination
utility = (
0.4 * recency_score +
0.3 * frequency_score +
0.3 * importance
)
return utility
async def prune_low_utility_memories(threshold=0.2):
all_memories = await memory.list_all()
for mem in all_memories:
if calculate_memory_utility(mem) < threshold:
await memory.archive(mem.id)
"""
Sharp Edges
Chunking Isolates Information From Its Context
Severity: CRITICAL
Situation: Processing documents for vector storage
Symptoms:
Retrieval finds chunks but they don't make sense alone. Agent
answers miss the big picture. "The function returns X" retrieved
without knowing which function. References to "this" without
knowing what "this" refers to.
Why this breaks:
When we chunk for AI processing, we're breaking connections,
reducing a holistic narrative to isolated fragments that often
miss the big picture. A chunk about "the configuration" without
context about what system is being configured is nearly useless.
Recommended fix:
Contextual Chunking (Anthropic's approach)
Add document context to each chunk before embedding
Reduces retrieval failures by 35%
def contextualize_chunk(chunk, document):
summary = summarize(document)
# LLM generates context for chunk
context = llm.invoke(f'''
Document summary: {summary}
Generate a brief context statement for this chunk
that would help someone understand what it refers to:
{chunk}
''')
return f"{context}\n\n{chunk}"
Embed the contextualized version
for chunk in chunks:
contextualized = contextualize_chunk(chunk, full_doc)
embedding = embed(contextualized)
# Store original chunk, embed contextualized
store(original=chunk, embedding=embedding)
Hierarchical Chunking
Store at multiple granularities
chunks_small = split(doc, size=256)
chunks_medium = split(doc, size=512)
chunks_large = split(doc, size=1024)
Retrieve at appropriate level based on query
Chunk Size Mismatched to Query Patterns
Severity: HIGH
Situation: Configuring chunking for memory storage
Symptoms:
High-quality documents produce low-quality retrievals. Simple
questions miss relevant information. Complex questions get
fragments instead of complete answers.
Why this breaks:
Optimal chunk size depends on query patterns:
Factual queries need small, specific chunks
Conceptual queries need larger context
Code needs function-level boundaries
The sweet spot varies by document type and embedding model.
Default 1000 characters works for nothing specific.
Recommended fix:
Test different sizes
from sklearn.metrics import recall_score
def evaluate_chunk_size(documents, test_queries, chunk_size):
chunks = split_documents(documents, size=chunk_size)
index = build_index(chunks)
correct_retrievals = 0
for query, expected_chunk in test_queries:
results = index.search(query, k=5)
if expected_chunk in results:
correct_retrievals += 1
return correct_retrievals / len(test_queries)
Test multiple sizes
for size in [256, 512, 768, 1024]:
recall = evaluate_chunk_size(docs, test_queries, size)
print(f"Size {size}: Recall@5 = {recall:.2%}")
Size recommendations by content type
CHUNK_SIZES = {
"documentation": 512, # Complete concepts
"code": 1000, # Function-level
"conversation": 256, # Turn-level
"articles": 768, # Paragraph-level
}
Use overlap to prevent boundary issues
splitter = RecursiveCharacterTextSplitter(
chunk_size=512,
chunk_overlap=50, # 10% overlap
)
Semantic Search Returns Irrelevant Results
Severity: HIGH
Situation: Querying memory for context
Symptoms:
Agent retrieves memories that seem related but aren't useful.
"Tell me about the user's preferences" returns conversation
about preferences in general, not this user's. High similarity
scores for wrong content.
Why this breaks:
Semantic similarity isn't the same as relevance. "The user
likes Python" and "Python is a programming language" are
semantically similar but very different types of information.
Without metadata filtering, retrieval is just word matching.
Recommended fix:
Always filter by metadata first
Don't rely on semantic similarity alone
Bad: Only semantic search
results = index.query(
vector=query_embedding,
top_k=5
)
Good: Filter then search
results = index.query(
vector=query_embedding,
filter={
"user_id": current_user.id,
"type": "preference",
"created_after": cutoff_date,
},
top_k=5
)
Use hybrid search (semantic + keyword)
from qdrant_client import QdrantClient
client = QdrantClient(...)
Hybrid search with fusion
results = client.search(
collection_name="memories",
query_vector=semantic_embedding,
query_text=query, # Also keyword match
fusion={"method": "rrf"}, # Reciprocal Rank Fusion
)
Rerank results with cross-encoder
from sentence_transformers import CrossEncoder
reranker = CrossEncoder("cross-encoder/ms-marco-MiniLM-L-6-v2")
Initial retrieval (recall-oriented)
candidates = index.query(query_embedding, top_k=20)
Rerank (precision-oriented)
pairs = [(query, c.text) for c in candidates]
scores = reranker.predict(pairs)
reranked = sorted(zip(candidates, scores), key=lambda x: x[1], reverse=True)
Old Memories Override Current Information
Severity: HIGH
Situation: User preferences or facts change over time
Symptoms:
Agent uses outdated preferences. "User prefers dark mode" from
6 months ago overrides recent "switch to light mode" request.
Agent confidently uses stale data.
Why this breaks:
Vector stores don't have temporal awareness by default. A memory
from a year ago has the same retrieval weight as one from today.
Recent information should generally override old information
for preferences and mutable facts.
Recommended fix:
Add temporal scoring
from datetime import datetime, timedelta
def time_decay_score(memory, half_life_days=30):
age = (datetime.now() - memory.created_at).days
decay = 0.5 ** (age / half_life_days)
return decay
def retrieve_with_recency(query, user_id):
# Get candidates
candidates = index.query(
vector=embed(query),
filter={"user_id": user_id},
top_k=20
)
# Apply time decay
for candidate in candidates:
time_score = time_decay_score(candidate)
candidate.final_score = candidate.similarity * 0.7 + time_score * 0.3
# Re-sort by final score
return sorted(candidates, key=lambda x: x.final_score, reverse=True)[:5]
Update instead of append for preferences
async def update_preference(user_id, category, value):
# Delete old preference
await memory.delete(
filter={"user_id": user_id, "type": "preference", "category": category}
)
# Store new preference
await memory.upsert(
id=f"pref-{user_id}-{category}",
content={"category": category, "value": value},
metadata={"updated_at": datetime.now()}
)
Explicit versioning for facts
await memory.upsert(
id=f"fact-{fact_id}-v{version}",
content=new_fact,
metadata={
"version": version,
"supersedes": previous_id,
"valid_from": datetime.now()
}
)
Contradictory Memories Retrieved Together
Severity: MEDIUM
Situation: User has changed preferences or provided conflicting info
Symptoms:
Agent retrieves "user prefers dark mode" and "user prefers light
mode" in same context. Gives inconsistent answers. Seems confused
or forgetful to user.
Why this breaks:
Without conflict resolution, both old and new information coexist.
Semantic search might return both because they're both about the
same topic (preferences). Agent has no way to know which is current.
Recommended fix:
Detect conflicts on storage
async def store_with_conflict_check(memory, user_id):
# Find potentially conflicting memories
similar = await index.query(
vector=embed(memory.content),
filter={"user_id": user_id, "type": memory.type},
threshold=0.9, # Very similar
top_k=5
)
for existing in similar:
if is_contradictory(memory.content, existing.content):
# Ask for resolution
resolution = await resolve_conflict(memory, existing)
if resolution == "replace":
await index.delete(existing.id)
elif resolution == "version":
await mark_superseded(existing.id, memory.id)
await index.upsert(memory)
Conflict detection heuristic
def is_contradictory(new_content, old_content):
# Use LLM to detect contradiction
result = llm.invoke(f'''
Do these two statements contradict each other?
Statement 1: {old_content}
Statement 2: {new_content}
Respond with just YES or NO.
''')
return result.strip().upper() == "YES"
Periodic consolidation
async def consolidate_memories(user_id):
all_memories = await index.list(filter={"user_id": user_id})
clusters = cluster_by_topic(all_memories)
for cluster in clusters:
if has_conflicts(cluster):
resolved = await llm.invoke(f'''
These memories may conflict. Create one consolidated
memory that represents the current truth:
{cluster}
''')
await replace_cluster(cluster, resolved)
Retrieved Memories Exceed Context Window
Severity: MEDIUM
Situation: Retrieving too many memories at once
Symptoms:
Token limit errors. Agent truncates important information.
System prompt gets cut off. Retrieved memories compete with
user query for space.
Why this breaks:
Retrieval typically returns top-k results. If k is too high or
chunks are too large, retrieved context overwhelms the window.
Critical information (system prompt, recent messages) gets pushed
out.
Recommended fix:
Budget tokens for different memory types
TOKEN_BUDGET = {
"system_prompt": 500,
"user_profile": 200,
"recent_messages": 2000,
"retrieved_memories": 1000,
"current_query": 500,
"buffer": 300, # Safety margin
}
def budget_aware_retrieval(query, context_limit=4000):
remaining = context_limit - TOKEN_BUDGET["system_prompt"] - TOKEN_BUDGET["buffer"]
# Prioritize recent messages
recent = get_recent_messages(limit=TOKEN_BUDGET["recent_messages"])
remaining -= count_tokens(recent)
# Then user profile
profile = get_user_profile(limit=TOKEN_BUDGET["user_profile"])
remaining -= count_tokens(profile)
# Finally retrieved memories with remaining budget
memories = retrieve_memories(query, max_tokens=remaining)
return build_context(profile, recent, memories)
Dynamic k based on chunk size
def retrieve_with_budget(query, max_tokens=1000):
avg_chunk_tokens = 150 # From your data
max_k = max_tokens // avg_chunk_tokens
results = index.query(query, top_k=max_k)
# Trim if still over budget
total_tokens = 0
filtered = []
for result in results:
tokens = count_tokens(result.text)
if total_tokens + tokens <= max_tokens:
filtered.append(result)
total_tokens += tokens
else:
break
return filtered
Query and Document Embeddings From Different Models
Severity: MEDIUM
Situation: Upgrading embedding model or mixing providers
Symptoms:
Retrieval quality suddenly drops. Relevant documents not found.
Random results returned. Works for new documents, fails for old.
Why this breaks:
Embedding models produce different vector spaces. A query embedded
with text-embedding-3 won't match documents embedded with text-ada-002.
Mixing models creates garbage similarity scores.
Recommended fix:
Track embedding model in metadata
await index.upsert(
id=doc_id,
vector=embedding,
metadata={
"embedding_model": "text-embedding-3-small",
"embedding_version": "2024-01",
"content": content
}
)
Filter by model version on retrieval
results = index.query(
vector=query_embedding,
filter={"embedding_model": current_model},
top_k=10
)
Migration strategy for model upgrades
async def migrate_embeddings(old_model, new_model):
# Get all documents with old model
old_docs = await index.list(filter={"embedding_model": old_model})
for doc in old_docs:
# Re-embed with new model
new_embedding = await embed(doc.content, model=new_model)
# Update in place
await index.update(
id=doc.id,
vector=new_embedding,
metadata={"embedding_model": new_model}
)
Use separate collections during migration
Old collection: production queries
New collection: re-embedding in progress
Switch over when complete
Validation Checks
In-Memory Store in Production Code
Severity: ERROR
In-memory stores lose data on restart
Message: In-memory store detected. Use persistent storage (Postgres, Qdrant, Pinecone) for production.
Vector Upsert Without Metadata
Severity: WARNING
Vectors should have metadata for filtering
Message: Vector upsert without metadata. Add user_id, type, timestamp for proper filtering.
Query Without User Filtering
Severity: ERROR
Queries should filter by user to prevent data leakage
Message: Vector query without user filtering. Always filter by user_id to prevent data leakage.
Hardcoded Chunk Size Without Justification
Severity: INFO
Chunk size should be tested and justified
Message: Hardcoded chunk size. Test different sizes for your content type and measure retrieval accuracy.
Chunking Without Overlap
Severity: WARNING
Chunk overlap prevents boundary issues
Message: Text splitting without overlap. Add chunk_overlap (10-20%) to prevent boundary issues.
Semantic Search Without Filters
Severity: WARNING
Pure semantic search often returns irrelevant results
Message: Pure semantic search. Add metadata filters (user, type, time) for better relevance.
Retrieval Without Result Limit
Severity: WARNING
Unbounded retrieval can overflow context
Message: Retrieval without limit. Set top_k to prevent context overflow.
Embeddings Without Model Version Tracking
Severity: WARNING
Track embedding model to handle migrations
Message: Store embedding model version in metadata to handle model migrations.
Different Models for Document and Query Embedding
Severity: ERROR
Documents and queries must use same embedding model
Message: Ensure same embedding model for indexing and querying.
Collaboration
Delegation Triggers
user needs vector database at scale -> data-engineer (Production vector store operations)
user needs embedding model optimization -> ml-engineer (Custom embeddings, fine-tuning)
user needs knowledge graph -> knowledge-engineer (Graph-based memory structures)
user needs RAG pipeline -> llm-architect (End-to-end retrieval augmented generation)
user needs multi-agent shared memory -> multi-agent-orchestration (Memory sharing between agents)
Related Skills
Works well with: autonomous-agents, multi-agent-orchestration, llm-architect, agent-tool-builder
When to Use
User mentions or implies: agent memory
User mentions or implies: long-term memory
User mentions or implies: memory systems
User mentions or implies: remember across sessions
User mentions or implies: memory retrieval
User mentions or implies: episodic memory
User mentions or implies: semantic memory
User mentions or implies: vector store
User mentions or implies: rag
User mentions or implies: langmem
User mentions or implies: memgpt
User mentions or implies: conversation history
Limitations
Use this skill only when the task clearly matches the scope described above.
Do not treat the output as a substitute for environment-specific validation, testing, or expert review.
Stop and ask for clarification if required inputs, permissions, safety boundaries, or success criteria are missing.don't have the plugin yet? install it then click "run inline in claude" again.