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81 changes: 81 additions & 0 deletions docs/core-concepts/overview.md
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**Combined Mode**: Best for sophisticated AI agents that need both persistent personality/preferences AND dynamic knowledge retrieval.

## Choosing the Right Memory Mode

### Decision Matrix

Use this table to quickly select the optimal mode for your use case:

| Use Case | Recommended Mode | Why |
|----------|------------------|-----|
| **Personal AI Assistant** | Conscious | Stable user context, low latency, consistent personality |
| **Customer Support Bot** | Auto | Diverse customer queries need dynamic history retrieval |
| **Code Completion Copilot** | Conscious | Fast responses, stable user preferences, minimal overhead |
| **Research Assistant** | Combined | Needs both user context AND query-specific knowledge |
| **Multi-User SaaS** | Auto or Combined | Diverse users with varied, changing contexts |
| **RAG Knowledge Base** | Auto | Each query requires different document context |
| **Personal Journaling AI** | Conscious | Core identity/preferences stable, conversations build on them |
| **Tech Support Chatbot** | Combined | Needs user profile + technical documentation |

### Quick Selection Guide

**Choose Conscious Mode (`conscious_ingest=True`) if:**

- Your users have stable preferences/context that rarely change
- You want minimal latency overhead (instant context access)
- Core facts persist across sessions (name, role, preferences)
- Token efficiency is a priority (lower cost)
- Building personal assistants or role-based agents
- Context is small and essential (5-10 key facts)

**Choose Auto Mode (`auto_ingest=True`) if:**

- Each query needs different context from memory
- Your memory database is large and diverse (100+ memories)
- Query topics vary significantly conversation to conversation
- Real-time relevance is more important than speed
- Building Q&A systems or knowledge retrievers
- Users ask about many different topics

**Choose Combined Mode (both enabled) if:**

- You need both persistent identity AND dynamic knowledge
- Token cost is acceptable for better intelligence
- Building sophisticated conversational AI
- User context + query specificity both matter
- Maximum accuracy is priority over performance
- Building enterprise-grade assistants

### Performance Trade-offs

| Metric | Conscious Only | Auto Only | Combined |
|--------|----------------|-----------|----------|
| **Startup Time** | ~50ms (one-time) | Instant | ~50ms (one-time) |
| **Per-Query Overhead** | Instant (~0ms) | ~10-15ms | ~12-18ms |
| **Token Usage per Call** | 150-300 tokens | 200-500 tokens | 300-800 tokens |
| **API Calls Required** | Startup only | Every query + memory agent | Both startup + every query |
| **Memory Accuracy** | Fixed essential context | Dynamic relevant context | Optimal (both) |
| **Best For** | Stable workflows | Dynamic queries | Maximum intelligence |
| **Typical Cost/1000 calls** | $0.05 (minimal) | $0.15-$0.25 | $0.30-$0.40 |

### When to Upgrade from One Mode to Another

**Start with Conscious → Upgrade to Combined when:**

- User's knowledge base grows large (>1,000 memories)
- Queries span multiple domains/projects
- Need both "who the user is" AND "specific query context"
- Users request information from varied past conversations

**Start with Auto → Upgrade to Combined when:**

- Need consistent user personality across sessions
- Want to reduce per-query token usage for common facts
- Users have stable preferences that should persist
- Building assistant with both identity and knowledge

**Start with Combined → Downgrade when:**

- Token costs are too high for your use case
- Latency becomes an issue
- User context is actually stable (go Conscious only)
- Queries are always diverse (go Auto only)

## Memory Categories

Every piece of information gets categorized for intelligent retrieval across both modes:
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Expand Up @@ -69,5 +69,148 @@ python demo.py
3. **Context Injection**: Second conversation automatically includes relevant memories
4. **Persistent Storage**: All memories stored in SQLite database for future sessions

## Under the Hood: The Magic Explained

Let's break down exactly what happened in each step.

### Step 1: `memori.enable()`

When you call `enable()`, Memori:

- Registers with LiteLLM's native callback system
- **No monkey-patching** - uses official LiteLLM hooks
- Now intercepts ALL OpenAI/Anthropic/LiteLLM calls automatically

**Your code doesn't change** - pure interception pattern.

### Step 2: First Conversation

Your code sent:
```python
messages=[{"role": "user", "content": "I'm working on a Python FastAPI project"}]
```

**Memori's Process:**

1. **Pre-Call**: No context yet (first conversation) → messages passed through unchanged
2. **Call**: Forwarded to OpenAI API
3. **Post-Call**: Memory Agent analyzed the conversation and extracted:
```json
{
"content": "User is working on Python FastAPI project",
"category": "context",
"entities": ["Python", "FastAPI"],
"is_current_project": true,
"importance": 0.8
}
```
4. **Storage**: Wrote to `memori.db` with full-text search index

**Result**: Memory stored for future use.

### Step 3: Second Conversation

Your code sent:
```python
messages=[{"role": "user", "content": "Help me add user authentication"}]
```

**Memori's Process:**

1. **Pre-Call - Memory Retrieval**: Searched database with:
```sql
SELECT content FROM long_term_memory
WHERE user_id = 'default'
AND is_current_project = true
ORDER BY importance_score DESC
LIMIT 5;
```
**Found**: "User is working on Python FastAPI project"

2. **Context Injection**: Modified your messages to:
```python
[
{
"role": "system",
"content": "CONTEXT: User is working on a Python FastAPI project"
},
{
"role": "user",
"content": "Help me add user authentication"
}
]
```

3. **Call**: Forwarded enriched messages to OpenAI
4. **Result**: AI received context and provided **FastAPI-specific** authentication code!
5. **Post-Call**: Stored new memories about authentication discussion

### The Flow Diagram

```
Your App → memori.enable() → [Memori Interceptor]
SQL Database
User sends message → Retrieve Context → Inject Context → OpenAI API
Store New Memories ← Extract Entities ← Response
Return to Your App
```

### Why This Works

- **Zero Refactoring**: Your OpenAI code stays unchanged
- **Framework Agnostic**: Works with any LLM library
- **Transparent**: Memory operations happen outside response delivery
- **Persistent**: Memories survive across sessions

## Inspect Your Database

Want to see what was stored? Your `memori.db` file now contains:

```python
# View all memories
import sqlite3
conn = sqlite3.connect('memori.db')
cursor = conn.execute("""
SELECT category_primary, summary, importance_score, created_at
FROM long_term_memory
""")
for row in cursor:
print(row)
```

Or use SQL directly:

```bash
sqlite3 memori.db "SELECT summary, category_primary FROM long_term_memory;"
```

## Test Memory Persistence

Close Python, restart, and run this:

```python
from memori import Memori
from openai import OpenAI

memori = Memori(conscious_ingest=True)
memori.enable()

client = OpenAI()

# Memori remembers from previous session!
response = client.chat.completions.create(
model="gpt-4o-mini",
messages=[{"role": "user", "content": "What project am I working on?"}]
)
print(response.choices[0].message.content)
# Output: "You're working on a Python FastAPI project"
```

**The memory persisted!** This is true long-term memory across sessions.

!!! tip "Pro Tip"
Try asking the same questions in a new session - Memori will remember your project context!
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Memori uses multi-agents working together to intelligently promote essential long-term memories to short-term storage for faster context injection.

### SQL-Native: Transparent, Portable & 80-90% Cheaper

Unlike vector databases (Pinecone, Weaviate), Memori stores memories in **standard SQL databases**:

| Feature | Vector Databases | Memori (SQL-Native) | Winner |
|---------|------------------|---------------------|--------|
| **Cost (100K memories)** | $80-100/month | $0-15/month | **Memori 80-90% cheaper** |
| **Portability** | Vendor lock-in | Export as `.db` file | **Memori** |
| **Transparency** | Black-box embeddings | Human-readable SQL | **Memori** |
| **Query Speed** | 25-40ms (semantic) | 8-12ms (keywords) | **Memori 3x faster** |
| **Complex Queries** | Limited (distance only) | Full SQL power | **Memori** |

**Why SQL wins for conversational memory:**

- **90% of queries are explicit**: "What's my tech stack?" not "Find similar documents"
- **Boolean logic**: Search "FastAPI AND authentication NOT migrations"
- **Multi-factor ranking**: Combine importance, recency, and categories
- **Complete ownership**: Your data in portable format you control

!!! tip "When to Use Vector Databases"
Use vectors for **semantic similarity across unstructured documents**. Use Memori (SQL) for **conversational AI memory** where users know what they're asking for.

Give your AI agents structured, persistent memory with professional-grade architecture:

```python
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