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Parshva Daftari
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---
title: AI Companion in Node.js
---
You can create a personalised AI Companion using Mem0. This guide will walk you through the necessary steps and provide the complete code to get you started.
## Overview
The Personalized AI Companion leverages Mem0 to retain information across interactions, enabling a tailored learning experience. It creates memories for each user interaction and integrates with OpenAI's GPT models to provide detailed and context-aware responses to user queries.
## Setup
Before you begin, ensure you have Node.js installed and create a new project. Install the required dependencies using npm:
```bash
npm install openai mem0ai
```
## Full Code Example
Below is the complete code to create and interact with an AI Companion using Mem0:
```javascript
import { OpenAI } from 'openai';
import { Memory } from 'mem0ai/oss';
import * as readline from 'readline';
const openaiClient = new OpenAI();
const memory = new Memory();
async function chatWithMemories(message, userId = "default_user") {
const relevantMemories = await memory.search(message, { userId: userId });
const memoriesStr = relevantMemories.results
.map(entry => `- ${entry.memory}`)
.join('\n');
const systemPrompt = `You are a helpful AI. Answer the question based on query and memories.
User Memories:
${memoriesStr}`;
const messages = [
{ role: "system", content: systemPrompt },
{ role: "user", content: message }
];
const response = await openaiClient.chat.completions.create({
model: "gpt-4o-mini",
messages: messages
});
const assistantResponse = response.choices[0].message.content || "";
messages.push({ role: "assistant", content: assistantResponse });
await memory.add(messages, { userId: userId });
return assistantResponse;
}
async function main() {
const rl = readline.createInterface({
input: process.stdin,
output: process.stdout
});
console.log("Chat with AI (type 'exit' to quit)");
const askQuestion = () => {
return new Promise((resolve) => {
rl.question("You: ", (input) => {
resolve(input.trim());
});
});
};
try {
while (true) {
const userInput = await askQuestion();
if (userInput.toLowerCase() === 'exit') {
console.log("Goodbye!");
rl.close();
break;
}
const response = await chatWithMemories(userInput, "sample_user");
console.log(`AI: ${response}`);
}
} catch (error) {
console.error("An error occurred:", error);
rl.close();
}
}
main().catch(console.error);
```
### Key Components
1. **Initialization**
- The code initializes both OpenAI and Mem0 Memory clients
- Uses Node.js's built-in readline module for command-line interaction
2. **Memory Management (chatWithMemories function)**
- Retrieves relevant memories using Mem0's search functionality
- Constructs a system prompt that includes past memories
- Makes API calls to OpenAI for generating responses
- Stores new interactions in memory
3. **Interactive Chat Interface (main function)**
- Creates a command-line interface for user interaction
- Handles user input and displays AI responses
- Includes graceful exit functionality
### Environment Setup
Make sure to set up your environment variables:
```bash
export OPENAI_API_KEY=your_api_key
```
### Conclusion
This implementation demonstrates how to create an AI Companion that maintains context across conversations using Mem0's memory capabilities. The system automatically stores and retrieves relevant information, creating a more personalized and context-aware interaction experience.
As users interact with the system, Mem0's memory system continuously learns and adapts, making future responses more relevant and personalized. This setup is ideal for creating long-term learning AI assistants that can maintain context and provide increasingly personalized responses over time.
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---
title: "Amazon Stack: AWS Bedrock, AOSS, and Neptune Analytics"
---
This example demonstrates how to configure and use the `mem0ai` SDK with **AWS Bedrock**, **OpenSearch Service (AOSS)**, and **AWS Neptune Analytics** for persistent memory capabilities in Python.
## Installation
Install the required dependencies to include the Amazon data stack, including **boto3**, **opensearch-py**, and **langchain-aws**:
```bash
pip install "mem0ai[graph,extras]"
```
## Environment Setup
Set your AWS environment variables:
```python
import os
# Set these in your environment or notebook
os.environ['AWS_REGION'] = 'us-west-2'
os.environ['AWS_ACCESS_KEY_ID'] = 'AK00000000000000000'
os.environ['AWS_SECRET_ACCESS_KEY'] = 'AS00000000000000000'
# Confirm they are set
print(os.environ['AWS_REGION'])
print(os.environ['AWS_ACCESS_KEY_ID'])
print(os.environ['AWS_SECRET_ACCESS_KEY'])
```
## Configuration and Usage
This sets up Mem0 with:
- [AWS Bedrock for LLM](https://docs.mem0.ai/components/llms/models/aws_bedrock)
- [AWS Bedrock for embeddings](https://docs.mem0.ai/components/embedders/models/aws_bedrock#aws-bedrock)
- [OpenSearch as the vector store](https://docs.mem0.ai/components/vectordbs/dbs/opensearch)
- [Neptune Analytics as your graph store](https://docs.mem0.ai/open-source/graph_memory/overview#initialize-neptune-analytics).
```python
import boto3
from opensearchpy import RequestsHttpConnection, AWSV4SignerAuth
from mem0.memory.main import Memory
region = 'us-west-2'
service = 'aoss'
credentials = boto3.Session().get_credentials()
auth = AWSV4SignerAuth(credentials, region, service)
config = {
"embedder": {
"provider": "aws_bedrock",
"config": {
"model": "amazon.titan-embed-text-v2:0"
}
},
"llm": {
"provider": "aws_bedrock",
"config": {
"model": "us.anthropic.claude-3-7-sonnet-20250219-v1:0",
"temperature": 0.1,
"max_tokens": 2000
}
},
"vector_store": {
"provider": "opensearch",
"config": {
"collection_name": "mem0",
"host": "your-opensearch-domain.us-west-2.es.amazonaws.com",
"port": 443,
"http_auth": auth,
"connection_class": RequestsHttpConnection,
"pool_maxsize": 20,
"use_ssl": True,
"verify_certs": True,
"embedding_model_dims": 1024,
}
},
"graph_store": {
"provider": "neptune",
"config": {
"endpoint": f"neptune-graph://my-graph-identifier",
},
},
}
# Initialize the memory system
m = Memory.from_config(config)
```
## Usage
Reference [Notebook example](https://github.com/mem0ai/mem0/blob/main/examples/graph-db-demo/neptune-example.ipynb)
#### Add a memory:
```python
messages = [
{"role": "user", "content": "I'm planning to watch a movie tonight. Any recommendations?"},
{"role": "assistant", "content": "How about a thriller movies? They can be quite engaging."},
{"role": "user", "content": "I'm not a big fan of thriller movies but I love sci-fi movies."},
{"role": "assistant", "content": "Got it! I'll avoid thriller recommendations and suggest sci-fi movies in the future."}
]
# Store inferred memories (default behavior)
result = m.add(messages, user_id="alice", metadata={"category": "movie_recommendations"})
```
#### Search a memory:
```python
relevant_memories = m.search(query, user_id="alice")
```
#### Get all memories:
```python
all_memories = m.get_all(user_id="alice")
```
#### Get a specific memory:
```python
memory = m.get(memory_id)
```
---
## Conclusion
With Mem0 and AWS services like Bedrock, OpenSearch, and Neptune Analytics, you can build intelligent AI companions that remember, adapt, and personalize their responses over time. This makes them ideal for long-term assistants, tutors, or support bots with persistent memory and natural conversation abilities.
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---
title: "Amazon Stack - Neptune Analytics Hybrid Store: AWS Bedrock and Neptune Analytics"
---
This example demonstrates how to configure and use the `mem0ai` SDK with **AWS Bedrock** and **AWS Neptune Analytics** for persistent memory capabilities in Python.
## Installation
Install the required dependencies to include the Amazon data stack, including **boto3** and **langchain-aws**:
```bash
pip install "mem0ai[graph,extras]"
```
## Environment Setup
Set your AWS environment variables:
```python
import os
# Set these in your environment or notebook
os.environ['AWS_REGION'] = 'us-west-2'
os.environ['AWS_ACCESS_KEY_ID'] = 'AK00000000000000000'
os.environ['AWS_SECRET_ACCESS_KEY'] = 'AS00000000000000000'
# Confirm they are set
print(os.environ['AWS_REGION'])
print(os.environ['AWS_ACCESS_KEY_ID'])
print(os.environ['AWS_SECRET_ACCESS_KEY'])
```
## Configuration and Usage
This sets up Mem0 with:
- [AWS Bedrock for LLM](https://docs.mem0.ai/components/llms/models/aws_bedrock)
- [AWS Bedrock for embeddings](https://docs.mem0.ai/components/embedders/models/aws_bedrock#aws-bedrock)
- [Neptune Analytics as the vector store](https://docs.mem0.ai/components/vectordbs/dbs/neptune_analytics)
- [Neptune Analytics as the graph store](https://docs.mem0.ai/open-source/graph_memory/overview#initialize-neptune-analytics).
```python
import boto3
from mem0.memory.main import Memory
region = 'us-west-2'
neptune_analytics_endpoint = 'neptune-graph://my-graph-identifier'
config = {
"embedder": {
"provider": "aws_bedrock",
"config": {
"model": "amazon.titan-embed-text-v2:0"
}
},
"llm": {
"provider": "aws_bedrock",
"config": {
"model": "us.anthropic.claude-3-7-sonnet-20250219-v1:0",
"temperature": 0.1,
"max_tokens": 2000
}
},
"vector_store": {
"provider": "neptune",
"config": {
"collection_name": "mem0",
"endpoint": neptune_analytics_endpoint,
},
},
"graph_store": {
"provider": "neptune",
"config": {
"endpoint": neptune_analytics_endpoint,
},
},
}
# Initialize the memory system
m = Memory.from_config(config)
```
## Usage
Reference [Notebook example](https://github.com/mem0ai/mem0/blob/main/examples/graph-db-demo/neptune-example.ipynb)
#### Add a memory:
```python
messages = [
{"role": "user", "content": "I'm planning to watch a movie tonight. Any recommendations?"},
{"role": "assistant", "content": "How about a thriller movies? They can be quite engaging."},
{"role": "user", "content": "I'm not a big fan of thriller movies but I love sci-fi movies."},
{"role": "assistant", "content": "Got it! I'll avoid thriller recommendations and suggest sci-fi movies in the future."}
]
# Store inferred memories (default behavior)
result = m.add(messages, user_id="alice", metadata={"category": "movie_recommendations"})
```
#### Search a memory:
```python
relevant_memories = m.search(query, user_id="alice")
```
#### Get all memories:
```python
all_memories = m.get_all(user_id="alice")
```
#### Get a specific memory:
```python
memory = m.get(memory_id)
```
---
## Conclusion
With Mem0 and AWS services like Bedrock and Neptune Analytics, you can build intelligent AI companions that remember, adapt, and personalize their responses over time. This makes them ideal for long-term assistants, tutors, or support bots with persistent memory and natural conversation abilities.
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# Mem0 Chrome Extension
Enhance your AI interactions with **Mem0**, a Chrome extension that introduces a universal memory layer across platforms like `ChatGPT`, `Claude`, and `Perplexity`. Mem0 ensures seamless context sharing, making your AI experiences more personalized and efficient.
<Note>
🎉 We now support Grok! The Mem0 Chrome Extension has been updated to work with Grok, bringing the same powerful memory capabilities to your Grok conversations.
</Note>
## Features
- **Universal Memory Layer**: Share context seamlessly across ChatGPT, Claude, Perplexity, and Grok.
- **Smart Context Detection**: Automatically captures relevant information from your conversations.
- **Intelligent Memory Retrieval**: Surfaces pertinent memories at the right time.
- **One-Click Sync**: Easily synchronize with existing ChatGPT memories.
- **Memory Dashboard**: Manage all your memories in one centralized location.
## Installation
You can install the Mem0 Chrome Extension using one of the following methods:
### Method 1: Chrome Web Store Installation
1. **Download the Extension**: Open Google Chrome and navigate to the [Mem0 Chrome Extension page](https://chromewebstore.google.com/detail/mem0/onihkkbipkfeijkadecaafbgagkhglop?hl=en).
2. **Add to Chrome**: Click on the "Add to Chrome" button.
3. **Confirm Installation**: In the pop-up dialog, click "Add extension" to confirm. The Mem0 icon should now appear in your Chrome toolbar.
### Method 2: Manual Installation
1. **Download the Extension**: Clone or download the extension files from the [Mem0 Chrome Extension GitHub repository](https://github.com/mem0ai/mem0-chrome-extension).
2. **Access Chrome Extensions**: Open Google Chrome and navigate to `chrome://extensions`.
3. **Enable Developer Mode**: Toggle the "Developer mode" switch in the top right corner.
4. **Load Unpacked Extension**: Click "Load unpacked" and select the directory containing the extension files.
5. **Confirm Installation**: The Mem0 Chrome Extension should now appear in your Chrome toolbar.
## Usage
1. **Locate the Mem0 Icon**: After installation, find the Mem0 icon in your Chrome toolbar.
2. **Sign In**: Click the icon and sign in with your Google account.
3. **Interact with AI Assistants**:
- **ChatGPT and Perplexity**: Continue your conversations as usual; Mem0 operates seamlessly in the background.
- **Claude**: Click the Mem0 button or use the shortcut `Ctrl + M` to activate memory functions.
## Configuration
- **API Key**: Obtain your API key from the Mem0 Dashboard to connect the extension to the Mem0 API.
- **User ID**: This is your unique identifier in the Mem0 system. If not provided, it defaults to 'chrome-extension-user'.
## Demo Video
<iframe width="700" height="400" src="https://www.youtube.com/embed/dqenCMMlfwQ?si=zhGVrkq6IS_0Jwyj" title="YouTube video player" frameborder="0" allow="accelerometer; autoplay; clipboard-write; encrypted-media; gyroscope; picture-in-picture; web-share" referrerpolicy="strict-origin-when-cross-origin" allowfullscreen></iframe>
## Privacy and Data Security
Your messages are sent to the Mem0 API for extracting and retrieving memories. Mem0 is committed to ensuring your data's privacy and security.
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---
title: Multi-User Collaboration with Mem0
---
## Overview
Build a multi-user collaborative chat or task management system with Mem0. Each message is attributed to its author, and all messages are stored in a shared project space. Mem0 makes it easy to track contributions, sort and group messages, and collaborate in real time.
## Setup
Install the required packages:
```bash
pip install openai mem0ai
```
## Full Code Example
```python
from openai import OpenAI
from mem0 import Memory
import os
from datetime import datetime
from collections import defaultdict
# Set your OpenAI API key
os.environ["OPENAI_API_KEY"] = "sk-your-key"
# Shared project context
RUN_ID = "project-demo"
# Initialize Mem0
mem = Memory()
class CollaborativeAgent:
def __init__(self, run_id):
self.run_id = run_id
self.mem = mem
def add_message(self, role, name, content):
msg = {"role": role, "name": name, "content": content}
self.mem.add([msg], run_id=self.run_id, infer=False)
def brainstorm(self, prompt):
# Get recent messages for context
memories = self.mem.search(prompt, run_id=self.run_id, limit=5)["results"]
context = "\n".join(f"- {m['memory']} (by {m.get('actor_id', 'Unknown')})" for m in memories)
client = OpenAI()
messages = [
{"role": "system", "content": "You are a helpful project assistant."},
{"role": "user", "content": f"Prompt: {prompt}\nContext:\n{context}"}
]
reply = client.chat.completions.create(
model="gpt-4o-mini",
messages=messages
).choices[0].message.content.strip()
self.add_message("assistant", "assistant", reply)
return reply
def get_all_messages(self):
return self.mem.get_all(run_id=self.run_id)["results"]
def print_sorted_by_time(self):
messages = self.get_all_messages()
messages.sort(key=lambda m: m.get('created_at', ''))
print("\n--- Messages (sorted by time) ---")
for m in messages:
who = m.get("actor_id") or "Unknown"
ts = m.get('created_at', 'Timestamp N/A')
try:
dt = datetime.fromisoformat(ts.replace('Z', '+00:00'))
ts_fmt = dt.strftime('%Y-%m-%d %H:%M:%S')
except Exception:
ts_fmt = ts
print(f"[{ts_fmt}] [{who}] {m['memory']}")
def print_grouped_by_actor(self):
messages = self.get_all_messages()
grouped = defaultdict(list)
for m in messages:
grouped[m.get("actor_id") or "Unknown"].append(m)
print("\n--- Messages (grouped by actor) ---")
for actor, mems in grouped.items():
print(f"\n=== {actor} ===")
for m in mems:
ts = m.get('created_at', 'Timestamp N/A')
try:
dt = datetime.fromisoformat(ts.replace('Z', '+00:00'))
ts_fmt = dt.strftime('%Y-%m-%d %H:%M:%S')
except Exception:
ts_fmt = ts
print(f"[{ts_fmt}] {m['memory']}")
```
## Usage
```python
# Example usage
agent = CollaborativeAgent(RUN_ID)
agent.add_message("user", "alice", "Let's list tasks for the new landing page.")
agent.add_message("user", "bob", "I'll own the hero section copy.")
agent.add_message("user", "carol", "I'll choose product screenshots.")
# Brainstorm with context
print("\nAssistant reply:\n", agent.brainstorm("What are the current open tasks?"))
# Print all messages sorted by time
agent.print_sorted_by_time()
# Print all messages grouped by actor
agent.print_grouped_by_actor()
```
## Key Points
- Each message is attributed to a user or agent (actor)
- All messages are stored in a shared project space (`run_id`)
- You can sort messages by time, group by actor, and format timestamps for clarity
- Mem0 makes it easy to build collaborative, attributed chat/task systems
## Conclusion
Mem0 enables fast, transparent collaboration for teams and agents, with full attribution, flexible memory search, and easy message organization.
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---
title: Customer Support AI Agent
---
You can create a personalized Customer Support AI Agent using Mem0. This guide will walk you through the necessary steps and provide the complete code to get you started.
## Overview
The Customer Support AI Agent leverages Mem0 to retain information across interactions, enabling a personalized and efficient support experience.
## Setup
Install the necessary packages using pip:
```bash
pip install openai mem0ai
```
## Full Code Example
Below is the simplified code to create and interact with a Customer Support AI Agent using Mem0:
```python
import os
from openai import OpenAI
from mem0 import Memory
# Set the OpenAI API key
os.environ['OPENAI_API_KEY'] = 'sk-xxx'
class CustomerSupportAIAgent:
def __init__(self):
"""
Initialize the CustomerSupportAIAgent with memory configuration and OpenAI client.
"""
config = {
"vector_store": {
"provider": "qdrant",
"config": {
"host": "localhost",
"port": 6333,
}
},
}
self.memory = Memory.from_config(config)
self.client = OpenAI()
self.app_id = "customer-support"
def handle_query(self, query, user_id=None):
"""
Handle a customer query and store the relevant information in memory.
:param query: The customer query to handle.
:param user_id: Optional user ID to associate with the memory.
"""
# Start a streaming chat completion request to the AI
stream = self.client.chat.completions.create(
model="gpt-4",
stream=True,
messages=[
{"role": "system", "content": "You are a customer support AI agent."},
{"role": "user", "content": query}
]
)
# Store the query in memory
self.memory.add(query, user_id=user_id, metadata={"app_id": self.app_id})
# Print the response from the AI in real-time
for chunk in stream:
if chunk.choices[0].delta.content is not None:
print(chunk.choices[0].delta.content, end="")
def get_memories(self, user_id=None):
"""
Retrieve all memories associated with the given customer ID.
:param user_id: Optional user ID to filter memories.
:return: List of memories.
"""
return self.memory.get_all(user_id=user_id)
# Instantiate the CustomerSupportAIAgent
support_agent = CustomerSupportAIAgent()
# Define a customer ID
customer_id = "jane_doe"
# Handle a customer query
support_agent.handle_query("I need help with my recent order. It hasn't arrived yet.", user_id=customer_id)
```
### Fetching Memories
You can fetch all the memories at any point in time using the following code:
```python
memories = support_agent.get_memories(user_id=customer_id)
for m in memories['results']:
print(m['memory'])
```
### Key Points
- **Initialization**: The CustomerSupportAIAgent class is initialized with the necessary memory configuration and OpenAI client setup.
- **Handling Queries**: The handle_query method sends a query to the AI and stores the relevant information in memory.
- **Retrieving Memories**: The get_memories method fetches all stored memories associated with a customer.
### Conclusion
As the conversation progresses, Mem0's memory automatically updates based on the interactions, providing a continuously improving personalized support experience.
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---
title: Eliza OS Character
---
You can create a personalised Eliza OS Character using Mem0. This guide will walk you through the necessary steps and provide the complete code to get you started.
## Overview
ElizaOS is a powerful AI agent framework for autonomy & personality. It is a collection of tools that help you create a personalised AI agent.
## Setup
You can start by cloning the eliza-os repository:
```bash
git clone https://github.com/elizaOS/eliza.git
```
Change the directory to the eliza-os repository:
```bash
cd eliza
```
Install the dependencies:
```bash
pnpm install
```
Build the project:
```bash
pnpm build
```
## Setup ENVs
Create a `.env` file in the root of the project and add the following ( You can use the `.env.example` file as a reference):
```bash
# Mem0 Configuration
MEM0_API_KEY= # Mem0 API Key ( Get from https://app.mem0.ai/dashboard/api-keys )
MEM0_USER_ID= # Default: eliza-os-user
MEM0_PROVIDER= # Default: openai
MEM0_PROVIDER_API_KEY= # API Key for the provider (openai, anthropic, etc.)
SMALL_MEM0_MODEL= # Default: gpt-4o-mini
MEDIUM_MEM0_MODEL= # Default: gpt-4o
LARGE_MEM0_MODEL= # Default: gpt-4o
```
## Make the default character use Mem0
By default, there is a character called `eliza` that uses the `ollama` model. You can make this character use Mem0 by changing the config in the `agent/src/defaultCharacter.ts` file.
```ts
modelProvider: ModelProviderName.MEM0,
```
This will make the character use Mem0 to generate responses.
## Run the project
```bash
pnpm start
```
## Conclusion
You have now created a personalised Eliza OS Character using Mem0. You can now start interacting with the character by running the project and talking to the character.
This is a simple example of how to use Mem0 to create a personalised AI agent. You can use this as a starting point to create your own AI agent.
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---
title: Email Processing with Mem0
---
This guide demonstrates how to build an intelligent email processing system using Mem0's memory capabilities. You'll learn how to store, categorize, retrieve, and analyze emails to create a smart email management solution.
## Overview
Email overload is a common challenge for many professionals. By leveraging Mem0's memory capabilities, you can build an intelligent system that:
- Stores emails as searchable memories
- Categorizes emails automatically
- Retrieves relevant past conversations
- Prioritizes messages based on importance
- Generates summaries and action items
## Setup
Before you begin, ensure you have the required dependencies installed:
```bash
pip install mem0ai openai
```
## Implementation
### Basic Email Memory System
The following example shows how to create a basic email processing system with Mem0:
```python
import os
from mem0 import MemoryClient
from email.parser import Parser
# Configure API keys
os.environ["MEM0_API_KEY"] = "your-mem0-api-key"
# Initialize Mem0 client
client = MemoryClient()
class EmailProcessor:
def __init__(self):
"""Initialize the Email Processor with Mem0 memory client"""
self.client = client
def process_email(self, email_content, user_id):
"""
Process an email and store it in Mem0 memory
Args:
email_content (str): Raw email content
user_id (str): User identifier for memory association
"""
# Parse email
parser = Parser()
email = parser.parsestr(email_content)
# Extract email details
sender = email['from']
recipient = email['to']
subject = email['subject']
date = email['date']
body = self._get_email_body(email)
# Create message object for Mem0
message = {
"role": "user",
"content": f"Email from {sender}: {subject}\n\n{body}"
}
# Create metadata for better retrieval
metadata = {
"email_type": "incoming",
"sender": sender,
"recipient": recipient,
"subject": subject,
"date": date
}
# Store in Mem0 with appropriate categories
response = self.client.add(
messages=[message],
user_id=user_id,
metadata=metadata,
categories=["email", "correspondence"],
version="v2"
)
return response
def _get_email_body(self, email):
"""Extract the body content from an email"""
# Simplified extraction - in real-world, handle multipart emails
if email.is_multipart():
for part in email.walk():
if part.get_content_type() == "text/plain":
return part.get_payload(decode=True).decode()
else:
return email.get_payload(decode=True).decode()
def search_emails(self, query, user_id):
"""
Search through stored emails
Args:
query (str): Search query
user_id (str): User identifier
"""
# Search Mem0 for relevant emails
results = self.client.search(
query=query,
user_id=user_id,
categories=["email"],
output_format="v1.1",
version="v2"
)
return results
def get_email_thread(self, subject, user_id):
"""
Retrieve all emails in a thread based on subject
Args:
subject (str): Email subject to match
user_id (str): User identifier
"""
filters = {
"AND": [
{"user_id": user_id},
{"categories": {"contains": "email"}},
{"metadata": {"subject": {"contains": subject}}}
]
}
thread = self.client.get_all(
version="v2",
filters=filters,
output_format="v1.1"
)
return thread
# Initialize the processor
processor = EmailProcessor()
# Example raw email
sample_email = """From: alice@example.com
To: bob@example.com
Subject: Meeting Schedule Update
Date: Mon, 15 Jul 2024 14:22:05 -0700
Hi Bob,
I wanted to update you on the schedule for our upcoming project meeting.
We'll be meeting this Thursday at 2pm instead of Friday.
Could you please prepare your section of the presentation?
Thanks,
Alice
"""
# Process and store the email
user_id = "bob@example.com"
processor.process_email(sample_email, user_id)
# Later, search for emails about meetings
meeting_emails = processor.search_emails("meeting schedule", user_id)
print(f"Found {len(meeting_emails['results'])} relevant emails")
```
## Key Features and Benefits
- **Long-term Email Memory**: Store and retrieve email conversations across long periods
- **Semantic Search**: Find relevant emails even if they don't contain exact keywords
- **Intelligent Categorization**: Automatically sort emails into meaningful categories
- **Action Item Extraction**: Identify and track tasks mentioned in emails
- **Priority Management**: Focus on important emails based on AI-determined priority
- **Context Awareness**: Maintain thread context for more relevant interactions
## Conclusion
By combining Mem0's memory capabilities with email processing, you can create intelligent email management systems that help users organize, prioritize, and act on their inbox effectively. The advanced capabilities like automatic categorization, action item extraction, and priority management can significantly reduce the time spent on email management, allowing users to focus on more important tasks.
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---
title: LlamaIndex ReAct Agent
---
Create a ReAct Agent with LlamaIndex which uses Mem0 as the memory store.
### Overview
A ReAct agent combines reasoning and action capabilities, making it versatile for tasks requiring both thought processes (reasoning) and interaction with tools or APIs (acting). Mem0 as memory enhances these capabilities by allowing the agent to store and retrieve contextual information from past interactions.
### Setup
```bash
pip install llama-index-core llama-index-memory-mem0
```
Initialize the LLM.
```python
import os
from llama_index.llms.openai import OpenAI
os.environ["OPENAI_API_KEY"] = "<your-openai-api-key>"
llm = OpenAI(model="gpt-4o")
```
Initialize the Mem0 client. You can find your API key [here](https://app.mem0.ai/dashboard/api-keys). Read about Mem0 [Open Source](https://docs.mem0.ai/open-source/overview).
```python
os.environ["MEM0_API_KEY"] = "<your-mem0-api-key>"
from llama_index.memory.mem0 import Mem0Memory
context = {"user_id": "david"}
memory_from_client = Mem0Memory.from_client(
context=context,
api_key=os.environ["MEM0_API_KEY"],
search_msg_limit=4, # optional, default is 5
)
```
Create the tools. These tools will be used by the agent to perform actions.
```python
from llama_index.core.tools import FunctionTool
def call_fn(name: str):
"""Call the provided name.
Args:
name: str (Name of the person)
"""
return f"Calling... {name}"
def email_fn(name: str):
"""Email the provided name.
Args:
name: str (Name of the person)
"""
return f"Emailing... {name}"
def order_food(name: str, dish: str):
"""Order food for the provided name.
Args:
name: str (Name of the person)
dish: str (Name of the dish)
"""
return f"Ordering {dish} for {name}"
call_tool = FunctionTool.from_defaults(fn=call_fn)
email_tool = FunctionTool.from_defaults(fn=email_fn)
order_food_tool = FunctionTool.from_defaults(fn=order_food)
```
Initialize the agent with tools and memory.
```python
from llama_index.core.agent import FunctionCallingAgent
agent = FunctionCallingAgent.from_tools(
[call_tool, email_tool, order_food_tool],
llm=llm,
memory=memory_from_client, # or memory_from_config
verbose=True,
)
```
Start the chat.
<Note> The agent will use the Mem0 to store the relevant memories from the chat. </Note>
Input
```python
response = agent.chat("Hi, My name is David")
print(response)
```
Output
```text
> Running step bf44a75a-a920-4cf3-944e-b6e6b5695043. Step input: Hi, My name is David
Added user message to memory: Hi, My name is David
=== LLM Response ===
Hello, David! How can I assist you today?
```
Input
```python
response = agent.chat("I love to eat pizza on weekends")
print(response)
```
Output
```text
> Running step 845783b0-b85b-487c-baee-8460ebe8b38d. Step input: I love to eat pizza on weekends
Added user message to memory: I love to eat pizza on weekends
=== LLM Response ===
Pizza is a great choice for the weekend! If you'd like, I can help you order some. Just let me know what kind of pizza you prefer!
```
Input
```python
response = agent.chat("My preferred way of communication is email")
print(response)
```
Output
```text
> Running step 345842f0-f8a0-42ea-a1b7-612265d72a92. Step input: My preferred way of communication is email
Added user message to memory: My preferred way of communication is email
=== LLM Response ===
Got it! If you need any assistance or have any requests, feel free to let me know, and I can communicate with you via email.
```
### Using the agent WITHOUT memory
Input
```python
agent = FunctionCallingAgent.from_tools(
[call_tool, email_tool, order_food_tool],
# memory is not provided
llm=llm,
verbose=True,
)
response = agent.chat("I am feeling hungry, order me something and send me the bill")
print(response)
```
Output
```text
> Running step e89eb75d-75e1-4dea-a8c8-5c3d4b77882d. Step input: I am feeling hungry, order me something and send me the bill
Added user message to memory: I am feeling hungry, order me something and send me the bill
=== LLM Response ===
Please let me know your name and the dish you'd like to order, and I'll take care of it for you!
```
<Note> The agent is not able to remember the past preferences that user shared in previous chats. </Note>
### Using the agent WITH memory
Input
```python
agent = FunctionCallingAgent.from_tools(
[call_tool, email_tool, order_food_tool],
llm=llm,
# memory is provided
memory=memory_from_client, # or memory_from_config
verbose=True,
)
response = agent.chat("I am feeling hungry, order me something and send me the bill")
print(response)
```
Output
```text
> Running step 5e473db9-3973-4cb1-a5fd-860be0ab0006. Step input: I am feeling hungry, order me something and send me the bill
Added user message to memory: I am feeling hungry, order me something and send me the bill
=== Calling Function ===
Calling function: order_food with args: {"name": "David", "dish": "pizza"}
=== Function Output ===
Ordering pizza for David
=== Calling Function ===
Calling function: email_fn with args: {"name": "David"}
=== Function Output ===
Emailing... David
> Running step 38080544-6b37-4bb2-aab2-7670100d926e. Step input: None
=== LLM Response ===
I've ordered a pizza for you, and the bill has been sent to your email. Enjoy your meal! If there's anything else you need, feel free to let me know.
```
<Note> The agent is able to remember the past preferences that user shared and use them to perform actions. </Note>
@@ -0,0 +1,360 @@
---
title: LlamaIndex Multi-Agent Learning System
---
<Snippet file="blank-notif.mdx" />
Build an intelligent multi-agent learning system that uses Mem0 to maintain persistent memory across multiple specialized agents. This example demonstrates how to create a tutoring system where different agents collaborate while sharing a unified memory layer.
## Overview
This example showcases a **Multi-Agent Personal Learning System** that combines:
- **LlamaIndex AgentWorkflow** for multi-agent orchestration
- **Mem0** for persistent, shared memory across agents
- **Multi-agents** that collaborate on teaching tasks
The system consists of two agents:
- **TutorAgent**: Primary instructor for explanations and concept teaching
- **PracticeAgent**: Generates exercises and tracks learning progress
Both agents share the same memory context, enabling seamless collaboration and continuous learning from student interactions.
## Key Features
- **Persistent Memory**: Agents remember previous interactions across sessions
- **Multi-Agent Collaboration**: Agents can hand off tasks to each other
- **Personalized Learning**: Adapts to individual student needs and learning styles
- **Progress Tracking**: Monitors learning patterns and skill development
- **Memory-Driven Teaching**: References past struggles and successes
## Prerequisites
Install the required packages:
```bash
pip install llama-index-core llama-index-memory-mem0 openai python-dotenv
```
Set up your environment variables:
- `MEM0_API_KEY`: Your Mem0 Platform API key
- `OPENAI_API_KEY`: Your OpenAI API key
You can obtain your Mem0 Platform API key from the [Mem0 Platform](https://app.mem0.ai).
## Complete Implementation
```python
"""
Multi-Agent Personal Learning System: Mem0 + LlamaIndex AgentWorkflow Example
INSTALLATIONS:
!pip install llama-index-core llama-index-memory-mem0 openai
You need MEM0_API_KEY and OPENAI_API_KEY to run the example.
"""
import asyncio
from datetime import datetime
from dotenv import load_dotenv
# LlamaIndex imports
from llama_index.core.agent.workflow import AgentWorkflow, FunctionAgent
from llama_index.llms.openai import OpenAI
from llama_index.core.tools import FunctionTool
# Memory integration
from llama_index.memory.mem0 import Mem0Memory
import warnings
warnings.filterwarnings("ignore", category=DeprecationWarning)
load_dotenv()
class MultiAgentLearningSystem:
"""
Multi-Agent Architecture:
- TutorAgent: Main teaching and explanations
- PracticeAgent: Exercises and skill reinforcement
- Shared Memory: Both agents learn from student interactions
"""
def __init__(self, student_id: str):
self.student_id = student_id
self.llm = OpenAI(model="gpt-4o", temperature=0.2)
# Memory context for this student
self.memory_context = {"user_id": student_id, "app": "learning_assistant"}
self.memory = Mem0Memory.from_client(
context=self.memory_context
)
self._setup_agents()
def _setup_agents(self):
"""Setup two agents that work together and share memory"""
# TOOLS
async def assess_understanding(topic: str, student_response: str) -> str:
"""Assess student's understanding of a topic and save insights"""
# Simulate assessment logic
if "confused" in student_response.lower() or "don't understand" in student_response.lower():
assessment = f"STRUGGLING with {topic}: {student_response}"
insight = f"Student needs more help with {topic}. Prefers step-by-step explanations."
elif "makes sense" in student_response.lower() or "got it" in student_response.lower():
assessment = f"UNDERSTANDS {topic}: {student_response}"
insight = f"Student grasped {topic} quickly. Can move to advanced concepts."
else:
assessment = f"PARTIAL understanding of {topic}: {student_response}"
insight = f"Student has basic understanding of {topic}. Needs reinforcement."
return f"Assessment: {assessment}\nInsight saved: {insight}"
async def track_progress(topic: str, success_rate: str) -> str:
"""Track learning progress and identify patterns"""
progress_note = f"Progress on {topic}: {success_rate} - {datetime.now().strftime('%Y-%m-%d')}"
return f"Progress tracked: {progress_note}"
# Convert to FunctionTools
tools = [
FunctionTool.from_defaults(async_fn=assess_understanding),
FunctionTool.from_defaults(async_fn=track_progress)
]
# AGENTS
# Tutor Agent - Main teaching and explanation
self.tutor_agent = FunctionAgent(
name="TutorAgent",
description="Primary instructor that explains concepts and adapts to student needs",
system_prompt="""
You are a patient, adaptive programming tutor. Your key strength is REMEMBERING and BUILDING on previous interactions.
Key Behaviors:
1. Always check what the student has learned before (use memory context)
2. Adapt explanations based on their preferred learning style
3. Reference previous struggles or successes
4. Build progressively on past lessons
5. Use assess_understanding to evaluate responses and save insights
MEMORY-DRIVEN TEACHING:
- "Last time you struggled with X, so let's approach Y differently..."
- "Since you prefer visual examples, here's a diagram..."
- "Building on the functions we covered yesterday..."
When student shows understanding, hand off to PracticeAgent for exercises.
""",
tools=tools,
llm=self.llm,
can_handoff_to=["PracticeAgent"]
)
# Practice Agent - Exercises and reinforcement
self.practice_agent = FunctionAgent(
name="PracticeAgent",
description="Creates practice exercises and tracks progress based on student's learning history",
system_prompt="""
You create personalized practice exercises based on the student's learning history and current level.
Key Behaviors:
1. Generate problems that match their skill level (from memory)
2. Focus on areas they've struggled with previously
3. Gradually increase difficulty based on their progress
4. Use track_progress to record their performance
5. Provide encouraging feedback that references their growth
MEMORY-DRIVEN PRACTICE:
- "Let's practice loops again since you wanted more examples..."
- "Here's a harder version of the problem you solved yesterday..."
- "You've improved a lot in functions, ready for the next level?"
After practice, can hand back to TutorAgent for concept review if needed.
""",
tools=tools,
llm=self.llm,
can_handoff_to=["TutorAgent"]
)
# Create the multi-agent workflow
self.workflow = AgentWorkflow(
agents=[self.tutor_agent, self.practice_agent],
root_agent=self.tutor_agent.name,
initial_state={
"current_topic": "",
"student_level": "beginner",
"learning_style": "unknown",
"session_goals": []
}
)
async def start_learning_session(self, topic: str, student_message: str = "") -> str:
"""
Start a learning session with multi-agent memory-aware teaching
"""
if student_message:
request = f"I want to learn about {topic}. {student_message}"
else:
request = f"I want to learn about {topic}."
# The magic happens here - multi-agent memory is automatically shared!
response = await self.workflow.run(
user_msg=request,
memory=self.memory
)
return str(response)
async def get_learning_history(self) -> str:
"""Show what the system remembers about this student"""
try:
# Search memory for learning patterns
memories = self.memory.search(
user_id=self.student_id,
query="learning machine learning"
)
if memories and memories.get('results'):
history = "\n".join(f"- {m['memory']}" for m in memories['results'])
return history
else:
return "No learning history found yet. Let's start building your profile!"
except Exception as e:
return f"Memory retrieval error: {str(e)}"
async def run_learning_agent():
learning_system = MultiAgentLearningSystem(student_id="Alexander")
# First session
print("Session 1:")
response = await learning_system.start_learning_session(
"Vision Language Models",
"I'm new to machine learning but I have good hold on Python and have 4 years of work experience.")
print(response)
# Second session - multi-agent memory will remember the first
print("\nSession 2:")
response2 = await learning_system.start_learning_session(
"Machine Learning", "what all did I cover so far?")
print(response2)
# Show what the multi-agent system remembers
print("\nLearning History:")
history = await learning_system.get_learning_history()
print(history)
if __name__ == "__main__":
"""Run the example"""
print("Multi-agent Learning System powered by LlamaIndex and Mem0")
async def main():
await run_learning_agent()
asyncio.run(main())
```
## How It Works
### 1. Memory Context Setup
```python
# Memory context for this student
self.memory_context = {"user_id": student_id, "app": "learning_assistant"}
self.memory = Mem0Memory.from_client(context=self.memory_context)
```
The memory context identifies the specific student and application, ensuring memory isolation and proper retrieval.
### 2. Agent Collaboration
```python
# Agents can hand off to each other
can_handoff_to=["PracticeAgent"] # TutorAgent can hand off to PracticeAgent
can_handoff_to=["TutorAgent"] # PracticeAgent can hand off back
```
Agents collaborate seamlessly, with the TutorAgent handling explanations and the PracticeAgent managing exercises.
### 3. Shared Memory
```python
# Both agents share the same memory instance
response = await self.workflow.run(
user_msg=request,
memory=self.memory # Shared across all agents
)
```
All agents in the workflow share the same memory context, enabling true collaborative learning.
### 4. Memory-Driven Interactions
The system prompts guide agents to:
- Reference previous learning sessions
- Adapt to discovered learning styles
- Build progressively on past lessons
- Track and respond to learning patterns
## Running the Example
```python
# Initialize the learning system
learning_system = MultiAgentLearningSystem(student_id="Alexander")
# Start a learning session
response = await learning_system.start_learning_session(
"Vision Language Models",
"I'm new to machine learning but I have good hold on Python and have 4 years of work experience."
)
# Continue learning in a new session (memory persists)
response2 = await learning_system.start_learning_session(
"Machine Learning",
"what all did I cover so far?"
)
# Check learning history
history = await learning_system.get_learning_history()
```
## Expected Output
The system will demonstrate memory-aware interactions:
```
Session 1:
I understand you want to learn about Vision Language Models and you mentioned you're new to machine learning but have a strong Python background with 4 years of experience. That's a great foundation to build on!
Let me start with an explanation tailored to your programming background...
[Agent provides explanation and may hand off to PracticeAgent for exercises]
Session 2:
Based on our previous session, I remember we covered Vision Language Models and I noted that you have a strong Python background with 4 years of experience. You mentioned being new to machine learning, so we started with foundational concepts...
[Agent references previous session and builds upon it]
```
## Key Benefits
1. **Persistent Learning**: Agents remember across sessions, creating continuity
2. **Collaborative Teaching**: Multiple specialized agents work together seamlessly
3. **Personalized Adaptation**: System learns and adapts to individual learning styles
4. **Scalable Architecture**: Easy to add more specialized agents
5. **Memory Efficiency**: Shared memory prevents duplication and ensures consistency
## Best Practices
1. **Clear Agent Roles**: Define specific responsibilities for each agent
2. **Memory Context**: Use descriptive context for memory isolation
3. **Handoff Strategy**: Design clear handoff criteria between agents
5. **Memory Hygiene**: Regularly review and clean memory for optimal performance
## Help & Resources
- [LlamaIndex Agent Workflows](https://docs.llamaindex.ai/en/stable/use_cases/agents/)
- [Mem0 Platform](https://app.mem0.ai/)
<Snippet file="get-help.mdx" />
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---
title: Mem0 as an Agentic Tool
---
Integrate Mem0's memory capabilities with OpenAI's Agents SDK to create AI agents with persistent memory.
You can create agents that remember past conversations and use that context to provide better responses.
## Installation
First, install the required packages:
```bash
pip install mem0ai pydantic openai-agents
```
You'll also need a custom agents framework for this implementation.
## Setting Up Environment Variables
Store your Mem0 API key as an environment variable:
```bash
export MEM0_API_KEY="your_mem0_api_key"
```
Or in your Python script:
```python
import os
os.environ["MEM0_API_KEY"] = "your_mem0_api_key"
```
## Code Structure
The integration consists of three main components:
1. **Context Manager**: Defines user context for memory operations
2. **Memory Tools**: Functions to add, search, and retrieve memories
3. **Memory Agent**: An agent configured to use these memory tools
## Step-by-Step Implementation
### 1. Import Dependencies
```python
from __future__ import annotations
import os
import asyncio
from pydantic import BaseModel
try:
from mem0 import AsyncMemoryClient
except ImportError:
raise ImportError("mem0 is not installed. Please install it using 'pip install mem0ai'.")
from agents import (
Agent,
ItemHelpers,
MessageOutputItem,
RunContextWrapper,
Runner,
ToolCallItem,
ToolCallOutputItem,
TResponseInputItem,
function_tool,
)
```
### 2. Define Memory Context
```python
class Mem0Context(BaseModel):
user_id: str | None = None
```
### 3. Initialize the Mem0 Client
```python
client = AsyncMemoryClient(api_key=os.getenv("MEM0_API_KEY"))
```
### 4. Create Memory Tools
#### Add to Memory
```python
@function_tool
async def add_to_memory(
context: RunContextWrapper[Mem0Context],
content: str,
) -> str:
"""
Add a message to Mem0
Args:
content: The content to store in memory.
"""
messages = [{"role": "user", "content": content}]
user_id = context.context.user_id or "default_user"
await client.add(messages, user_id=user_id)
return f"Stored message: {content}"
```
#### Search Memory
```python
@function_tool
async def search_memory(
context: RunContextWrapper[Mem0Context],
query: str,
) -> str:
"""
Search for memories in Mem0
Args:
query: The search query.
"""
user_id = context.context.user_id or "default_user"
memories = await client.search(query, user_id=user_id, output_format="v1.1")
results = '\n'.join([result["memory"] for result in memories["results"]])
return str(results)
```
#### Get All Memories
```python
@function_tool
async def get_all_memory(
context: RunContextWrapper[Mem0Context],
) -> str:
"""Retrieve all memories from Mem0"""
user_id = context.context.user_id or "default_user"
memories = await client.get_all(user_id=user_id, output_format="v1.1")
results = '\n'.join([result["memory"] for result in memories["results"]])
return str(results)
```
### 5. Configure the Memory Agent
```python
memory_agent = Agent[Mem0Context](
name="Memory Assistant",
instructions="""You are a helpful assistant with memory capabilities. You can:
1. Store new information using add_to_memory
2. Search existing information using search_memory
3. Retrieve all stored information using get_all_memory
When users ask questions:
- If they want to store information, use add_to_memory
- If they're searching for specific information, use search_memory
- If they want to see everything stored, use get_all_memory""",
tools=[add_to_memory, search_memory, get_all_memory],
)
```
### 6. Implement the Main Runtime Loop
```python
async def main():
current_agent: Agent[Mem0Context] = memory_agent
input_items: list[TResponseInputItem] = []
context = Mem0Context()
while True:
user_input = input("Enter your message (or 'quit' to exit): ")
if user_input.lower() == 'quit':
break
input_items.append({"content": user_input, "role": "user"})
result = await Runner.run(current_agent, input_items, context=context)
for new_item in result.new_items:
agent_name = new_item.agent.name
if isinstance(new_item, MessageOutputItem):
print(f"{agent_name}: {ItemHelpers.text_message_output(new_item)}")
elif isinstance(new_item, ToolCallItem):
print(f"{agent_name}: Calling a tool")
elif isinstance(new_item, ToolCallOutputItem):
print(f"{agent_name}: Tool call output: {new_item.output}")
else:
print(f"{agent_name}: Skipping item: {new_item.__class__.__name__}")
input_items = result.to_input_list()
if __name__ == "__main__":
asyncio.run(main())
```
## Usage Examples
### Storing Information
```
User: Remember that my favorite color is blue
Agent: Calling a tool
Agent: Tool call output: Stored message: my favorite color is blue
Agent: I've stored that your favorite color is blue in my memory. I'll remember that for future conversations.
```
### Searching Memory
```
User: What's my favorite color?
Agent: Calling a tool
Agent: Tool call output: my favorite color is blue
Agent: Your favorite color is blue, based on what you've told me earlier.
```
### Retrieving All Memories
```
User: What do you know about me?
Agent: Calling a tool
Agent: Tool call output: favorite color is blue
my birthday is on March 15
Agent: Based on our previous conversations, I know that:
1. Your favorite color is blue
2. Your birthday is on March 15
```
## Advanced Configuration
### Custom User IDs
You can specify different user IDs to maintain separate memory stores for multiple users:
```python
context = Mem0Context(user_id="user123")
```
## Resources
- [Mem0 Documentation](https://docs.mem0.ai)
- [Mem0 Dashboard](https://app.mem0.ai/dashboard)
- [API Reference](https://docs.mem0.ai/api-reference)
+68
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@@ -0,0 +1,68 @@
---
title: Mem0 Demo
---
You can create a personalized AI Companion using Mem0. This guide will walk you through the necessary steps and provide the complete setup instructions to get you started.
<video
autoPlay
muted
loop
playsInline
className="w-full aspect-video rounded-lg"
src="https://github.com/user-attachments/assets/cebc4f8e-bdb9-4837-868d-13c5ab7bb433"
></video>
You can try the [Mem0 Demo](https://mem0-4vmi.vercel.app) live here.
## Overview
The Personalized AI Companion leverages Mem0 to retain information across interactions, enabling a tailored learning experience. It creates memories for each user interaction and integrates with OpenAI's GPT models to provide detailed and context-aware responses to user queries.
## Setup
Before you begin, follow these steps to set up the demo application:
1. Clone the Mem0 repository:
```bash
git clone https://github.com/mem0ai/mem0.git
```
2. Navigate to the demo application folder:
```bash
cd mem0/examples/mem0-demo
```
3. Install dependencies:
```bash
pnpm install
```
4. Set up environment variables by creating a `.env` file in the project root with the following content:
```bash
OPENAI_API_KEY=your_openai_api_key
MEM0_API_KEY=your_mem0_api_key
```
You can obtain your `MEM0_API_KEY` by signing up at [Mem0 API Dashboard](https://app.mem0.ai/dashboard/api-keys).
5. Start the development server:
```bash
pnpm run dev
```
## Enhancing the Next.js Application
Once the demo is running, you can customize and enhance the Next.js application by modifying the components in the `mem0-demo` folder. Consider:
- Adding new memory features to improve contextual retention.
- Customizing the UI to better suit your application needs.
- Integrating additional APIs or third-party services to extend functionality.
## Full Code
You can find the complete source code for this demo on GitHub:
[Mem0 Demo GitHub](https://github.com/mem0ai/mem0/tree/main/examples/mem0-demo)
## Conclusion
This setup demonstrates how to build an AI Companion that maintains memory across interactions using Mem0. The system continuously adapts to user interactions, making future responses more relevant and personalized. Experiment with the application and enhance it further to suit your use case!
@@ -0,0 +1,293 @@
---
title: 'Healthcare Assistant with Mem0 and Google ADK'
description: 'Build a personalized healthcare agent that remembers patient information across conversations using Mem0 and Google ADK'
---
# Healthcare Assistant with Memory
This example demonstrates how to build a healthcare assistant that remembers patient information across conversations using Google ADK and Mem0.
## Overview
The Healthcare Assistant helps patients by:
- Remembering their medical history and symptoms
- Providing general health information
- Scheduling appointment reminders
- Maintaining a personalized experience across conversations
By integrating Mem0's memory layer with Google ADK, the assistant maintains context about the patient without requiring them to repeat information.
## Setup
Before you begin, make sure you have:
Installed Google ADK and Mem0 SDK:
```bash
pip install google-adk mem0ai python-dotenv
```
## Code Breakdown
Let's get started and understand the different components required in building a healthcare assistant powered by memory
```python
# Import dependencies
import os
import asyncio
from google.adk.agents import Agent
from google.adk.runners import Runner
from google.adk.sessions import InMemorySessionService
from google.genai import types
from mem0 import MemoryClient
from dotenv import load_dotenv
load_dotenv()
# Set up environment variables
# os.environ["GOOGLE_API_KEY"] = "your-google-api-key"
# os.environ["MEM0_API_KEY"] = "your-mem0-api-key"
# Define a global user ID for simplicity
USER_ID = "Alex"
# Initialize Mem0 client
mem0 = MemoryClient()
```
## Define Memory Tools
First, we'll create tools that allow our agent to store and retrieve information using Mem0:
```python
def save_patient_info(information: str) -> dict:
"""Saves important patient information to memory."""
# Store in Mem0
response = mem0_client.add(
[{"role": "user", "content": information}],
user_id=USER_ID,
run_id="healthcare_session",
metadata={"type": "patient_information"}
)
def retrieve_patient_info(query: str) -> dict:
"""Retrieves relevant patient information from memory."""
# Search Mem0
results = mem0_client.search(
query,
user_id=USER_ID,
limit=5,
threshold=0.7, # Higher threshold for more relevant results
output_format="v1.1"
)
# Format and return the results
if results and len(results) > 0:
memories = [memory["memory"] for memory in results.get('results', [])]
return {
"status": "success",
"memories": memories,
"count": len(memories)
}
else:
return {
"status": "no_results",
"memories": [],
"count": 0
}
```
## Define Healthcare Tools
Next, we'll add tools specific to healthcare assistance:
```python
def schedule_appointment(date: str, time: str, reason: str) -> dict:
"""Schedules a doctor's appointment."""
# In a real app, this would connect to a scheduling system
appointment_id = f"APT-{hash(date + time) % 10000}"
return {
"status": "success",
"appointment_id": appointment_id,
"confirmation": f"Appointment scheduled for {date} at {time} for {reason}",
"message": "Please arrive 15 minutes early to complete paperwork."
}
```
## Create the Healthcare Assistant Agent
Now we'll create our main agent with all the tools:
```python
# Create the agent
healthcare_agent = Agent(
name="healthcare_assistant",
model="gemini-1.5-flash", # Using Gemini for healthcare assistant
description="Healthcare assistant that helps patients with health information and appointment scheduling.",
instruction="""You are a helpful Healthcare Assistant with memory capabilities.
Your primary responsibilities are to:
1. Remember patient information using the 'save_patient_info' tool when they share symptoms, conditions, or preferences.
2. Retrieve past patient information using the 'retrieve_patient_info' tool when relevant to the current conversation.
3. Help schedule appointments using the 'schedule_appointment' tool.
IMPORTANT GUIDELINES:
- Always be empathetic, professional, and helpful.
- Save important patient information like symptoms, conditions, allergies, and preferences.
- Check if you have relevant patient information before asking for details they may have shared previously.
- Make it clear you are not a doctor and cannot provide medical diagnosis or treatment.
- For serious symptoms, always recommend consulting a healthcare professional.
- Keep all patient information confidential.
""",
tools=[save_patient_info, retrieve_patient_info, schedule_appointment]
)
```
## Set Up Session and Runner
```python
# Set up Session Service and Runner
session_service = InMemorySessionService()
# Define constants for the conversation
APP_NAME = "healthcare_assistant_app"
USER_ID = "Alex"
SESSION_ID = "session_001"
# Create a session
session = session_service.create_session(
app_name=APP_NAME,
user_id=USER_ID,
session_id=SESSION_ID
)
# Create the runner
runner = Runner(
agent=healthcare_agent,
app_name=APP_NAME,
session_service=session_service
)
```
## Interact with the Healthcare Assistant
```python
# Function to interact with the agent
async def call_agent_async(query, runner, user_id, session_id):
"""Sends a query to the agent and returns the final response."""
print(f"\n>>> Patient: {query}")
# Format the user's message
content = types.Content(
role='user',
parts=[types.Part(text=query)]
)
# Set user_id for tools to access
save_patient_info.user_id = user_id
retrieve_patient_info.user_id = user_id
# Run the agent
async for event in runner.run_async(
user_id=user_id,
session_id=session_id,
new_message=content
):
if event.is_final_response():
if event.content and event.content.parts:
response = event.content.parts[0].text
print(f"<<< Assistant: {response}")
return response
return "No response received."
# Example conversation flow
async def run_conversation():
# First interaction - patient introduces themselves with key information
await call_agent_async(
"Hi, I'm Alex. I've been having headaches for the past week, and I have a penicillin allergy.",
runner=runner,
user_id=USER_ID,
session_id=SESSION_ID
)
# Request for health information
await call_agent_async(
"Can you tell me more about what might be causing my headaches?",
runner=runner,
user_id=USER_ID,
session_id=SESSION_ID
)
# Schedule an appointment
await call_agent_async(
"I think I should see a doctor. Can you help me schedule an appointment for next Monday at 2pm?",
runner=runner,
user_id=USER_ID,
session_id=SESSION_ID
)
# Test memory - should remember patient name, symptoms, and allergy
await call_agent_async(
"What medications should I avoid for my headaches?",
runner=runner,
user_id=USER_ID,
session_id=SESSION_ID
)
# Run the conversation example
if __name__ == "__main__":
asyncio.run(run_conversation())
```
## How It Works
This healthcare assistant demonstrates several key capabilities:
1. **Memory Storage**: When Alex mentions her headaches and penicillin allergy, the agent stores this information in Mem0 using the `save_patient_info` tool.
2. **Contextual Retrieval**: When Alex asks about headache causes, the agent uses the `retrieve_patient_info` tool to recall her specific situation.
3. **Memory Application**: When discussing medications, the agent remembers Alex's penicillin allergy without her needing to repeat it, providing safer and more personalized advice.
4. **Conversation Continuity**: The agent maintains context across the entire conversation session, creating a more natural and efficient interaction.
## Key Implementation Details
### User ID Management
Instead of passing the user ID as a parameter to the memory tools (which would require modifying the ADK's tool calling system), we attach it directly to the function object:
```python
# Set user_id for tools to access
save_patient_info.user_id = user_id
retrieve_patient_info.user_id = user_id
```
Inside the tool functions, we retrieve this attribute:
```python
# Get user_id from session state or use default
user_id = getattr(save_patient_info, 'user_id', 'default_user')
```
This approach allows our tools to maintain user context without complicating their parameter signatures.
### Mem0 Integration
The integration with Mem0 happens through two primary functions:
1. `mem0_client.add()` - Stores new information with appropriate metadata
2. `mem0_client.search()` - Retrieves relevant memories using semantic search
The `threshold` parameter in the search function ensures that only highly relevant memories are returned.
## Conclusion
This example demonstrates how to build a healthcare assistant with persistent memory using Google ADK and Mem0. The integration allows for a more personalized patient experience by maintaining context across conversation turns, which is particularly valuable in healthcare scenarios where continuity of information is crucial.
By storing and retrieving patient information intelligently, the assistant provides more relevant responses without requiring the patient to repeat their medical history, symptoms, or preferences.
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---
title: Mem0 with Mastra
---
In this example you'll learn how to use the Mem0 to add long-term memory capabilities to [Mastra's agent](https://mastra.ai/) via tool-use.
This memory integration can work alongside Mastra's [agent memory features](https://mastra.ai/docs/agents/01-agent-memory).
You can find the complete example code in the [Mastra repository](https://github.com/mastra-ai/mastra/tree/main/examples/memory-with-mem0).
## Overview
This guide will show you how to integrate Mem0 with Mastra to add long-term memory capabilities to your agents. We'll create tools that allow agents to save and retrieve memories using Mem0's API.
### Installation
1. **Install the Integration Package**
To install the Mem0 integration, run:
```bash
npm install @mastra/mem0
```
2. **Add the Integration to Your Project**
Create a new file for your integrations and import the integration:
```typescript integrations/index.ts
import { Mem0Integration } from "@mastra/mem0";
export const mem0 = new Mem0Integration({
config: {
apiKey: process.env.MEM0_API_KEY!,
userId: "alice",
},
});
```
3. **Use the Integration in Tools or Workflows**
You can now use the integration when defining tools for your agents or in workflows.
```typescript tools/index.ts
import { createTool } from "@mastra/core";
import { z } from "zod";
import { mem0 } from "../integrations";
export const mem0RememberTool = createTool({
id: "Mem0-remember",
description:
"Remember your agent memories that you've previously saved using the Mem0-memorize tool.",
inputSchema: z.object({
question: z
.string()
.describe("Question used to look up the answer in saved memories."),
}),
outputSchema: z.object({
answer: z.string().describe("Remembered answer"),
}),
execute: async ({ context }) => {
console.log(`Searching memory "${context.question}"`);
const memory = await mem0.searchMemory(context.question);
console.log(`\nFound memory "${memory}"\n`);
return {
answer: memory,
};
},
});
export const mem0MemorizeTool = createTool({
id: "Mem0-memorize",
description:
"Save information to mem0 so you can remember it later using the Mem0-remember tool.",
inputSchema: z.object({
statement: z.string().describe("A statement to save into memory"),
}),
execute: async ({ context }) => {
console.log(`\nCreating memory "${context.statement}"\n`);
// to reduce latency memories can be saved async without blocking tool execution
void mem0.createMemory(context.statement).then(() => {
console.log(`\nMemory "${context.statement}" saved.\n`);
});
return { success: true };
},
});
```
4. **Create a new agent**
```typescript agents/index.ts
import { openai } from '@ai-sdk/openai';
import { Agent } from '@mastra/core/agent';
import { mem0MemorizeTool, mem0RememberTool } from '../tools';
export const mem0Agent = new Agent({
name: 'Mem0 Agent',
instructions: `
You are a helpful assistant that has the ability to memorize and remember facts using Mem0.
`,
model: openai('gpt-4o'),
tools: { mem0RememberTool, mem0MemorizeTool },
});
```
5. **Run the agent**
```typescript index.ts
import { Mastra } from '@mastra/core/mastra';
import { createLogger } from '@mastra/core/logger';
import { mem0Agent } from './agents';
export const mastra = new Mastra({
agents: { mem0Agent },
logger: createLogger({
name: 'Mastra',
level: 'error',
}),
});
```
In the example above:
- We import the `@mastra/mem0` integration.
- We define two tools that uses the Mem0 API client to create new memories and recall previously saved memories.
- The tool accepts `question` as an input and returns the memory as a string.
@@ -0,0 +1,538 @@
---
title: 'Mem0 with OpenAI Agents SDK for Voice'
description: 'Integrate memory capabilities into your voice agents using Mem0 and OpenAI Agents SDK'
---
# Building Voice Agents with Memory using Mem0 and OpenAI Agents SDK
This guide demonstrates how to combine OpenAI's Agents SDK for voice applications with Mem0's memory capabilities to create a voice assistant that remembers user preferences and past interactions.
## Prerequisites
Before you begin, make sure you have:
1. Installed OpenAI Agents SDK with voice dependencies:
```bash
pip install 'openai-agents[voice]'
```
2. Installed Mem0 SDK:
```bash
pip install mem0ai
```
3. Installed other required dependencies:
```bash
pip install numpy sounddevice pydantic
```
4. Set up your API keys:
- OpenAI API key for the Agents SDK
- Mem0 API key from the Mem0 Platform
## Code Breakdown
Let's break down the key components of this implementation:
### 1. Setting Up Dependencies and Environment
```python
# OpenAI Agents SDK imports
from agents import (
Agent,
function_tool
)
from agents.voice import (
AudioInput,
SingleAgentVoiceWorkflow,
VoicePipeline
)
from agents.extensions.handoff_prompt import prompt_with_handoff_instructions
# Mem0 imports
from mem0 import AsyncMemoryClient
# Set up API keys (replace with your actual keys)
os.environ["OPENAI_API_KEY"] = "your-openai-api-key"
os.environ["MEM0_API_KEY"] = "your-mem0-api-key"
# Define a global user ID for simplicity
USER_ID = "voice_user"
# Initialize Mem0 client
mem0_client = AsyncMemoryClient()
```
This section handles:
- Importing required modules from OpenAI Agents SDK and Mem0
- Setting up environment variables for API keys
- Defining a simple user identification system (using a global variable)
- Initializing the Mem0 client that will handle memory operations
### 2. Memory Tools with Function Decorators
The `@function_tool` decorator transforms Python functions into callable tools for the OpenAI agent. Here are the key memory tools:
#### Storing User Memories
```python
import logging
# Set up logging at the top of your file
logging.basicConfig(
level=logging.DEBUG,
format='%(asctime)s - %(name)s - %(levelname)s - %(message)s',
force=True
)
logger = logging.getLogger("memory_voice_agent")
# Then use logger in your function tools
@function_tool
async def save_memories(
memory: str
) -> str:
"""Store a user memory in memory."""
# This will be visible in your console
logger.debug(f"Saving memory: {memory} for user {USER_ID}")
# Store the preference in Mem0
memory_content = f"User memory - {memory}"
await mem0_client.add(
memory_content,
user_id=USER_ID,
)
return f"I've saved your memory: {memory}"
```
This function:
- Takes a memory string
- Creates a formatted memory string
- Stores it in Mem0 using the `add()` method
- Includes metadata to categorize the memory for easier retrieval
- Returns a confirmation message that the agent will speak
#### Finding Relevant Memories
```python
@function_tool
async def search_memories(
query: str
) -> str:
"""
Find memories relevant to the current conversation.
Args:
query: The search query to find relevant memories
"""
print(f"Finding memories related to: {query}")
results = await mem0_client.search(
query,
user_id=USER_ID,
limit=5,
threshold=0.7, # Higher threshold for more relevant results
output_format="v1.1"
)
# Format and return the results
if not results.get('results', []):
return "I don't have any relevant memories about this topic."
memories = [f"• {result['memory']}" for result in results.get('results', [])]
return "Here's what I remember that might be relevant:\n" + "\n".join(memories)
```
This tool:
- Takes a search query string
- Passes it to Mem0's semantic search to find related memories
- Sets a threshold for relevance to ensure quality results
- Returns a formatted list of relevant memories or a default message
### 3. Creating the Voice Agent
```python
def create_memory_voice_agent():
# Create the agent with memory-enabled tools
agent = Agent(
name="Memory Assistant",
instructions=prompt_with_handoff_instructions(
"""You're speaking to a human, so be polite and concise.
Always respond in clear, natural English.
You have the ability to remember information about the user.
Use the save_memories tool when the user shares an important information worth remembering.
Use the search_memories tool when you need context from past conversations or user asks you to recall something.
""",
),
model="gpt-4o",
tools=[save_memories, search_memories],
)
return agent
```
This function:
- Creates an OpenAI Agent with specific instructions
- Configures it to use gpt-4o (you can use other models)
- Registers the memory-related tools with the agent
- Uses `prompt_with_handoff_instructions` to include standard voice agent behaviors
### 4. Microphone Recording Functionality
```python
async def record_from_microphone(duration=5, samplerate=24000):
"""Record audio from the microphone for a specified duration."""
print(f"Recording for {duration} seconds...")
# Create a buffer to store the recorded audio
frames = []
# Callback function to store audio data
def callback(indata, frames_count, time_info, status):
frames.append(indata.copy())
# Start recording
with sd.InputStream(samplerate=samplerate, channels=1, callback=callback, dtype=np.int16):
await asyncio.sleep(duration)
# Combine all frames into a single numpy array
audio_data = np.concatenate(frames)
return audio_data
```
This function:
- Creates a simple asynchronous microphone recording function
- Uses the sounddevice library to capture audio input
- Stores frames in a buffer during recording
- Combines frames into a single numpy array when complete
- Returns the audio data for processing
### 5. Main Loop and Voice Processing
```python
async def main():
# Create the agent
agent = create_memory_voice_agent()
# Set up the voice pipeline
pipeline = VoicePipeline(
workflow=SingleAgentVoiceWorkflow(agent)
)
# Configure TTS settings
pipeline.config.tts_settings.voice = "alloy"
pipeline.config.tts_settings.speed = 1.0
try:
while True:
# Get user input
print("\nPress Enter to start recording (or 'q' to quit)...")
user_input = input()
if user_input.lower() == 'q':
break
# Record and process audio
audio_data = await record_from_microphone(duration=5)
audio_input = AudioInput(buffer=audio_data)
result = await pipeline.run(audio_input)
# Play response and handle events
player = sd.OutputStream(samplerate=24000, channels=1, dtype=np.int16)
player.start()
agent_response = ""
print("\nAgent response:")
async for event in result.stream():
if event.type == "voice_stream_event_audio":
player.write(event.data)
elif event.type == "voice_stream_event_content":
content = event.data
agent_response += content
print(content, end="", flush=True)
# Save the agent's response to memory
if agent_response:
try:
await mem0_client.add(
f"Agent response: {agent_response}",
user_id=USER_ID,
metadata={"type": "agent_response"}
)
except Exception as e:
print(f"Failed to store memory: {e}")
except KeyboardInterrupt:
print("\nExiting...")
```
This main function orchestrates the entire process:
1. Creates the memory-enabled voice agent
2. Sets up the voice pipeline with TTS settings
3. Implements an interactive loop for recording and processing voice input
4. Handles streaming of response events (both audio and text)
5. Automatically saves the agent's responses to memory
6. Includes proper error handling and exit mechanisms
## Create a Memory-Enabled Voice Agent
Now that we've explained each component, here's the complete implementation that combines OpenAI Agents SDK for voice with Mem0's memory capabilities:
```python
import asyncio
import os
import logging
from typing import Optional, List, Dict, Any
import numpy as np
import sounddevice as sd
from pydantic import BaseModel
# OpenAI Agents SDK imports
from agents import (
Agent,
function_tool
)
from agents.voice import (
AudioInput,
SingleAgentVoiceWorkflow,
VoicePipeline
)
from agents.extensions.handoff_prompt import prompt_with_handoff_instructions
# Mem0 imports
from mem0 import AsyncMemoryClient
# Set up API keys (replace with your actual keys)
os.environ["OPENAI_API_KEY"] = "your-openai-api-key"
os.environ["MEM0_API_KEY"] = "your-mem0-api-key"
# Define a global user ID for simplicity
USER_ID = "voice_user"
# Initialize Mem0 client
mem0_client = AsyncMemoryClient()
# Create tools that utilize Mem0's memory
@function_tool
async def save_memories(
memory: str
) -> str:
"""
Store a user memory in memory.
Args:
memory: The memory to save
"""
print(f"Saving memory: {memory} for user {USER_ID}")
# Store the preference in Mem0
memory_content = f"User memory - {memory}"
await mem0_client.add(
memory_content,
user_id=USER_ID,
)
return f"I've saved your memory: {memory}"
@function_tool
async def search_memories(
query: str
) -> str:
"""
Find memories relevant to the current conversation.
Args:
query: The search query to find relevant memories
"""
print(f"Finding memories related to: {query}")
results = await mem0_client.search(
query,
user_id=USER_ID,
limit=5,
threshold=0.7, # Higher threshold for more relevant results
output_format="v1.1"
)
# Format and return the results
if not results.get('results', []):
return "I don't have any relevant memories about this topic."
memories = [f"• {result['memory']}" for result in results.get('results', [])]
return "Here's what I remember that might be relevant:\n" + "\n".join(memories)
# Create the agent with memory-enabled tools
def create_memory_voice_agent():
# Create the agent with memory-enabled tools
agent = Agent(
name="Memory Assistant",
instructions=prompt_with_handoff_instructions(
"""You're speaking to a human, so be polite and concise.
Always respond in clear, natural English.
You have the ability to remember information about the user.
Use the save_memories tool when the user shares an important information worth remembering.
Use the search_memories tool when you need context from past conversations or user asks you to recall something.
""",
),
model="gpt-4o",
tools=[save_memories, search_memories],
)
return agent
async def record_from_microphone(duration=5, samplerate=24000):
"""Record audio from the microphone for a specified duration."""
print(f"Recording for {duration} seconds...")
# Create a buffer to store the recorded audio
frames = []
# Callback function to store audio data
def callback(indata, frames_count, time_info, status):
frames.append(indata.copy())
# Start recording
with sd.InputStream(samplerate=samplerate, channels=1, callback=callback, dtype=np.int16):
await asyncio.sleep(duration)
# Combine all frames into a single numpy array
audio_data = np.concatenate(frames)
return audio_data
async def main():
print("Starting Memory Voice Agent")
# Create the agent and context
agent = create_memory_voice_agent()
# Set up the voice pipeline
pipeline = VoicePipeline(
workflow=SingleAgentVoiceWorkflow(agent)
)
# Configure TTS settings
pipeline.config.tts_settings.voice = "alloy"
pipeline.config.tts_settings.speed = 1.0
try:
while True:
# Get user input
print("\nPress Enter to start recording (or 'q' to quit)...")
user_input = input()
if user_input.lower() == 'q':
break
# Record and process audio
audio_data = await record_from_microphone(duration=5)
audio_input = AudioInput(buffer=audio_data)
print("Processing your request...")
# Process the audio input
result = await pipeline.run(audio_input)
# Create an audio player
player = sd.OutputStream(samplerate=24000, channels=1, dtype=np.int16)
player.start()
# Store the agent's response for adding to memory
agent_response = ""
print("\nAgent response:")
# Play the audio stream as it comes in
async for event in result.stream():
if event.type == "voice_stream_event_audio":
player.write(event.data)
elif event.type == "voice_stream_event_content":
# Accumulate and print the text response
content = event.data
agent_response += content
print(content, end="", flush=True)
print("\n")
# Example of saving the conversation to Mem0 after completion
if agent_response:
try:
await mem0_client.add(
f"Agent response: {agent_response}",
user_id=USER_ID,
metadata={"type": "agent_response"}
)
except Exception as e:
print(f"Failed to store memory: {e}")
except KeyboardInterrupt:
print("\nExiting...")
if __name__ == "__main__":
asyncio.run(main())
```
## Key Features of This Implementation
This implementation offers several key features:
1. **Simplified User Management**: Uses a global `USER_ID` variable for simplicity, but can be extended to manage multiple users.
2. **Real Microphone Input**: Includes a `record_from_microphone()` function that captures actual voice input from your microphone.
3. **Interactive Voice Loop**: Implements a continuous interaction loop, allowing for multiple back-and-forth exchanges.
4. **Memory Management Tools**:
- `save_memories`: Stores user memories in Mem0
- `search_memories`: Searches for relevant past information
5. **Voice Configuration**: Demonstrates how to configure TTS settings for the voice response.
## Running the Example
To run this example:
1. Replace the placeholder API keys with your actual keys
2. Make sure your microphone is properly connected
3. Run the script with Python 3.8 or newer
4. Press Enter to start recording, then speak your request
5. Press 'q' to quit the application
The agent will listen to your request, process it through the OpenAI model, utilize Mem0 for memory operations as needed, and respond both through text output and voice speech.
## Best Practices for Voice Agents with Memory
1. **Optimizing Memory for Voice**: Keep memories concise and relevant for voice responses.
2. **Forgetting Mechanism**: Implement a way to delete or expire memories that are no longer relevant.
3. **Context Preservation**: Store enough context with each memory to make retrieval effective.
4. **Error Handling**: Implement robust error handling for memory operations, as voice interactions should continue smoothly even if memory operations fail.
## Conclusion
By combining OpenAI's Agents SDK with Mem0's memory capabilities, you can create voice agents that maintain persistent memory of user preferences and past interactions. This significantly enhances the user experience by making conversations more natural and personalized.
As you build your voice application, experiment with different memory strategies and filtering approaches to find the optimal balance between comprehensive memory and efficient retrieval for your specific use case.
## Debugging Function Tools
When working with the OpenAI Agents SDK, you might notice that regular `print()` statements inside `@function_tool` decorated functions don't appear in your console output. This is because the Agents SDK captures and redirects standard output when executing these functions.
To effectively debug your function tools, use Python's `logging` module instead:
```python
import logging
# Set up logging at the top of your file
logging.basicConfig(
level=logging.DEBUG,
format='%(asctime)s - %(name)s - %(levelname)s - %(message)s',
force=True
)
logger = logging.getLogger("memory_voice_agent")
# Then use logger in your function tools
@function_tool
async def save_memories(
memory: str
) -> str:
"""Store a user memory in memory."""
# This will be visible in your console
logger.debug(f"Saving memory: {memory} for user {USER_ID}")
# Rest of your function...
```
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---
title: Mem0 with Ollama
---
## Running Mem0 Locally with Ollama
Mem0 can be utilized entirely locally by leveraging Ollama for both the embedding model and the language model (LLM). This guide will walk you through the necessary steps and provide the complete code to get you started.
### Overview
By using Ollama, you can run Mem0 locally, which allows for greater control over your data and models. This setup uses Ollama for both the embedding model and the language model, providing a fully local solution.
### Setup
Before you begin, ensure you have Mem0 and Ollama installed and properly configured on your local machine.
### Full Code Example
Below is the complete code to set up and use Mem0 locally with Ollama:
```python
from mem0 import Memory
config = {
"vector_store": {
"provider": "qdrant",
"config": {
"collection_name": "test",
"host": "localhost",
"port": 6333,
"embedding_model_dims": 768, # Change this according to your local model's dimensions
},
},
"llm": {
"provider": "ollama",
"config": {
"model": "llama3.1:latest",
"temperature": 0,
"max_tokens": 2000,
"ollama_base_url": "http://localhost:11434", # Ensure this URL is correct
},
},
"embedder": {
"provider": "ollama",
"config": {
"model": "nomic-embed-text:latest",
# Alternatively, you can use "snowflake-arctic-embed:latest"
"ollama_base_url": "http://localhost:11434",
},
},
}
# Initialize Memory with the configuration
m = Memory.from_config(config)
# Add a memory
m.add("I'm visiting Paris", user_id="john")
# Retrieve memories
memories = m.get_all(user_id="john")
```
### Key Points
- **Configuration**: The setup involves configuring the vector store, language model, and embedding model to use local resources.
- **Vector Store**: Qdrant is used as the vector store, running on localhost.
- **Language Model**: Ollama is used as the LLM provider, with the "llama3.1:latest" model.
- **Embedding Model**: Ollama is also used for embeddings, with the "nomic-embed-text:latest" model.
### Conclusion
This local setup of Mem0 using Ollama provides a fully self-contained solution for memory management and AI interactions. It allows for greater control over your data and models while still leveraging the powerful capabilities of Mem0.
@@ -0,0 +1,218 @@
---
title: Memory-Guided Content Writing
---
This guide demonstrates how to leverage **Mem0** to streamline content writing by applying your unique writing style and preferences using persistent memory.
## Why Use Mem0?
Integrating Mem0 into your writing workflow helps you:
1. **Store persistent writing preferences** ensuring consistent tone, formatting, and structure.
2. **Automate content refinement** by retrieving preferences when rewriting or reviewing content.
3. **Scale your writing style** so it applies consistently across multiple documents or sessions.
## Setup
```python
import os
from openai import OpenAI
from mem0 import MemoryClient
os.environ["MEM0_API_KEY"] = "your-mem0-api-key"
os.environ["OPENAI_API_KEY"] = "your-openai-api-key"
# Set up Mem0 and OpenAI client
client = MemoryClient()
openai = OpenAI()
USER_ID = "content_writer"
RUN_ID = "smart_editing_session"
```
## **Storing Your Writing Preferences in Mem0**
```python
def store_writing_preferences():
"""Store your writing preferences in Mem0."""
preferences = """My writing preferences:
1. Use headings and sub-headings for structure.
2. Keep paragraphs concise (8–10 sentences max).
3. Incorporate specific numbers and statistics.
4. Provide concrete examples.
5. Use bullet points for clarity.
6. Avoid jargon and buzzwords."""
messages = [
{"role": "user", "content": "Here are my writing style preferences."},
{"role": "assistant", "content": preferences}
]
response = client.add(
messages,
user_id=USER_ID,
run_id=RUN_ID,
metadata={"type": "preferences", "category": "writing_style"}
)
return response
```
## **Editing Content Using Stored Preferences**
```python
def apply_writing_style(original_content):
"""Use preferences stored in Mem0 to guide content rewriting."""
results = client.search(
query="What are my writing style preferences?",
version="v2",
filters={
"AND": [
{
"user_id": USER_ID
},
{
"run_id": RUN_ID
}
]
},
)
if not results:
print("No preferences found.")
return None
preferences = "\n".join(r["memory"] for r in results.get('results', []))
system_prompt = f"""
You are a writing assistant.
Apply the following writing style preferences to improve the user's content:
Preferences:
{preferences}
"""
messages = [
{"role": "system", "content": system_prompt},
{"role": "user", "content": f"""Original Content:
{original_content}"""}
]
response = openai.chat.completions.create(
model="gpt-4o-mini",
messages=messages
)
clean_response = response.choices[0].message.content.strip()
return clean_response
```
## **Complete Workflow: Content Editing**
```python
def content_writing_workflow(content):
"""Automated workflow for editing a document based on writing preferences."""
# Store writing preferences (if not already stored)
store_writing_preferences() # Ideally done once, or with a conditional check
# Edit the document with Mem0 preferences
edited_content = apply_writing_style(content)
if not edited_content:
return "Failed to edit document."
# Display results
print("\n=== ORIGINAL DOCUMENT ===\n")
print(content)
print("\n=== EDITED DOCUMENT ===\n")
print(edited_content)
return edited_content
```
## **Example Usage**
```python
# Define your document
original_content = """Project Proposal
The following proposal outlines our strategy for the Q3 marketing campaign.
We believe this approach will significantly increase our market share.
Increase brand awareness
Boost sales by 15%
Expand our social media following
We plan to launch the campaign in July and continue through September.
"""
# Run the workflow
result = content_writing_workflow(original_content)
```
## **Expected Output**
Your document will be transformed into a structured, well-formatted version based on your preferences.
### **Original Document**
```
Project Proposal
The following proposal outlines our strategy for the Q3 marketing campaign.
We believe this approach will significantly increase our market share.
Increase brand awareness
Boost sales by 15%
Expand our social media following
We plan to launch the campaign in July and continue through September.
```
### **Edited Document**
```
# **Project Proposal**
## **Q3 Marketing Campaign Strategy**
This proposal outlines our strategy for the Q3 marketing campaign. We aim to significantly increase our market share with this approach.
### **Objectives**
- **Increase Brand Awareness**: Implement targeted advertising and community engagement to enhance visibility.
- **Boost Sales by 15%**: Increase sales by 15% compared to Q2 figures.
- **Expand Social Media Following**: Grow our social media audience by 20%.
### **Timeline**
- **Launch Date**: July
- **Duration**: July – September
### **Key Actions**
- **Targeted Advertising**: Utilize platforms like Google Ads and Facebook to reach specific demographics.
- **Community Engagement**: Host webinars and live Q&A sessions.
- **Content Creation**: Produce engaging videos and infographics.
### **Supporting Data**
- **Previous Campaign Success**: Our Q2 campaign increased sales by 12%. We will refine similar strategies for Q3.
- **Social Media Growth**: Last year, our Instagram followers grew by 25% during a similar campaign.
### **Conclusion**
We believe this strategy will effectively increase our market share. To achieve these goals, we need your support and collaboration. Let’s work together to make this campaign a success. Please review the proposal and provide your feedback by the end of the week.
```
Mem0 enables a seamless, intelligent content-writing workflow, perfect for content creators, marketers, and technical writers looking to scale their personal tone and structure across work.
## Help & Resources
- [Mem0 Platform](https://app.mem0.ai/)
<Snippet file="get-help.mdx" />
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---
title: Multimodal Demo with Mem0
---
Enhance your AI interactions with **Mem0**'s multimodal capabilities. Mem0 now supports image understanding, allowing for richer context and more natural interactions across supported AI platforms.
> Experience the power of multimodal AI! Test out Mem0's image understanding capabilities at [multimodal-demo.mem0.ai](https://multimodal-demo.mem0.ai)
## Features
- **Image Understanding**: Share and discuss images with AI assistants while maintaining context.
- **Smart Visual Context**: Automatically capture and reference visual elements in conversations.
- **Cross-Modal Memory**: Link visual and textual information seamlessly in your memory layer.
- **Cross-Session Recall**: Reference previously discussed visual content across different conversations.
- **Seamless Integration**: Works naturally with existing chat interfaces for a smooth experience.
## How It Works
1. **Upload Visual Content**: Simply drag and drop or paste images into your conversations.
2. **Natural Interaction**: Discuss the visual content naturally with AI assistants.
3. **Memory Integration**: Visual context is automatically stored and linked with your conversation history.
4. **Persistent Recall**: Retrieve and reference past visual content effortlessly.
## Demo Video
<iframe width="700" height="400" src="https://www.youtube.com/embed/2Md5AEFVpmg?si=rXXupn6CiDUPJsi3" title="YouTube video player" frameborder="0" allow="accelerometer; autoplay; clipboard-write; encrypted-media; gyroscope; picture-in-picture; web-share" referrerpolicy="strict-origin-when-cross-origin" allowfullscreen></iframe>
## Try It Out
Visit [multimodal-demo.mem0.ai](https://multimodal-demo.mem0.ai) to experience Mem0's multimodal capabilities firsthand. Upload images and see how Mem0 understands and remembers visual context across your conversations.
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---
title: OpenAI Inbuilt Tools
---
Integrate Mem0’s memory capabilities with OpenAI’s Inbuilt Tools to create AI agents with persistent memory.
## Getting Started
### Installation
```bash
npm install mem0ai openai zod
```
## Environment Setup
Save your Mem0 and OpenAI API keys in a `.env` file:
```
MEM0_API_KEY=your_mem0_api_key
OPENAI_API_KEY=your_openai_api_key
```
Get your Mem0 API key from the [Mem0 Dashboard](https://app.mem0.ai/dashboard/api-keys).
### Configuration
```javascript
const mem0Config = {
apiKey: process.env.MEM0_API_KEY,
user_id: "sample-user",
};
const openAIClient = new OpenAI();
const mem0Client = new MemoryClient(mem0Config);
```
### Adding Memories
Store user preferences, past interactions, or any relevant information:
<CodeGroup>
```javascript JavaScript
async function addUserPreferences() {
const mem0Client = new MemoryClient(mem0Config);
const userPreferences = "I Love BMW, Audi and Porsche. I Hate Mercedes. I love Red cars and Maroon cars. I have a budget of 120K to 150K USD. I like Audi the most.";
await mem0Client.add([{
role: "user",
content: userPreferences,
}], mem0Config);
}
await addUserPreferences();
```
```json Output (Memories)
[
{
"id": "ff9f3367-9e83-415d-b9c5-dc8befd9a4b4",
"data": { "memory": "Loves BMW, Audi, and Porsche" },
"event": "ADD"
},
{
"id": "04172ce6-3d7b-45a3-b4a1-ee9798593cb4",
"data": { "memory": "Hates Mercedes" },
"event": "ADD"
},
{
"id": "db363a5d-d258-4953-9e4c-777c120de34d",
"data": { "memory": "Loves red cars and maroon cars" },
"event": "ADD"
},
{
"id": "5519aaad-a2ac-4c0d-81d7-0d55c6ecdba8",
"data": { "memory": "Has a budget of 120K to 150K USD" },
"event": "ADD"
},
{
"id": "523b7693-7344-4563-922f-5db08edc8634",
"data": { "memory": "Likes Audi the most" },
"event": "ADD"
}
]
```
</CodeGroup>
### Retrieving Memories
Search for relevant memories based on the current user input:
```javascript
const relevantMemories = await mem0Client.search(userInput, mem0Config);
```
### Structured Responses with Zod
Define structured response schemas to get consistent output formats:
```javascript
// Define the schema for a car recommendation
const CarSchema = z.object({
car_name: z.string(),
car_price: z.string(),
car_url: z.string(),
car_image: z.string(),
car_description: z.string(),
});
// Schema for a list of car recommendations
const Cars = z.object({
cars: z.array(CarSchema),
});
// Create a function tool based on the schema
const carRecommendationTool = zodResponsesFunction({
name: "carRecommendations",
parameters: Cars
});
// Use the tool in your OpenAI request
const response = await openAIClient.responses.create({
model: "gpt-4o",
tools: [{ type: "web_search_preview" }, carRecommendationTool],
input: `${getMemoryString(relevantMemories)}\n${userInput}`,
});
```
### Using Web Search
Combine memory with web search for up-to-date recommendations:
```javascript
const response = await openAIClient.responses.create({
model: "gpt-4o",
tools: [{ type: "web_search_preview" }, carRecommendationTool],
input: `${getMemoryString(relevantMemories)}\n${userInput}`,
});
```
## Examples
### Complete Car Recommendation System
```javascript
import MemoryClient from "mem0ai";
import { OpenAI } from "openai";
import { zodResponsesFunction } from "openai/helpers/zod";
import { z } from "zod";
import dotenv from 'dotenv';
dotenv.config();
const mem0Config = {
apiKey: process.env.MEM0_API_KEY,
user_id: "sample-user",
};
async function run() {
// Responses without memories
console.log("\n\nRESPONSES WITHOUT MEMORIES\n\n");
await main();
// Adding sample memories
await addSampleMemories();
// Responses with memories
console.log("\n\nRESPONSES WITH MEMORIES\n\n");
await main(true);
}
// OpenAI Response Schema
const CarSchema = z.object({
car_name: z.string(),
car_price: z.string(),
car_url: z.string(),
car_image: z.string(),
car_description: z.string(),
});
const Cars = z.object({
cars: z.array(CarSchema),
});
async function main(memory = false) {
const openAIClient = new OpenAI();
const mem0Client = new MemoryClient(mem0Config);
const input = "Suggest me some cars that I can buy today.";
const tool = zodResponsesFunction({ name: "carRecommendations", parameters: Cars });
// Store the user input as a memory
await mem0Client.add([{
role: "user",
content: input,
}], mem0Config);
// Search for relevant memories
let relevantMemories = []
if (memory) {
relevantMemories = await mem0Client.search(input, mem0Config);
}
const response = await openAIClient.responses.create({
model: "gpt-4o",
tools: [{ type: "web_search_preview" }, tool],
input: `${getMemoryString(relevantMemories)}\n${input}`,
});
console.log(response.output);
}
async function addSampleMemories() {
const mem0Client = new MemoryClient(mem0Config);
const myInterests = "I Love BMW, Audi and Porsche. I Hate Mercedes. I love Red cars and Maroon cars. I have a budget of 120K to 150K USD. I like Audi the most.";
await mem0Client.add([{
role: "user",
content: myInterests,
}], mem0Config);
}
const getMemoryString = (memories) => {
const MEMORY_STRING_PREFIX = "These are the memories I have stored. Give more weightage to the question by users and try to answer that first. You have to modify your answer based on the memories I have provided. If the memories are irrelevant you can ignore them. Also don't reply to this section of the prompt, or the memories, they are only for your reference. The MEMORIES of the USER are: \n\n";
const memoryString = (memories?.results || memories).map((mem) => `${mem.memory}`).join("\n") ?? "";
return memoryString.length > 0 ? `${MEMORY_STRING_PREFIX}${memoryString}` : "";
};
run().catch(console.error);
```
### Responses
<CodeGroup>
```json Without Memories
{
"cars": [
{
"car_name": "Toyota Camry",
"car_price": "$25,000",
"car_url": "https://www.toyota.com/camry/",
"car_image": "https://link-to-toyota-camry-image.com",
"car_description": "Reliable mid-size sedan with great fuel efficiency."
},
{
"car_name": "Honda Accord",
"car_price": "$26,000",
"car_url": "https://www.honda.com/accord/",
"car_image": "https://link-to-honda-accord-image.com",
"car_description": "Comfortable and spacious with advanced safety features."
},
{
"car_name": "Ford Mustang",
"car_price": "$28,000",
"car_url": "https://www.ford.com/mustang/",
"car_image": "https://link-to-ford-mustang-image.com",
"car_description": "Iconic sports car with powerful engine options."
},
{
"car_name": "Tesla Model 3",
"car_price": "$38,000",
"car_url": "https://www.tesla.com/model3",
"car_image": "https://link-to-tesla-model3-image.com",
"car_description": "Electric vehicle with advanced technology and long range."
},
{
"car_name": "Chevrolet Equinox",
"car_price": "$24,000",
"car_url": "https://www.chevrolet.com/equinox/",
"car_image": "https://link-to-chevron-equinox-image.com",
"car_description": "Compact SUV with a spacious interior and user-friendly technology."
}
]
}
```
```json With Memories
{
"cars": [
{
"car_name": "Audi RS7",
"car_price": "$118,500",
"car_url": "https://www.audiusa.com/us/web/en/models/rs7/2023/overview.html",
"car_image": "https://www.audiusa.com/content/dam/nemo/us/models/rs7/my23/gallery/1920x1080_AOZ_A717_191004.jpg",
"car_description": "The Audi RS7 is a high-performance hatchback with a sleek design, powerful 591-hp twin-turbo V8, and luxurious interior. It's available in various colors including red."
},
{
"car_name": "Porsche Panamera GTS",
"car_price": "$129,300",
"car_url": "https://www.porsche.com/usa/models/panamera/panamera-models/panamera-gts/",
"car_image": "https://files.porsche.com/filestore/image/multimedia/noneporsche-panamera-gts-sample-m02-high/normal/8a6327c3-6c7f-4c6f-a9a8-fb9f58b21795;sP;twebp/porsche-normal.webp",
"car_description": "The Porsche Panamera GTS is a luxury sports sedan with a 473-hp V8 engine, exquisite handling, and available in stunning red. Balances sportiness and comfort."
},
{
"car_name": "BMW M5",
"car_price": "$105,500",
"car_url": "https://www.bmwusa.com/vehicles/m-models/m5/sedan/overview.html",
"car_image": "https://www.bmwusa.com/content/dam/bmwusa/M/m5/2023/bmw-my23-m5-sapphire-black-twilight-purple-exterior-02.jpg",
"car_description": "The BMW M5 is a powerhouse sedan with a 600-hp V8 engine, known for its great handling and luxury. It comes in several distinctive colors including maroon."
}
]
}
```
</CodeGroup>
## Resources
- [Mem0 Documentation](https://docs.mem0.ai)
- [Mem0 Dashboard](https://app.mem0.ai/dashboard)
- [API Reference](https://docs.mem0.ai/api-reference)
- [OpenAI Documentation](https://platform.openai.com/docs)
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---
title: Personalized AI Tutor
---
You can create a personalized AI Tutor using Mem0. This guide will walk you through the necessary steps and provide the complete code to get you started.
## Overview
The Personalized AI Tutor leverages Mem0 to retain information across interactions, enabling a tailored learning experience. By integrating with OpenAI's GPT-4 model, the tutor can provide detailed and context-aware responses to user queries.
## Setup
Before you begin, ensure you have the required dependencies installed. You can install the necessary packages using pip:
```bash
pip install openai mem0ai
```
## Full Code Example
Below is the complete code to create and interact with a Personalized AI Tutor using Mem0:
```python
import os
from openai import OpenAI
from mem0 import Memory
# Set the OpenAI API key
os.environ['OPENAI_API_KEY'] = 'sk-xxx'
# Initialize the OpenAI client
client = OpenAI()
class PersonalAITutor:
def __init__(self):
"""
Initialize the PersonalAITutor with memory configuration and OpenAI client.
"""
config = {
"vector_store": {
"provider": "qdrant",
"config": {
"host": "localhost",
"port": 6333,
}
},
}
self.memory = Memory.from_config(config)
self.client = client
self.app_id = "app-1"
def ask(self, question, user_id=None):
"""
Ask a question to the AI and store the relevant facts in memory
:param question: The question to ask the AI.
:param user_id: Optional user ID to associate with the memory.
"""
# Start a streaming response request to the AI
response = self.client.responses.create(
model="gpt-4o",
instructions="You are a personal AI Tutor.",
input=question,
stream=True
)
# Store the question in memory
self.memory.add(question, user_id=user_id, metadata={"app_id": self.app_id})
# Print the response from the AI in real-time
for event in response:
if event.type == "response.output_text.delta":
print(event.delta, end="")
def get_memories(self, user_id=None):
"""
Retrieve all memories associated with the given user ID.
:param user_id: Optional user ID to filter memories.
:return: List of memories.
"""
return self.memory.get_all(user_id=user_id)
# Instantiate the PersonalAITutor
ai_tutor = PersonalAITutor()
# Define a user ID
user_id = "john_doe"
# Ask a question
ai_tutor.ask("I am learning introduction to CS. What is queue? Briefly explain.", user_id=user_id)
```
### Fetching Memories
You can fetch all the memories at any point in time using the following code:
```python
memories = ai_tutor.get_memories(user_id=user_id)
for m in memories['results']:
print(m['memory'])
```
### Key Points
- **Initialization**: The PersonalAITutor class is initialized with the necessary memory configuration and OpenAI client setup.
- **Asking Questions**: The ask method sends a question to the AI and stores the relevant information in memory.
- **Retrieving Memories**: The get_memories method fetches all stored memories associated with a user.
### Conclusion
As the conversation progresses, Mem0's memory automatically updates based on the interactions, providing a continuously improving personalized learning experience. This setup ensures that the AI Tutor can offer contextually relevant and accurate responses, enhancing the overall educational process.
@@ -0,0 +1,202 @@
---
title: Personal AI Travel Assistant
---
Create a personalized AI Travel Assistant using Mem0. This guide provides step-by-step instructions and the complete code to get you started.
## Overview
The Personalized AI Travel Assistant uses Mem0 to store and retrieve information across interactions, enabling a tailored travel planning experience. It integrates with OpenAI's GPT-4 model to provide detailed and context-aware responses to user queries.
## Setup
Install the required dependencies using pip:
```bash
pip install openai mem0ai
```
## Full Code Example
Here's the complete code to create and interact with a Personalized AI Travel Assistant using Mem0:
<CodeGroup>
```python After v1.1
import os
from openai import OpenAI
from mem0 import Memory
# Set the OpenAI API key
os.environ['OPENAI_API_KEY'] = "sk-xxx"
config = {
"llm": {
"provider": "openai",
"config": {
"model": "gpt-4o",
"temperature": 0.1,
"max_tokens": 2000,
}
},
"embedder": {
"provider": "openai",
"config": {
"model": "text-embedding-3-large"
}
},
"vector_store": {
"provider": "qdrant",
"config": {
"collection_name": "test",
"embedding_model_dims": 3072,
}
},
"version": "v1.1",
}
class PersonalTravelAssistant:
def __init__(self):
self.client = OpenAI()
self.memory = Memory.from_config(config)
self.messages = [{"role": "system", "content": "You are a personal AI Assistant."}]
def ask_question(self, question, user_id):
# Fetch previous related memories
previous_memories = self.search_memories(question, user_id=user_id)
# Build the prompt
system_message = "You are a personal AI Assistant."
if previous_memories:
prompt = f"{system_message}\n\nUser input: {question}\nPrevious memories: {', '.join(previous_memories)}"
else:
prompt = f"{system_message}\n\nUser input: {question}"
# Generate response using Responses API
response = self.client.responses.create(
model="gpt-4o",
input=prompt
)
# Extract answer from the response
answer = response.output[0].content[0].text
# Store the question in memory
self.memory.add(question, user_id=user_id)
return answer
def get_memories(self, user_id):
memories = self.memory.get_all(user_id=user_id)
return [m['memory'] for m in memories['results']]
def search_memories(self, query, user_id):
memories = self.memory.search(query, user_id=user_id)
return [m['memory'] for m in memories['results']]
# Usage example
user_id = "traveler_123"
ai_assistant = PersonalTravelAssistant()
def main():
while True:
question = input("Question: ")
if question.lower() in ['q', 'exit']:
print("Exiting...")
break
answer = ai_assistant.ask_question(question, user_id=user_id)
print(f"Answer: {answer}")
memories = ai_assistant.get_memories(user_id=user_id)
print("Memories:")
for memory in memories:
print(f"- {memory}")
print("-----")
if __name__ == "__main__":
main()
```
```python Before v1.1
import os
from openai import OpenAI
from mem0 import Memory
# Set the OpenAI API key
os.environ['OPENAI_API_KEY'] = 'sk-xxx'
class PersonalTravelAssistant:
def __init__(self):
self.client = OpenAI()
self.memory = Memory()
self.messages = [{"role": "system", "content": "You are a personal AI Assistant."}]
def ask_question(self, question, user_id):
# Fetch previous related memories
previous_memories = self.search_memories(question, user_id=user_id)
prompt = question
if previous_memories:
prompt = f"User input: {question}\n Previous memories: {previous_memories}"
self.messages.append({"role": "user", "content": prompt})
# Generate response using GPT-4o
response = self.client.chat.completions.create(
model="gpt-4o",
messages=self.messages
)
answer = response.choices[0].message.content
self.messages.append({"role": "assistant", "content": answer})
# Store the question in memory
self.memory.add(question, user_id=user_id)
return answer
def get_memories(self, user_id):
memories = self.memory.get_all(user_id=user_id)
return [m['memory'] for m in memories.get('results', [])]
def search_memories(self, query, user_id):
memories = self.memory.search(query, user_id=user_id)
return [m['memory'] for m in memories.get('results', [])]
# Usage example
user_id = "traveler_123"
ai_assistant = PersonalTravelAssistant()
def main():
while True:
question = input("Question: ")
if question.lower() in ['q', 'exit']:
print("Exiting...")
break
answer = ai_assistant.ask_question(question, user_id=user_id)
print(f"Answer: {answer}")
memories = ai_assistant.get_memories(user_id=user_id)
print("Memories:")
for memory in memories:
print(f"- {memory}")
print("-----")
if __name__ == "__main__":
main()
```
</CodeGroup>
## Key Components
- **Initialization**: The `PersonalTravelAssistant` class is initialized with the OpenAI client and Mem0 memory setup.
- **Asking Questions**: The `ask_question` method sends a question to the AI, incorporates previous memories, and stores new information.
- **Memory Management**: The `get_memories` and search_memories methods handle retrieval and searching of stored memories.
## Usage
1. Set your OpenAI API key in the environment variable.
2. Instantiate the `PersonalTravelAssistant`.
3. Use the `main()` function to interact with the assistant in a loop.
## Conclusion
This Personalized AI Travel Assistant leverages Mem0's memory capabilities to provide context-aware responses. As you interact with it, the assistant learns and improves, offering increasingly personalized travel advice and information.
@@ -0,0 +1,67 @@
---
title: Personalized Deep Research
---
Deep Research is an intelligent agent that synthesizes large amounts of online data and completes complex research tasks, customized to your unique preferences and insights. Built on Mem0's technology, it enhances AI-driven online exploration with personalized memories.
You can checkout GitHub repositry here: [Personalized Deep Research](https://github.com/mem0ai/personalized-deep-research/tree/mem0)
## Overview
Deep Research leverages Mem0's memory capabilities to:
- Synthesize large amounts of online data
- Complete complex research tasks
- Customize results to your preferences
- Store and utilize personal insights
- Maintain context across research sessions
## Demo
Watch Deep Research in action:
<iframe
width="700"
height="400"
src="https://www.youtube.com/embed/8vQlCtXzF60?si=b8iTOgummAVzR7ia"
title="YouTube video player"
frameborder="0"
allow="accelerometer; autoplay; clipboard-write; encrypted-media; gyroscope; picture-in-picture; web-share"
referrerpolicy="strict-origin-when-cross-origin"
allowfullscreen
></iframe>
## Features
### 1. Personalized Research
- Analyzes your background and expertise
- Tailors research depth and complexity to your level
- Incorporates your previous research context
### 2. Comprehensive Data Synthesis
- Processes multiple online sources
- Extracts relevant information
- Provides coherent summaries
### 3. Memory Integration
- Stores research findings for future reference
- Maintains context across sessions
- Links related research topics
### 4. Interactive Exploration
- Allows real-time query refinement
- Supports follow-up questions
- Enables deep-diving into specific areas
## Use Cases
- **Academic Research**: Literature reviews, thesis research, paper writing
- **Market Research**: Industry analysis, competitor research, trend identification
- **Technical Research**: Technology evaluation, solution comparison
- **Business Research**: Strategic planning, opportunity analysis
## Try It Out
> To try it yourself, clone the repository and follow the instructions in the README to run it locally or deploy it.
- [Personalized Deep Research GitHub](https://github.com/mem0ai/personalized-deep-research/tree/mem0)
@@ -0,0 +1,190 @@
---
title: 'Personalized Search with Mem0 and Tavily'
---
<Snippet file="security-compliance.mdx" />
Imagine asking a search assistant for "coffee shops nearby" and instead of generic results, it shows remote-work-friendly cafes with great wifi in your city because it remembers you mentioned working remotely before. Or when you search for "lunchbox ideas for kids" it knows you have a **7-year-old daughter** and recommends **peanut-free options** that align with her allergy.
That's what we are going to build today, a **Personalized Search Assistant** powered by **Mem0** for memory and [Tavily](https://tavily.com) for real-time search.
## Why Personalized Search
Most assistants treat every query like they’ve never seen you before. That means repeating yourself about your location, diet, or preferences, and getting results that feel generic.
- With **Mem0**, your assistant builds a memory of the user’s world.
- With **Tavily**, it fetches fresh and accurate results in real time.
Together, they make every interaction **smarter, faster, and more personal**.
## Prerequisites
Before you begin, make sure you have:
1. Installed the dependencies:
```bash
pip install langchain mem0ai langchain-tavily langchain-openai
```
2. Set up your API keys in a .env file:
```bash
OPENAI_API_KEY=your-openai-key
TAVILY_API_KEY=your-tavily-key
MEM0_API_KEY=your-mem0-key
```
## Code Walkthrough
Let’s break down the main components.
### 1: Initialize Mem0 with Custom Instructions
We configure Mem0 with custom instructions that guide it to infer user memories tailored specifically for our usecase.
```python
from mem0 import MemoryClient
mem0_client = MemoryClient()
mem0_client.project.update(
custom_instructions='''
INFER THE MEMORIES FROM USER QUERIES EVEN IF IT'S A QUESTION.
We are building personalized search for which we need to understand about user's preferences and life
and extract facts and memories accordingly.
'''
)
```
Now, if a user casually mentions "I need to pick up my daughter", or "What's the weather at Los Angeles", Mem0 remembers they have a daughter or user is somewhat interested/connected with Los Angeles in terms of location, those will be referred for future searches.
### 2. Simulating User History
To test personalization, we preload some sample conversation history for a user:
```python
def setup_user_history(user_id):
conversations = [
[{"role": "user", "content": "What will be the weather today at Los Angeles? I need to pick up my daughter from office."},
{"role": "assistant", "content": "I'll check the weather in LA for you."}],
[{"role": "user", "content": "I'm looking for vegan restaurants in Santa Monica"},
{"role": "assistant", "content": "I'll find great vegan options in Santa Monica."}],
[{"role": "user", "content": "My 7-year-old daughter is allergic to peanuts"},
{"role": "assistant", "content": "I'll remember to check for peanut-free options."}],
[{"role": "user", "content": "I work remotely and need coffee shops with good wifi"},
{"role": "assistant", "content": "I'll find remote-work-friendly coffee shops."}],
[{"role": "user", "content": "We love hiking and outdoor activities on weekends"},
{"role": "assistant", "content": "Great! I'll keep your outdoor activity preferences in mind."}],
]
for conversation in conversations:
mem0_client.add(conversation, user_id=user_id, output_format="v1.1")
```
This gives the agent a baseline understanding of the user’s lifestyle and needs.
### 3. Retrieving User Context from Memory
When a user makes a new search query, we retrieve relevant memories to enhance the search query:
```python
def get_user_context(user_id, query):
filters = {"AND": [{"user_id": user_id}]}
user_memories = mem0_client.search(query=query, version="v2", filters=filters)
if user_memories:
context = "\n".join([f"- {memory['memory']}" for memory in user_memories])
return context
else:
return "No previous user context available."
```
This context is injected into the search agent so results are personalized.
### 4. Creating the Personalized Search Agent
The agent uses Tavily search, but always augments search queries with user context:
```python
def create_personalized_search_agent(user_context):
tavily_search = TavilySearch(
max_results=10,
search_depth="advanced",
include_answer=True,
topic="general"
)
tools = [tavily_search]
prompt = ChatPromptTemplate.from_messages([
("system", f"""You are a personalized search assistant.
USER CONTEXT AND PREFERENCES:
{user_context}
YOUR ROLE:
1. Analyze the user's query and context.
2. Enhance the query with relevant personal memories.
3. Always use tavily_search for results.
4. Explain which memories influenced personalization.
"""),
MessagesPlaceholder(variable_name="messages"),
MessagesPlaceholder(variable_name="agent_scratchpad"),
])
agent = create_openai_tools_agent(llm=llm, tools=tools, prompt=prompt)
return AgentExecutor(agent=agent, tools=tools, verbose=True, return_intermediate_steps=True)
```
### 5. Run a Personalized Search
The workflow ties everything together:
```python
def conduct_personalized_search(user_id, query):
user_context = get_user_context(user_id, query)
agent_executor = create_personalized_search_agent(user_context)
response = agent_executor.invoke({"messages": [HumanMessage(content=query)]})
return {"agent_response": response['output']}
```
### 6. Store New Interactions
Every new query/response pair is stored for future personalization:
```python
def store_search_interaction(user_id, original_query, agent_response):
interaction = [
{"role": "user", "content": f"Searched for: {original_query}"},
{"role": "assistant", "content": f"Results based on preferences: {agent_response}"}
]
mem0_client.add(messages=interaction, user_id=user_id, output_format="v1.1")
```
### Full Example Run
```python
if __name__ == "__main__":
user_id = "john"
setup_user_history(user_id)
queries = [
"good coffee shops nearby for working",
"what can I make for my kid in lunch?"
]
for q in queries:
results = conduct_personalized_search(user_id, q)
print(f"\nQuery: {q}")
print(f"Personalized Response: {results['agent_response']}")
```
## How It Works in Practice
Here’s how personalization plays out:
- Context Gathering: User previously mentioned living in Los Angeles, being vegan, and having a 7-year-old daughter allergic to peanuts.
- Enhanced Search Query:
Query -> "good coffee shops nearby for working"
Enhanced Query -> "good coffee shops in Los Angeles with strong wifi, remote-work-friendly"
- Personalized Results: The assistant only returns wifi-friendly, work-friendly cafes near Los Angeles.
- Memory Update: Interaction is saved for better future recommendations.
## Conclusion
With Mem0 + Tavily, you can build a search assistant that doesn’t just fetch results but it understands the person behind the query.
Whether for shopping, travel, or daily life, this approach turns a generic search into a truly personalized experience.
Full Code: [Personalized Search GitHub](https://github.com/mem0ai/mem0/blob/main/examples/misc/personalized_search.py)
+56
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@@ -0,0 +1,56 @@
---
title: YouTube Assistant Extension
---
Enhance your YouTube experience with Mem0's **YouTube Assistant**, a Chrome extension that brings AI-powered chat directly to your YouTube videos. Get instant, personalized answers about video content while leveraging your own knowledge and memories - all without leaving the page.
## Features
- **Contextual AI Chat**: Ask questions about videos you're watching
- **Seamless Integration**: Chat interface sits alongside YouTube's native UI
- **Memory Integration**: Personalized responses based on your knowledge through Mem0
- **Real-Time Memory**: Memories are updated in real-time based on your interactions
## Demo Video
<video
autoPlay
muted
loop
playsInline
width="700"
height="400"
src="https://github.com/user-attachments/assets/c0334ccd-311b-4dd7-8034-ef88204fc751"
></video>
## Installation
This extension is not available on the Chrome Web Store yet. You can install it manually using below method:
### Manual Installation (Developer Mode)
1. **Download the Extension**: Clone or download the extension files from the [Mem0 GitHub repository](https://github.com/mem0ai/mem0/tree/main/examples).
2. **Build**: Run `npm install` followed by `npm run build` to install the dependencies and build the extension.
3. **Access Chrome Extensions**: Open Google Chrome and navigate to `chrome://extensions`.
4. **Enable Developer Mode**: Toggle the "Developer mode" switch in the top right corner.
5. **Load Unpacked Extension**: Click "Load unpacked" and select the directory containing the extension files.
6. **Confirm Installation**: The Mem0 YouTube Assistant Extension should now appear in your Chrome toolbar.
## Setup
1. **Configure API Settings**: Click the extension icon and enter your OpenAI API key (required to use the extension)
2. **Customize Settings**: Configure additional settings such as model, temperature, and memory settings
3. **Navigate to YouTube**: Start using the assistant on any YouTube video
4. **Memories**: Enter your Mem0 API key to enable personalized responses, and feed initial memories from settings
## Example Prompts
- "Can you summarize the main points of this video?"
- "Explain the concept they just mentioned"
- "How does this relate to what I already know?"
- "What are some practical applications of this topic related to my work?"
## Privacy and Data Security
Your API keys are stored locally in your browser. Your messages are sent to the Mem0 API for extracting and retrieving memories. Mem0 is committed to ensuring your data's privacy and security.