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Memory: Seamless Data Integration & Unmatched Performance - MCP Implementation

Memory: Seamless Data Integration & Unmatched Performance

Memory: Knowledge graph-driven persistent memory system for seamless data integration and unmatched performance.

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Ranked in the top 10% of all AI tools in its category

About Memory

What is Memory: Seamless Data Integration & Unmatched Performance?

Memory is a knowledge graph-based persistence layer designed to enable cross-chat contextual awareness for AI systems. By structuring data into entities, relations, and observations, it creates a scalable memory infrastructure that retains user-specific details while maintaining performance efficiency. This architecture ensures critical information remains accessible across sessions without compromising speed or scalability.

How to Use Memory: Seamless Data Integration & Unmatched Performance?

Implementation involves three core steps: configuration via claude_desktop_config.json, API interaction using dedicated endpoints, and system prompt integration to guide memory creation. Begin by registering the memory server in your configuration file, then leverage RESTful operations to manipulate entities/relations. Customize prompts to define memory capture priorities based on use case requirements.

Memory Features

Key Features of Memory: Seamless Data Integration & Unmatched Performance?

Standout capabilities include: atomic data operations ensuring transactional integrity, intelligent deduplication that prevents redundancy, and context-aware search spanning entity metadata and observation content. The API's batch processing allows parallel updates while maintaining real-time performance, and the cascade deletion feature ensures data consistency without manual cleanup overhead.

Use Cases of Memory: Seamless Data Integration & Unmatched Performance?

Deploy this system for: personalized assistants tracking user preferences, CRM enhancements maintaining client interaction histories, or event management

Memory FAQ

FAQ from Memory: Seamless Data Integration & Unmatched Performance?

Q: How is data persisted?
Data remains accessible across all connected clients until explicitly deleted, stored in a local knowledge graph structure optimized for rapid lookup.
Q: What prevents data conflicts?
Automatic conflict resolution via entity name uniqueness and relation type validation ensures consistency without user intervention.
Q: Can I customize memory retention rules?
Yes, adjust system prompts to define priority levels for capturing different types of information (e.g., prioritizing user preferences over transient remarks).
Q: How are errors handled?
Silent failures for non-critical operations (e.g., deleting non-existent entities) while critical errors return structured responses for debugging.

Content

Knowledge Graph Memory Server A basic implementation of persistent memory using a local knowledge graph. This lets Claude remember information about the user across chats.

Core Concepts

Entities

Entities are the primary nodes in the knowledge graph. Each entity has:

  • A unique name (identifier)
  • An entity type (e.g., "person", "organization", "event")
  • A list of observations

Example: json { "name": "John_Smith", "entityType": "person", "observations": ["Speaks fluent Spanish"] }

Relations

Relations define directed connections between entities. They are always stored in active voice and describe how entities interact or relate to each other.

Example: json { "from": "John_Smith", "to": "Anthropic", "relationType": "works_at" }

Observations

Observations are discrete pieces of information about an entity. They are:

  • Stored as strings
  • Attached to specific entities
  • Can be added or removed independently
  • Should be atomic (one fact per observation)

Example: json { "entityName": "John_Smith", "observations": [ "Speaks fluent Spanish", "Graduated in 2019", "Prefers morning meetings" ] }

API

Tools

  • create_entities

    • Create multiple new entities in the knowledge graph
    • Input: entities (array of objects)
      • Each object contains:
        • name (string): Entity identifier
        • entityType (string): Type classification
        • observations (string[]): Associated observations
    • Ignores entities with existing names
  • create_relations

    • Create multiple new relations between entities
    • Input: relations (array of objects)
      • Each object contains:
        • from (string): Source entity name
        • to (string): Target entity name
        • relationType (string): Relationship type in active voice
    • Skips duplicate relations
  • add_observations

    • Add new observations to existing entities
    • Input: observations (array of objects)
      • Each object contains:
        • entityName (string): Target entity
        • contents (string[]): New observations to add
    • Returns added observations per entity
    • Fails if entity doesn't exist
  • delete_entities

    • Remove entities and their relations
    • Input: entityNames (string[])
    • Cascading deletion of associated relations
    • Silent operation if entity doesn't exist
  • delete_observations

    • Remove specific observations from entities
    • Input: deletions (array of objects)
      • Each object contains:
        • entityName (string): Target entity
        • observations (string[]): Observations to remove
    • Silent operation if observation doesn't exist
  • delete_relations

    • Remove specific relations from the graph
    • Input: relations (array of objects)
      • Each object contains:
        • from (string): Source entity name
        • to (string): Target entity name
        • relationType (string): Relationship type
    • Silent operation if relation doesn't exist
  • read_graph

    • Read the entire knowledge graph
    • No input required
    • Returns complete graph structure with all entities and relations
  • search_nodes

    • Search for nodes based on query
    • Input: query (string)
    • Searches across:
      • Entity names
      • Entity types
      • Observation content
    • Returns matching entities and their relations
  • open_nodes

    • Retrieve specific nodes by name
    • Input: names (string[])
    • Returns:
      • Requested entities
      • Relations between requested entities
    • Silently skips non-existent nodes

Usage with Claude Desktop

Setup

Add this to your claude_desktop_config.json: json { "mcpServers": { "memory": { "command": "npx", "args": [ "-y", "@modelcontextprotocol/server-memory" ] } } }

System Prompt

The prompt for utilizing memory depends on the use case. Changing the prompt will help the model determine the frequency and types of memories created.

Here is an example prompt for chat personalization. You could use this prompt in the "Custom Instructions" field of a Claude.ai Project.


  1. User Identification:

    * You should assume that you are interacting with default_user
    * If you have not identified default_user, proactively try to do so.
  2. Memory Retrieval:

    * Always begin your chat by saying only "Remembering..." and retrieve all relevant information from your knowledge graph
    * Always refer to your knowledge graph as your "memory"
  3. Memory

    * While conversing with the user, be attentive to any new information that falls into these categories: a) Basic Identity (age, gender, location, job title, education level, etc.) b) Behaviors (interests, habits, etc.) c) Preferences (communication style, preferred language, etc.) d) Goals (goals, targets, aspirations, etc.) e) Relationships (personal and professional relationships up to 3 degrees of separation)
  4. Memory Update:

    * If any new information was gathered during the interaction, update your memory as follows: a) Create entities for recurring organizations, people, and significant events b) Connect them to the current entities using relations b) Store facts about them as observations ```

## License

This MCP server is licensed under the MIT License. This means you are free to use, modify, and distribute the software, subject to the terms and conditions of the MIT License. For more details, please see the LICENSE file in the project repository.

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