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Mem0 MCP Coding Preferences Server

MCP Server

Persistently store and retrieve coding preferences via SSE

Stale(60)
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Updated 12 days ago

About

A lightweight MCP server that uses Mem0 to manage, search, and retrieve coding preferences—code snippets, patterns, best practices—for use with agents like Cursor.

Capabilities

Resources
Access data sources
Tools
Execute functions
Prompts
Pre-built templates
Sampling
AI model interactions

Demo of mem0‑mcp server in Cursor

Overview

The mem0‑mcp server solves a common pain point for developers who rely on AI assistants: the need to persist, retrieve, and search their own coding preferences in a structured, query‑friendly way. By marrying the Model Context Protocol (MCP) with mem0’s vector‑store capabilities, this server gives agents a lightweight, cloud‑native API that can be hosted anywhere and accessed from any MCP‑compliant client such as Cursor, Claude’s Composer, or custom workflows. Instead of hard‑coding style guidelines or repeatedly re‑entering boilerplate setups, developers can store those preferences once and let the assistant pull them into context on demand.

At its core, mem0‑mcp exposes three semantic tools that operate over a mem0 index: add_coding_preference, get_all_coding_preferences, and search_coding_preferences. The add tool accepts a richly annotated code snippet—including language, framework version, dependencies, setup steps, and best‑practice notes—and pushes it into mem0. The get_all tool returns the entire collection, enabling audits or pattern analysis, while the search tool performs semantic similarity queries to surface relevant snippets based on natural‑language prompts. Because all interactions are routed through an SSE endpoint, clients can maintain a persistent stream of context updates without polling overhead.

Developers using AI assistants benefit from this architecture in several ways. First, the server decouples preference storage from the assistant’s runtime, allowing teams to scale the memory layer independently of the inference engine. Second, semantic search means that an assistant can surface the most relevant snippet even if the query wording differs from the stored tags, improving recall in complex codebases. Third, by integrating with Cursor’s Composer or other MCP clients, the same interface can be reused across multiple projects or teams without code duplication.

Typical use cases include onboarding new developers, enforcing coding standards in a monorepo, or creating a personal “knowledge base” of recurring patterns. For example, a data‑science team can store the exact steps to set up a reproducible environment for each model, and an AI assistant can automatically inject those steps into new notebooks. In a CI/CD pipeline, the server could be queried to retrieve best‑practice linting rules before running tests. The modular nature of MCP means that these tools can be chained with other capabilities—such as file manipulation or API calls—to build sophisticated, context‑aware agents that adapt to a team’s evolving preferences.

What sets mem0‑mcp apart is its combination of semantic persistence and real‑time streaming. The underlying mem0 vector store ensures that preferences are not just key/value pairs but rich, searchable embeddings. The SSE interface guarantees low‑latency updates and allows multiple agents to subscribe concurrently. Together, they provide a scalable, developer‑friendly platform for turning personal coding habits into reusable AI knowledge.