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Codebase Memory MCP Server

High-performance MCP server that indexes codebases into a persistent knowledge graph for structural search, call tracing, architecture summaries, dead-code detection, and cross-repo analysis.

by DeusData · submitted by oktofeesh1·added 2026-06-05·
Review first review before installing

Open the source and read safety notes before installing.

Citation facts

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Source URLs
https://github.com/DeusData/codebase-memory-mcp/blob/main/README.md, https://github.com/DeusData/codebase-memory-mcp
Brand
Codebase Memory
Brand domain
github.com
Safety notes
Codebase Memory MCP reads source files across indexed repositories and writes MCP entries, instruction files, skills, hooks, and agent configuration files during install., The background watcher and auto-index features can keep graph data updated as source files change., The optional graph UI exposes a local visualization server on a localhost port., Shared graph artifacts and SQLite databases can persist source metadata after an MCP session ends., Verify downloaded release binaries, checksums, signatures, and provenance before running them in sensitive environments.
Privacy notes
Source code, filenames, paths, symbols, comments, imports, routes, call graphs, architecture summaries, ADRs, graph queries, prompts, and tool outputs may be visible to the MCP client and model provider., Persistent graph databases and shared artifacts can retain proprietary architecture, internal package names, route names, service boundaries, and accidentally committed secrets., Auto-indexing broad workspace roots can include unrelated private repositories or generated files., Avoid committing shared graph artifacts unless the repository owners explicitly approve storing derived code intelligence in version control.
Author
DeusData
Submitted by
oktofeesh1
Claim status
unclaimed
Last verified
2026-06-05

Decision playbook

Review trust signals before you adopt

Signals are present but mixed. Use the checklist below to confirm the source and operational safety for your environment.

Compare context
Selected

0

Current score

63

Baseline

Delta

No baseline selected

No major trust-signal divergence detected in the current selection.

Source and provenance checks

Needs review

Confirm ownership and provenance before trusting install instructions.

  • Source link availableRequired

    Open the canonical repository and verify ownership.

    Done
  • Source provenance statusRequired

    Marked as source-backed.

    Done
  • Metadata reviewed

    No reviewed flag detected in metadata.

    Pending

Safety and privacy checks

Complete

Validate risk disclosures before installation or API wiring.

  • Safety notes presentRequired

    Review the listed safety guidance before running commands.

    Done
  • Privacy notes presentRequired

    Review data handling notes before connecting accounts or secrets.

    Done
  • Trust level risk gateRequired

    Trust level does not block evaluation.

    Done

Package and install checks

Needs review

Check package metadata and artifact integrity signals.

  • Install payload available

    Install or copy payload is available for review.

    Done
  • Package verification flag

    No package verification flag provided.

    Pending
  • Checksum metadata

    No checksum provided for downloaded artifact.

    Pending

Compare-driven decision checks

Needs review

Use compare context to validate trade-offs before adoption.

  • Compare tray has multiple entries

    Add at least one more entry to compare trust differences.

    Pending
  • Baseline comparison available

    No baseline peer selected yet.

    Pending
  • Diverging trust signals identified

    No major trust-signal divergence found.

    Pending

Setup at a glance

CLI install

Copy-ready — paste the snippet to get started.

10 minutes

Adoption plan

Balanced adoption plan

Current risk score 24/100. Use staged verification before broader rollout.

Risk 24

Pre-adoption checks

Validate source and review signals before any execution.

  • Confirm source provenanceRequired

    Source URL/provenance metadata is present.

    Done
  • Confirm metadata review state

    No review metadata found; increase manual validation.

    Pending
  • Verify install payload

    Install/config payload exists and can be inspected.

    Done

Security checks

Confirm safety, privacy, and package integrity signals.

  • Review safety notesRequired

    Safety notes are present.

    Done
  • Review privacy notesRequired

    Privacy notes are present.

    Done
  • Verify package integrity metadata

    No package verification/checksum metadata.

    Pending

Rollout

Adopt in controlled steps based on the selected plan.

  • Run in isolated sandbox firstRequired

    Use a constrained sandbox and observe behavior across multiple tasks.

    Pending
  • Roll out graduallyRequired

    Roll out to a small cohort before wider usage.

    Pending
  • Set monitoring and fallback

    Define rollback path and monitor errors after adoption.

    Pending

Evidence readiness

Evidence readiness matrix · balanced

Missing required evidence: Metadata review. Risk score 31.

Risk 31

Source provenance

Present

Source repository/provenance is listed.

Required in this preset

Metadata review

Missing

Review metadata is missing.

Required in this preset

Safety notes

Present

Safety notes are present.

Required in this preset

Privacy notes

Present

Privacy notes are present.

Optional in this preset

Package integrity

Missing

Package integrity metadata is missing.

Optional in this preset

Install payload

Present

Install payload is available.

Required in this preset

Required gaps: Metadata review

Decision timeline

Decision timeline · balanced

Blocking gaps: Check metadata review status. Risk 28.

Risk 28

triage

Confirm source provenanceRequired

Source/provenance metadata is available.

Done

triage

Check metadata review statusRequired

Review metadata is missing.

Pending

verify

Review safety notesRequired

Safety notes are available.

Done

verify

Review privacy notes

Privacy notes are available.

Done

verify

Validate package integrity metadata

Package integrity metadata is missing.

Pending

rollout

Verify install payload and commandsRequired

Install payload is available.

Done

Blockers: Check metadata review status

Prerequisite readiness

Prerequisite readiness

5 prerequisites to line up before setup. Have accounts and credentials ready first. Includes a review or approval gate.

0/5 ready
Account & credentials1Install & runtime1Review & approval310 minutes

Safety & privacy surface

Safety & privacy surface

5 safety and 4 privacy notes across 5 risk areas. Review closely: credentials & tokens, network access, third-party handling.

5 areas
  • SafetyLocal filesCodebase Memory MCP reads source files across indexed repositories and writes MCP entries, instruction files, skills, hooks, and agent configuration files during install.
  • SafetyLocal filesThe background watcher and auto-index features can keep graph data updated as source files change.
  • SafetyGeneralThe optional graph UI exposes a local visualization server on a localhost port.
  • SafetyCredentials & tokensShared graph artifacts and SQLite databases can persist source metadata after an MCP session ends.
  • SafetyNetwork accessVerify downloaded release binaries, checksums, signatures, and provenance before running them in sensitive environments.
  • PrivacyThird-party handlingSource code, filenames, paths, symbols, comments, imports, routes, call graphs, architecture summaries, ADRs, graph queries, prompts, and tool outputs may be visible to the MCP client and model provider.
  • PrivacyCredentials & tokensPersistent graph databases and shared artifacts can retain proprietary architecture, internal package names, route names, service boundaries, and accidentally committed secrets.
  • PrivacyLocal filesAuto-indexing broad workspace roots can include unrelated private repositories or generated files.
  • PrivacyGeneralAvoid committing shared graph artifacts unless the repository owners explicitly approve storing derived code intelligence in version control.

Safety notes

  • Codebase Memory MCP reads source files across indexed repositories and writes MCP entries, instruction files, skills, hooks, and agent configuration files during install.
  • The background watcher and auto-index features can keep graph data updated as source files change.
  • The optional graph UI exposes a local visualization server on a localhost port.
  • Shared graph artifacts and SQLite databases can persist source metadata after an MCP session ends.
  • Verify downloaded release binaries, checksums, signatures, and provenance before running them in sensitive environments.

Privacy notes

  • Source code, filenames, paths, symbols, comments, imports, routes, call graphs, architecture summaries, ADRs, graph queries, prompts, and tool outputs may be visible to the MCP client and model provider.
  • Persistent graph databases and shared artifacts can retain proprietary architecture, internal package names, route names, service boundaries, and accidentally committed secrets.
  • Auto-indexing broad workspace roots can include unrelated private repositories or generated files.
  • Avoid committing shared graph artifacts unless the repository owners explicitly approve storing derived code intelligence in version control.

Prerequisites

  • A local repository or workspace you are authorized to index.
  • Platform-compatible Codebase Memory MCP release binary verified before use.
  • Agent configuration write access reviewed before running the installer.
  • Sensitive paths, generated files, vendored code, secrets, and private repositories reviewed before indexing.
  • Optional graph UI, auto-indexing, background watcher, and shared graph artifact behavior reviewed before enabling.

Schema details

Install type
cli
Troubleshooting
No
Source repository stats
Scope
Source repo
Collection metadata
Estimated setup
10 minutes
Difficulty
advanced
Full copyable content
{
  "mcpServers": {
    "codebase-memory": {
      "command": "npx",
      "args": ["-y", "codebase-memory-mcp"]
    }
  }
}

About this resource

Content

Codebase Memory MCP indexes repositories into a persistent code knowledge graph that Claude can query through MCP. It supports structural search, call tracing, architecture summaries, impact analysis, dead-code detection, cross-service links, ADR management, and cross-repo graph intelligence.

The upstream README documents release binaries, package manager availability, agent auto-configuration, optional graph visualization, auto-indexing, and the codebase-memory-mcp command. The repository also ships a server.json manifest for MCP registry metadata and release package hashes.

Source Review

These sources were reviewed on 2026-06-05. Prefer the live repository, README, server manifest, security policy, latest release metadata, and package registry metadata for current binaries, checksums, install options, supported platforms, MCP tools, and verification guidance.

Features

  • Index local repositories into a persistent SQLite-backed code graph.
  • Query architecture summaries, call graphs, dead code, impact analysis, and changed symbols.
  • Search symbols, graph nodes, code, routes, packages, and cross-service links.
  • Manage Architecture Decision Records across sessions.
  • Build cross-repo graph edges for multi-service workspaces.
  • Use optional auto-indexing and background watchers for active projects.
  • Open an optional local graph visualization UI with the UI binary variant.
  • Install as a static release binary for macOS, Linux, and Windows.

Installation

Install the NPM package globally:

npm install -g codebase-memory-mcp

For MCP clients that launch stdio servers without a global install:

{
  "mcpServers": {
    "codebase-memory": {
      "command": "npx",
      "args": ["-y", "codebase-memory-mcp"]
    }
  }
}

Restart the MCP client after installing the package and adding or refreshing the server configuration. For manual binary installs, download a platform archive from the latest release and verify checksums before running it.

Use Cases

  • Ask Claude to index a repository before a refactor.
  • Trace inbound or outbound calls for a function.
  • Summarize architecture, entry points, packages, routes, and hotspots.
  • Map uncommitted changes to affected symbols and risk areas.
  • Find dead code or cross-service route relationships.
  • Keep architecture decisions available across sessions.
  • Share an approved graph artifact with a team to avoid repeated full indexing.

Safety and Privacy

Codebase Memory MCP is intentionally deep in the local development environment. It reads source files, stores derived graph data, and can write agent configuration, skills, hooks, and instruction files during installation. Audit the source and verify release artifacts before running it in sensitive workspaces.

Limit indexing to approved repositories and review ignored paths before turning on auto-indexing or watchers. Treat persistent graph databases and shared graph artifacts as derived copies of source intelligence that may reveal proprietary architecture, route names, service boundaries, comments, and accidentally committed secrets.

Duplicate Check

No DeusData/codebase-memory-mcp entry, codebase-memory-mcp command entry, or matching source URL was found in content/mcp.

Source citations

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How it compares

Codebase Memory MCP Server side by side with 3 alternatives on trust, install, platform support, and disclosed safety notes — all from reviewed registry metadata.

Field

High-performance MCP server that indexes codebases into a persistent knowledge graph for structural search, call tracing, architecture summaries, dead-code detection, and cross-repo analysis.

Open dossier

MCP server for semantic codebase intelligence, combining AST structure, embeddings, clustering, feature hubs, restore points, and memory graph tools.

Open dossier

Stdio MCP server that lets Claude ask the Google Gemini CLI for large-file, codebase, brainstorming, and sandboxed analysis while preserving MCP tool and prompt workflows inside Claude Code or compatible MCP clients.

Open dossier

Local-first context-engineering MCP server and CLI that gives Claude token-efficient file reads, shell-output compression, code search, graph queries, persistent session memory, context packaging, verification tools, and dashboard-style token accounting through a single Rust binary.

Open dossier
Next steps
Trust
Review statusNot reviewedNot reviewedNot reviewedNot reviewed
Package trustPackage not verifiedPackage not verifiedPackage not verifiedPackage not verified
Source provenanceSource-backedSource-backedSource-backedSource-backed
Submitteroktofeesh1oktofeesh1oktofeesh1oktofeesh1
Install riskReview firstReview firstReview firstReview first
Notes Safety ✓ Privacy ✓ Safety ✓ Privacy ✓ Safety ✓ Privacy ✓ Safety ✓ Privacy ✓
BrandGemini MCP Tool logoGemini MCP ToolLeanCTX logoLeanCTX
Categorymcpmcpmcpmcp
SourceSource-backedSource-backedSource-backedSource-backed
AuthorDeusDataforloopcodesjamubcYves Gude
Added2026-06-052026-06-052026-06-062026-06-06
Platforms
Harness
Source repo
Safety notesCodebase Memory MCP reads source files across indexed repositories and writes MCP entries, instruction files, skills, hooks, and agent configuration files during install. The background watcher and auto-index features can keep graph data updated as source files change. The optional graph UI exposes a local visualization server on a localhost port. Shared graph artifacts and SQLite databases can persist source metadata after an MCP session ends. Verify downloaded release binaries, checksums, signatures, and provenance before running them in sensitive environments.Context+ can inspect source files, build AST and embedding indexes, run static analysis, create memory graph nodes, and propose code changes. The `propose_commit` tool is designed to write code after validation and creates shadow restore points before saving. Static analysis tools may invoke local compilers, linters, or language tools depending on the repository. Runtime caches and memory graph data can persist source-derived embeddings and relationships after the MCP session ends. External embedding providers can receive source-derived text, identifiers, prompts, and cluster-labeling context.Gemini MCP Tool runs locally but invokes the Gemini CLI, so prompts, file references, and command output can leave the local machine through the configured Google Gemini account or API path. The `ask-gemini` tool can pass `@` file or directory references to Gemini CLI; current source checks that references stay under the working directory, but users should still scope prompts carefully. Sandbox mode is exposed as an option on `ask-gemini` and forwards the Gemini CLI sandbox flag; review generated scripts, network calls, package installs, and filesystem changes before relying on sandboxed output. Change mode can generate structured edit suggestions for Claude to apply; inspect proposed OLD/NEW replacements before applying them to source files. Treat the project as an unofficial third-party bridge, not an official Google MCP server.LeanCTX can read local files, run shell commands invoked through its tools, cache outputs, install shell/editor hooks, and persist session state. Review generated MCP and shell-hook changes before enabling them across all agents or shells. Keep path jail enforcement enabled for normal use, and allow extra roots only when a project genuinely needs them. Disable or restrict command-execution and unsafe I/O tools for regulated repositories, untrusted workspaces, or shared team environments. Treat compressed shell output and cached reads as summaries; switch to full reads or raw command output when exact source text matters.
Privacy notesSource code, filenames, paths, symbols, comments, imports, routes, call graphs, architecture summaries, ADRs, graph queries, prompts, and tool outputs may be visible to the MCP client and model provider. Persistent graph databases and shared artifacts can retain proprietary architecture, internal package names, route names, service boundaries, and accidentally committed secrets. Auto-indexing broad workspace roots can include unrelated private repositories or generated files. Avoid committing shared graph artifacts unless the repository owners explicitly approve storing derived code intelligence in version control.Source code, file paths, symbol names, comments, identifiers, embeddings, memory nodes, relations, prompts, API keys, static-analysis output, proposed diffs, and tool results may be visible to the MCP client and model provider. Proprietary codebases can expose internal architecture, feature maps, naming conventions, secrets accidentally present in code, and product plans. Keep API keys and provider base URLs out of committed MCP configs, logs, screenshots, and shared prompts. Review `.mcp_data` and generated restore-point data before sharing workspaces or artifacts.Prompts, selected source files, directory context, code snippets, local paths, command output, change-mode chunks, and brainstorming context may be sent to Gemini CLI and the configured Gemini service. Avoid referencing `.env` files, credentials, private keys, customer data, unreleased product plans, or regulated datasets in `@` references. The MCP server and Gemini CLI may log execution details locally; protect terminal history, MCP client logs, and Gemini CLI configuration files. Google account, project, retention, and telemetry behavior depends on the user's Gemini CLI configuration and Google service terms.Local code, file paths, command output, search terms, session notes, context packages, knowledge graph data, token metrics, and dashboard statistics can be sent to the MCP client and model. LeanCTX stores local stats and session state under its own configuration/data directories; protect these files if they contain project decisions, findings, or sensitive paths. Secret-like paths are blocked or role-gated by default according to upstream security docs, but users should still avoid prompting agents to read credentials, private keys, tokens, or ignored files. The upstream security policy describes optional update checks and opt-in anonymous stats sharing; disable network checks when working in confidential or offline environments.
Prerequisites
  • A local repository or workspace you are authorized to index.
  • Platform-compatible Codebase Memory MCP release binary verified before use.
  • Agent configuration write access reviewed before running the installer.
  • Sensitive paths, generated files, vendored code, secrets, and private repositories reviewed before indexing.
  • Node.js and npx available to the MCP client runtime.
  • A repository or workspace you are authorized to index and expose to an MCP client.
  • Ollama embedding model available, or an approved OpenAI-compatible embedding provider and API key.
  • Static analysis tools installed if you want Context+ to run native linters or compilers.
  • Node.js 16 or newer.
  • Google Gemini CLI installed, authenticated, and configured before starting the MCP server.
  • A Claude Code, Claude Desktop, or compatible MCP client configuration that can run stdio servers.
  • Review of any `@file` or `@directory` references before sending prompts through Gemini CLI.
  • npm for the `lean-ctx-bin` package, or another upstream-supported install path such as release binaries, Homebrew, Cargo, or AUR.
  • A local repository workspace where LeanCTX is allowed to read files, run configured shell commands, and store session metadata.
  • Review of generated MCP client config, shell hooks, per-project `.lean-ctx.toml`, and global `~/.config/lean-ctx/config.toml`.
  • Explicit allow-listing for any paths outside the current project root that LeanCTX should be permitted to access.
Install
npm install -g codebase-memory-mcp
npx -y contextplus
npx -y gemini-mcp-tool
npm install -g lean-ctx-bin
Config
{
  "mcpServers": {
    "codebase-memory": {
      "command": "npx",
      "args": ["-y", "codebase-memory-mcp"]
    }
  }
}
{
  "mcpServers": {
    "contextplus": {
      "command": "npx",
      "args": ["-y", "contextplus"],
      "env": {
        "CONTEXTPLUS_EMBED_PROVIDER": "ollama",
        "OLLAMA_EMBED_MODEL": "nomic-embed-text",
        "OLLAMA_CHAT_MODEL": "llama3.2"
      }
    }
  }
}
{
  "mcpServers": {
    "gemini-cli": {
      "command": "npx",
      "args": ["-y", "gemini-mcp-tool"]
    }
  }
}
{
  "mcpServers": {
    "lean-ctx": {
      "command": "lean-ctx",
      "env": {
        "LEAN_CTX_IO_BOUNDARY_MODE": "enforce",
        "LEAN_CTX_NO_UPDATE_CHECK": "1"
      }
    }
  }
}
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