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License: MIT Any use incl. commercial
Local-run terms: Users may run, modify, and distribute under MIT terms including commercial use.

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Graphenium

FreeOpen SourceAPISelf-Hosted

Pricing

Model
Free

Summary

Ask an AI assistant to trace how a function propagates through an unfamiliar 200-file codebase and it will start grepping, burn through your context window, and still miss a hop — Graphenium exists to stop that loop.

Graphenium indexes a repository into a persistent, queryable knowledge graph and exposes it over MCP, so assistants like Claude or Cursor can answer dependency and call-chain questions in roughly 20 ms without reading source files at each turn. The graph survives across sessions, which means structural knowledge does not have to be rebuilt every time you open a new conversation. The gain is sharpest on large or multi-module repos where grep-and-trace navigation collapses under its own weight. The constraint is real: this is a static graph service, not an agent — it answers questions but does not plan or act, so any reasoning on top of the data remains the assistant's job.

Bottom line: Graphenium earns its place the moment a codebase outgrows grep-based exploration in AI assistants — but if your workflow requires the graph to stay live-updated as you commit, expect manual re-indexing overhead until an automated sync story matures.

Community Performance Report Card

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Best For: Large or multi-module repositories, Unfamiliar codebases, MCP-compatible assistants such as Claude or Cursor, Reducing token usage during navigation

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  • Persistent graph survives session boundaries, so an assistant navigating a large repo does not waste token budget re-establishing structural context at the start of every conversation.
  • MCP-native interface means Claude, Cursor, and other compatible assistants query the graph without a custom integration layer — which avoids the glue-code maintenance burden that plagues one-off tool wrappers.
  • Approximately 20 ms query latency (per project documentation) on call-chain and dependency lookups, so structural questions do not introduce noticeable lag into assistant response cycles.
  • MIT-licensed and self-hosted, so the repository's source code never leaves your infrastructure — critical for teams whose codebases cannot touch external APIs under their security policy.
  • .grapheniumignore support lets teams exclude generated or vendored directories, keeping the graph lean and preventing noise from third-party code polluting dependency queries.
  • Re-indexing is a manual step: the graph does not update automatically when files change, so after a significant refactor or merge, dependency answers will be stale until someone runs the indexer again — teams doing rapid iteration find themselves managing index freshness as a separate chore.
  • The project shows 1 commit and 8 stars at the time of scraping, which means community-validated workarounds, issue resolutions, and third-party integrations are sparse; teams hitting an edge case will be debugging against thin documentation and a small issue backlog rather than a searchable community history.
  • There is no hosted or managed option — setup, updates, and uptime are entirely the team's responsibility; teams without the infrastructure bandwidth to run a self-hosted Rust service will switch to a managed code-intelligence alternative rather than absorb the operational overhead.

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About

Platforms
Cross-platform (Rust)
API Available
Yes
Self-Hosted
Yes
Last Updated
2026-06-25T03:29:25.567Z

Best For

Who it's for

  • Large or multi-module repositories
  • Unfamiliar codebases
  • MCP-compatible assistants such as Claude or Cursor
  • Reducing token usage during navigation

What it does well

  • Querying function callers and module dependencies in large codebases
  • Obtaining architecture summaries before reading source files
  • Finding shortest paths or community structures between components
  • Maintaining structural knowledge across multiple AI assistant sessions

Integrations

MCP-compatible assistants (ClaudeCursor)

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Frequently Asked Questions

Is Graphenium free?
Yes — Graphenium is fully free to use. There is no paid tier.
Is Graphenium open source?
Yes. Graphenium is open source.
Does Graphenium have an API?
Yes. Graphenium exposes a developer API. See the official documentation at https://github.com/lambda-alpha-labs/graphenium for details.
Can I self-host Graphenium?
Yes. Graphenium supports self-hosting on your own infrastructure.
What platforms does Graphenium support?
Graphenium is available on: Cross-platform (Rust).

Hours Saved & ROI Stories Community

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Graphenium

Graphenium takes a repository and builds a persistent structural knowledge graph from it, capturing function callers, module dependencies, and component relationships in a format that MCP-compatible AI assistants can query directly. The core workflow is: run the install script, index your repo, and point Claude, Cursor, or any other MCP-aware assistant at the running graph service. Queries that would otherwise require the assistant to read and re-read source files return in approximately 20 ms, per the project’s documentation.

The differentiating architectural choice is persistence across sessions. Most AI assistant integrations treat codebase knowledge as ephemeral — the assistant reads files, builds context, and forgets when the session closes. Graphenium writes that structural map to a graph that outlasts any single conversation, so the assistant picks up where it left off without re-spending tokens on orientation.

The tool fits squarely into the navigator role: it answers ‘what calls this function’ and ‘what depends on this module’ faster and cheaper than file-by-file reading. Where it stops is at the boundary of reasoning — Graphenium supplies the graph; the assistant decides what to do with the answer. Teams who need the graph to reflect commits in near-real-time will need to trigger re-indexing themselves, as no automated sync mechanism is described in the available documentation.

Graphenium is written in Rust, ships as a single binary via install.sh, and exposes an API alongside its MCP interface. The repository is MIT-licensed with no paid or hosted tier. A .grapheniumignore file lets teams exclude paths from indexing, which is relevant for monorepos with generated or vendored code that would inflate the graph without adding navigation value.