Ghidralens

io.github.hellosverre由 GitHub 账号 hellosverre 发布v0.1.1更新于 Oct 24, 2026

Interactive Ghidra views in your AI client: decompile, rename, and navigate a binary.

已验证STDIO仅桌面开发者工具安全与监控

概览

AI 生成的概览

GhidraLens 把 Ghidra 二进制分析以交互视图带入 AI 客户端,让助手反编译、浏览函数、查看调用图并重命名符号。

可以做什么
在常驻的 Ghidra 会话中打开二进制并读取程序信息,自动分析只做一次,重开或重启后仍可复用。反编译函数,并浏览二进制中的全部函数,可按地址、名称、大小或调用者数量筛选和排序。查看调用图(调用者与被调用者),并查询交叉引用和字符串。重命名符号、添加注释,再保存程序,使修改写入 Ghidra 项目。在对话中渲染反编译视图、函数浏览器和调用图,点击视图即可触发重命名和注释。
适用场景
适合逆向工程场景:希望助手与自己查看同一个实时程序,让助手反编译指定函数、追踪调用关系,并随手重命名标识符。也适合在客户端重启后保留已分析的二进制,避免重复执行耗时的 Ghidra 自动分析。
运行要求
以本地 stdio 进程运行(npm 包 ghidralens),另需在目标二进制上启动独立的 PyGhidra 桥接进程。需要 Ghidra 11.3+、JDK 21+、Python 3.9-3.13(不支持 3.14)和 Node 20+。需设置 GHIDRALENS_BRIDGE_URL(默认 GHIDRALENS_TOKEN(桥接启动时打印的令牌)。仅支持桌面客户端。
安装前请注意
GHIDRALENS_TOKEN 是桥接进程打印的共享密钥,需填入客户端配置。save_program 会把重命名和注释写入 Ghidra 项目,改动已存储的分析数据。桥接仅限本机回环、无多用户模型,不应对外暴露。分析二进制不会执行它,但 Ghidra 会打开恶意软件,请按逆向工作的隔离要求处理。

安装

在 SourceWeft 中

  1. 打开 控制台中的 Ghidralens,将其添加到工作区。
  2. 为需要使用其工具的对话启用该服务。

Desktop only,通过 STDIO。 STDIO 服务会启动本地进程,因此需要 SourceWeft 桌面宿主。

其他 MCP 客户端

参照 仓库 中的启动说明。

README

GhidraLens

Ghidra, rendered inside your AI client. Click a symbol to rename it. Click a call to follow it.

[CI] [MCP Apps] [Ghidra 11.3+] [Local models] [npm] [MIT]

[The decompiler view]

Every Ghidra MCP server so far returns text. The model can read it; you cannot navigate it. GhidraLens returns the same analysis as an interactive view — built on MCP Apps (io.modelcontextprotocol/ui), the extension that lets a server ship real HTML into the conversation.

You and the model are looking at the same live program. Rename a variable by clicking it and the model's next decompile sees the new name.

That is a real screenshot: where.exe, decompiled by Ghidra, every identifier carrying the address it came from.


What you get

ViewWhat it does
DecompilerGhidra's C output as a live token stream — every identifier carries its address and its kind. Click a local to rename it, click a call to follow it. Callers, callees and variables in a sidebar.
Function browserEvery function in the binary, filterable and sortable by address, name, size or caller count. Click a row to decompile it.
Call graphCallers to the left, callees to the right, the function you asked about in the middle. Click any node to recenter.

Function browser

[The function browser]

Call graph

[The call graph]

Ten tools total. Three open views; the rest are lookups and writes, including two the model never sees — they exist only so a click in a view can fire them.

How it fits together

  MCP client  ──stdio──▶  server/  ──HTTP──▶  bridge/  ──JPype──▶  Ghidra (JVM)  (Claude,                 TypeScript         PyGhidra            program stays   Cursor, …)              MCP server         session             resident       ▲       │  ui:// HTML in a sandboxed iframe       └──  ui/  three self-contained views

The bridge is a separate long-lived process on purpose. Ghidra's auto-analysis is the expensive step, and it happens once. Measured on a 64 KB Windows system utility (198 functions):

First open, with analysis25 s
Re-open the same binary0.3 s
Decompile one 2 KB function0.4 s
87-node call graph< 0.1 s

Restart the MCP server or the client and the analysed program is still there.

Setup

Prerequisites: Ghidra 11.3+, a JDK 21+, Python 3.9–3.13 (not 3.14 — JPype has no wheel for it yet), Node 20+. See bridge/setup.py.md — the Python side is fussy and that file covers every way it goes wrong. GhidraLens finds a JDK for you if JAVA_HOME is unset, which covers the usual "installed Java, shell has not restarted" case.

bash
git clone https://github.com/hellosverre/ghidralenscd ghidralensnpm installnpm run build

Then start the bridge on the binary you want to look at:

bash
python bridge/serve.py --binary /path/to/target.exe

It prints a token. Put that, and the path to the built server, into your MCP client config:

json
{  "mcpServers": {    "ghidralens": {      "command": "npx",      "args": ["-y", "ghidralens"],      "env": {        "GHIDRALENS_BRIDGE_URL": "http://127.0.0.1:8799",        "GHIDRALENS_TOKEN": "paste-the-printed-token-here"      }    }  }}

Running from a clone instead? Point command at node and args at /absolute/path/to/ghidralens/server/dist/index.js.

Then ask your client: "decompile the function that handles license validation".

Also listed in the official MCP Registry as io.github.hellosverre/ghidralens.

Editing the config by hand? Quit the client first — properly, including any system-tray icon. Claude Desktop keeps its own copy of claude_desktop_config.json in memory and writes it back over yours when it exits, so an edit made while it is running silently disappears on the next restart. Editing through Settings → Developer → Edit Config avoids the race entirely.

Tools

ToolVisible toRenders
open_binarymodel—
program_infomodel—
decompilemodel + viewDecompiler
list_functionsmodel + viewFunction browser
call_graphmodel + viewCall graph
find_stringsmodel—
xrefs_tomodel + view—
rename_symbolmodel + view—
add_commentview only—
save_programmodel—

add_comment is hidden from the model deliberately. Visibility is how MCP Apps separates "the agent may do this" from "a click may do this"; keeping write tools out of the model's list keeps it short and stops the model from renaming things on its own initiative.

Renames and comments live in memory until save_program writes them into the Ghidra project — after which they show up in the Ghidra GUI like any other edit.

Developing the views without Ghidra

bash
npm run dev:ui# open http://localhost:5173/dev/harness.html

ui/dev/harness.ts is a real MCP Apps host — it runs the SDK's AppBridge against the view in an iframe, so the ui/initialize handshake, the opening ui/notifications/tool-result, and every tools/call a click fires all go over real postMessage JSON-RPC. There is a message trace down the right-hand side and a host-theme switch, because the views have to look right in both.

Two data sources, switchable in the toolbar:

  • fixtures — no Ghidra needed, nothing to install
  • live bridge — proxies to a running bridge, so you develop against a real analysed program

Use live before you trust anything. Fixtures are tidy; real output is a 400-line function with 56 locals and an 87-node call graph, and that is where layout actually breaks.

Running it on a local model

Reverse engineering is exactly the work people would rather not send to a hosted model, so agent/ollama-agent.mjs is a small MCP host that puts GhidraLens behind Ollama instead. No API key, nothing leaves the machine.

bash
OLLAMA_MODEL=qwen3:14b node agent/ollama-agent.mjs "what does this binary do?"

It respects _meta.ui.visibility, so the app-only tools stay hidden from the model — the same separation a graphical client enforces. A ~9B model is enough to orient itself with find_strings and list_functions; a 14B is noticeably better at reading decompiled C.

Tests

SuiteNeeds GhidraCovers
node server/smoke.mjsnoMCP surface: tools, ui:// resources, tool visibility, graceful failure with no bridge
python bridge/test_serve.pynoBridge auth, CSRF rejection, routing, input validation
python bridge/test_session.pyyesEvery Ghidra call: analysis, caching, decompiler tokens, imports, renames, writes
node server/live.mjsyes (bridge running)The whole chain, and that every payload matches the shape the views index into

The first two are what CI can run. test_session.py is the one that matters after touching bridge/session.py — it is the only thing that proves the Ghidra API calls are right, and it caught three real bugs the day it was written.

Containerising it

The Dockerfile builds the server and views for clients or registries that want to start it themselves. One thing to get right:

dockerfile
CMD ["node", "server/dist/index.js"]     # correctCMD ["npm", "run", "start"]              # breaks the protocol

A stdio MCP server speaks JSON-RPC on stdout, and npm run / pnpm run print the script banner there first:

> [email protected] start> node server/dist/index.js

Those lines land in the stream ahead of the handshake and the client gives up mid-initialize. The symptom is unhelpful - the container builds, starts, exits cleanly, and the client just reports no tools - so it is worth not stepping on. Invoke node directly.

Real analysis still needs the bridge on the host: 127.0.0.1 inside a container is the container, so point GHIDRALENS_BRIDGE_URL at host.docker.internal or a real address.

Security

The bridge binds 127.0.0.1 only, requires a per-run token in X-GhidraLens-Token, and rejects any request carrying an Origin or Referer header — so a page open in your browser cannot reach your decompiler. It has no multi-user model and is not meant to be exposed; --host refuses anything but loopback.

Analysing a binary does not execute it, but Ghidra will happily open malware. Use the same isolation you would use for any other RE work.

Licence

MIT.

来源:README.md,提交 d8502b0

工具

0
SourceWeft 尚未在沙箱中启动过该软件包,因此其工具未知。

版本历史

1
  1. v0.1.1最新Sep 16, 2026

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