MCPSERV.CLUB
jtang613

BinAssistMCP

MCP Server

AI-Enabled Reverse Engineering Bridge for Binary Ninja

Active(71)
9stars
2views
Updated 24 days ago

About

BinAssistMCP connects Binary Ninja to large language models via the Model Context Protocol, offering over 40 analysis tools, dual SSE/STDIO transport, and intelligent context management for AI-assisted binary analysis.

Capabilities

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

BinAssistMCP: AI‑Powered Reverse Engineering for Binary Ninja

BinAssistMCP transforms Binary Ninja into a fully AI‑ready reverse‑engineering platform. By exposing the tool’s rich API through the Model Context Protocol, it allows large language models—such as Claude—to issue natural‑language commands that trigger sophisticated binary analyses. This bridge eliminates the manual effort of writing scripts or navigating complex UI elements, enabling developers and security researchers to focus on higher‑level reasoning while the server handles low‑level disassembly, decompilation, and metadata extraction.

The server offers dual transport support: Server‑Sent Events for web‑based clients and STDIO for command‑line workflows. This flexibility means it can be integrated into existing CI/CD pipelines, IDE plugins, or interactive chat sessions. With over 40 specialized tools, BinAssistMCP covers every stage of the reverse‑engineering lifecycle—from listing and loading binaries to generating high‑level pseudo‑C code, extracting imports/exports, and managing symbols. Each tool returns structured JSON responses that LLMs can parse directly, ensuring consistent, machine‑readable data for downstream processing or visualization.

Key capabilities include multi‑binary session handling and intelligent context management. The server can analyze several binaries concurrently, maintaining separate analysis states while sharing common resources such as type definitions. Advanced symbol management—searching by name, comments, or call relationships—and automated renaming utilities help keep the binary’s internal view clean and understandable. Documentation helpers allow setting comments at arbitrary addresses or functions, facilitating collaborative annotation that can be fed back into the LLM for summarization or teaching.

Real‑world use cases span automated vulnerability discovery, malware analysis, and educational tooling. Security analysts can ask the LLM to “identify potential buffer overflows in this binary,” and BinAssistMCP will decompile the relevant functions, return control flow graphs, and highlight suspicious patterns. In research settings, students can query the server for “explain how this function interacts with external libraries,” receiving concise, context‑rich explanations that reinforce learning. Continuous integration setups can run the server to automatically generate documentation or compliance reports whenever a new binary is introduced.

What sets BinAssistMCP apart is its seamless integration with AI workflows. Because the server speaks MCP, any LLM that supports the protocol can invoke binary‑analysis tools as if they were native functions. The structured tool responses enable downstream models to reason about code, generate comments, or even produce new analysis scripts on the fly. Combined with Binary Ninja’s powerful decompiler and intermediate‑language representations, developers gain an AI‑augmented environment that accelerates discovery while preserving the depth and accuracy of manual reverse engineering.