reverse-engineering

Reverse engineer binaries and firmware using static and dynamic analysis workflows.

Updated Aug 23, 2026
One-click install
npx skills add https://github.com/AshtonVaughan/bountyhound --skill reverse-engineering-ashtonvaughan
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: reverse-engineering
Source: https://github.com/AshtonVaughan/bountyhound/tree/main/bountyhound/skills/reverse-engineering
Command: npx skills add https://github.com/AshtonVaughan/bountyhound --skill reverse-engineering-ashtonvaughan

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Analysts often struggle to systematically understand how binaries and firmware behave, uncover hidden functionality, and extract secrets without a proven, repeatable workflow.

Core Features & Use Cases

  • Comprehensive RE workflow supporting static analysis (Ghidra/IDA/radare2), dynamic analysis (GDB/Frida/WinDbg), and protocol reverse engineering.
  • Targeted guidance for authorized engagements including classification, artifact generation, and verification steps to prove findings.
  • Use Case: When analyzing a downloaded firmware blob, apply the workflow to map file formats, decode hidden protocols, and extract embedded keys with auditable results.

Quick Start

Begin the reverse-engineering workflow on a new binary to identify its structure, behavior, and any hardcoded secrets.

Frequently Asked Questions about reverse-engineering

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I systematically reverse engineer a firmware blob to extract hardcoded secrets?

Systematic reverse engineering applies a phased workflow using static analysis with Ghidra or IDA and dynamic analysis with GDB or Frida to map file formats, decode protocols, and extract embedded keys with auditable results.

What is the difference between static analysis and dynamic analysis when reverse engineering binaries?

Static analysis examines binary structure without execution using tools like Ghidra or radare2, while dynamic analysis observes runtime behavior using GDB or Frida to reveal execution flow and hidden functionality.

Does this reverse engineering workflow support protocol analysis for unknown binary formats?

Yes, protocol analysis is fully supported, allowing analysts to decode hidden protocols within binaries and firmware by mapping file formats and identifying structural behavior through the systematic workflow.

How do I start reverse engineering a binary to identify its structure and behavior?

Begin by classifying the target binary, then apply static analysis to map its structure and dynamic analysis to observe behavior, generating verifiable artifacts that prove findings throughout the phased workflow.

Can I use Frida and WinDbg for dynamic analysis of binaries within this workflow?

Frida and WinDbg are supported dynamic analysis tools within the workflow, used alongside static analysis instruments to observe runtime behavior, identify hidden secrets, and verify findings systematically.

What is the best way to verify findings when reverse engineering firmware?

The best way is through the workflow's built-in verification phase, which cross-references static analysis artifacts with dynamic analysis results to systematically prove extracted secrets and decoded protocols.