exploit-analysis

Develop proof-of-concept exploit plans from vulnerability findings and CVE research.

Updated May 8, 2026
One-click install
npx skills add https://github.com/freire19/Mythos --skill exploit-analysis
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: exploit-analysis
Source: https://github.com/freire19/Mythos/tree/main/skills/exploit-analysis
Command: npx skills add https://github.com/freire19/Mythos --skill exploit-analysis

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill helps you analyze a vulnerability end-to-end by transforming a crash or finding into a clear proof-of-concept exploit plan with documented preconditions, steps, and remediation context.

Core Features & Use Cases

  • Exploit workflow: Map the path from input to sink, research relevant CVEs and techniques, and escalate from crash to controlled impact.
  • Practical reproduction: Generate a minimal reproduction using Python and record exact preconditions for repeatability.
  • Binary exploitation support: Analyze key security properties (PIE, NX, canary, RELRO), identify likely vulnerability classes, and guide debugger-based inspection when available.
  • Use cases: Writing a PoC for a finding, determining exploitability, assessing impact, and guiding secure remediation with a documented exploit narrative.

Quick Start

Use exploit-analysis to turn a vulnerability description into a documented PoC plan and code outline starting from root-cause understanding through escalation and remediation.

Frequently Asked Questions about exploit-analysis

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

FAQPage Schema
How do I develop a proof of concept from a vulnerability crash?

To develop a proof of concept from a vulnerability crash, map the input-to-sink behavior, research related CVEs, and escalate the crash into controlled impact. This process generates a minimal reproduction plan with documented preconditions and Python code outlines.

What is the best way to map input-to-sink behavior for binary exploitation?

Mapping input-to-sink behavior for binary exploitation involves analyzing key security properties like PIE, NX, canary, and RELRO. It identifies likely vulnerability classes and guides debugger-based inspection to characterize the vulnerability and plan reproduction.

Can I use this approach to assess exploitability and impact for a CVE finding?

Yes, you can assess exploitability and impact for a CVE finding by researching related techniques and mapping the path from input to sink. This evaluates whether a crash can be escalated to controlled impact and documents the exact preconditions required.

How do I create a minimal reproduction for a security vulnerability finding?

Creating a minimal reproduction for a security vulnerability finding requires documenting exact preconditions for repeatability and generating a Python code outline. It starts from root-cause understanding and maps the path through escalation to secure remediation.

Does this exploit analysis workflow support CWE mapping and documentation?

Yes, the exploit analysis workflow supports CWE mapping by identifying likely vulnerability classes during binary inspection. It provides a documented exploit narrative that includes preconditions, reproduction steps, and remediation context for the finding.

When do I need to analyze binary security properties like PIE and RELRO for vulnerability research?

You need to analyze binary security properties like PIE, NX, canary, and RELRO when characterizing a binary vulnerability and planning debugger-based inspection. This analysis identifies likely vulnerability classes and determines if a crash can escalate to controlled impact.