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.