ctf-pwn

Identify memory corruption vulnerabilities in binary CTF challenges and plan exploits.

Updated Aug 27, 2026
One-click install
npx skills add https://github.com/th3w1zard1/reverse-engineering-assistant --skill ctf-pwn-th3w1zard1
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: ctf-pwn
Source: https://github.com/th3w1zard1/reverse-engineering-assistant/tree/main/ReVa/skills/ctf-pwn
Command: npx skills add https://github.com/th3w1zard1/reverse-engineering-assistant --skill ctf-pwn-th3w1zard1

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This skill guides practitioners through the end-to-end process of solving CTF binary exploitation challenges by systematically discovering memory corruption vulnerabilities and planning safe, reproducible exploitation strategies to read flags. It covers common classes like buffer overflows, format string vulnerabilities, heap exploits, and ROP challenges, enabling structured analysis rather than guesswork.

Core Features & Use Cases

  • Structured vulnerability discovery: a repeatable framework to locate unsafe APIs, identify data flows, and map memory layouts.
  • Exploitation planning: step-by-step strategies to decide between shellcode, ret2libc, or ROP approaches, including offset calculations and gadget planning.
  • Documentation and collaboration: inline notes, bookmarks, and witness records to share findings with teammates。

Quick Start

Provide the target binary and follow the framework to identify vulnerabilities, map memory layout, and plan an exploit.

Frequently Asked Questions about ctf-pwn

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

FAQPage Schema
How do I plan an exploit for a memory corruption vulnerability in a CTF binary?

To plan memory corruption exploitation, systematically identify unsafe APIs, trace data flows, and map the memory layout. This framework then helps calculate offsets and choose between shellcode, ret2libc, or ROP strategies to read the flag.

What is the best way to find buffer overflows and format string vulnerabilities in native binaries?

Finding buffer overflows and format string vulnerabilities requires structured discovery using a disassembly environment like Ghidra or IDA. This process locates unsafe functions, maps data flows, and records offsets for safe, reproducible exploitation.

Do I need Ghidra or IDA to analyze binary exploitation challenges?

Yes, a disassembly or decompilation environment such as Ghidra or IDA is required. Access to the target binary is also necessary to map memory layouts, identify data flows, and design a reproducible exploitation plan.

How do I decide between using ROP and ret2libc for a binary exploitation challenge?

Deciding between ROP and ret2libc happens during exploitation planning after mapping the memory layout. This framework provides step-by-step strategies to calculate offsets, plan gadgets, and choose the appropriate approach to read the flag.

Can I use this to analyze heap exploits and memory corruption in CTF sandboxes?

Yes, this applies to heap exploits, buffer overflows, and format string vulnerabilities across native binaries and challenge sandboxes. It provides safety-conscious steps to map memory layouts and design an exploit plan for real CTF targets.

Why should I document memory layout and offsets when solving CTF pwn challenges?

Documenting memory layouts and offsets creates inline notes and witness records for reproducible exploitation. This structured approach replaces guesswork, enabling you to share findings and collaborate with teammates on memory corruption challenges.