
ctf-pwn
Provides binary exploitation techniques for CTF challenges. Use when you already have a vulnerable native target or service and need to turn memory corruption or low-level primitives into code execution or privilege escalation, such as buffer overflows, format strings, heap bugs, ROP, ret2libc, shellcode, kernel exploitation, seccomp bypass, sandbox escape, or Windows/Linux exploit chains. Do not use it when the main blocker is understanding what the binary does; use reverse engineering first. Do not use it for pure web bugs, disk or packet forensics, or standalone crypto/math challenges.
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Install
Works with every agent the skills CLI supports.
npx skills add https://github.com/ljagiello/ctf-skills --skill ctf-pwn- 01
Install
Run the command in your project. The CLI asks which agents to install for.
- 02
Describe the task
Ask your agent for something this skill covers. It loads ctf-pwn automatically when relevant.
- 03
Review the result
The agent follows the SKILL.md steps, scripts and references bundled with the skill.
Security audits
Independent scans of the skill's instructions and bundled files.
SKILL.md
The instructions your agent reads when the skill is triggered.
CTF Binary Exploitation (Pwn)
Quick reference for binary exploitation (pwn) CTF challenges. Each technique has a one-liner here; see supporting files for full details.
Prerequisites
Python packages (all platforms):
pip install "pwntools==4.15.0" "ROPgadget==7.7" "ropper==1.13.13"
# or via script: bash scripts/install_ctf_tools.sh python
uv alternative:
uv venv && uv pip install "pwntools==4.15.0" "ROPgadget==7.7" "ropper==1.13.13"
Linux (apt):
apt install gdb binutils strace ltrace qemu-system-x86
Optional cross-arch (ARM/MIPS — Debian/Ubuntu):
apt install qemu-user qemu-user-static gdb-multiarch binutils-multiarch libc6-armhf-cross libc6-arm64-cross libc6-mips-cross
macOS (Homebrew):
brew install gdb binutils qemu
Ruby gems (all platforms):
gem install one_gadget seccomp-tools
Manual install:
- pwndbg — Linux: GitHub, macOS:
brew install pwndbg/tap/pwndbg-gdb - checksec — included with pwntools (
checksec --file=binary)
MCP servers (optional): WinDbg MCP (svnscha/mcp-windbg) for Windows crash dumps, live breakpoint-driven exploitation, and kernel/driver debugging; IDA Pro MCP / Ghidra MCP for decompiling the vulnerable function — see tools-mcp.md.
Additional Resources
- overflow-basics.md - Stack/global buffer overflow, ret2win, canary bypass, canary byte-by-byte brute force on forking servers, struct pointer overwrite, signed integer bypass, hidden gadgets, stride-based OOB read leak, parser stack overflow via unchecked memcpy length with callee-saved register restoration
- rop-and-shellcode.md - Core ROP chains (ret2libc, syscall ROP, rdx control, shell interaction), ret2csu, bad character XOR bypass, exotic x86 gadgets (BEXTR/XLAT/STOSB/PEXT), stack pivot via xchg rax,esp, sprintf() gadget chaining for bad character bypass, canary XOR epilogue as RDX zeroing gadget, stub_execveat syscall as execve alternative via read() return value
- rop-advanced.md - Advanced ROP techniques: double stack pivot to BSS via leave;ret, SROP (Sigreturn-Oriented Programming) with UTF-8 constraints, seccomp bypass, RETF architecture switch (x64→x32) for seccomp bypass, shellcode with input reversal, .fini_array hijack, ret2vdso, pwntools template, x32 ABI syscall aliasing for seccomp bypass, time-based blind shellcode exfiltration
- format-string.md - Format string exploitation (leaks, GOT overwrite, blind pwn, filter bypass, canary leak, __free_hook, .rela.plt patching, saved EBP overwrite for .bss pivot, argv[0] overwrite for stack smash info leak, .fini_array loop for multi-stage exploitation, __printf_chk bypass with sequential %p, single-call leak + GOT overwrite, ROT13-encoded format string exploit through input transformation)
- advanced.md - Seccomp advanced techniques, UAF, JIT, esoteric GOT, heap overlap via base conversion, tree data structure stack underallocation, ret2dlresolve, kernel exploitation (basic)
- heap-techniques.md - House of Apple 2 (+ setcontext SUID variant), House of Einherjar, House of Orange/Spirit/Lore/Force, heap grooming, custom allocators (nginx, talloc), classic unlink, musl libc heap (meta pointer + atexit hijack), tcache stashing unlink attack, unsafe unlink + top chunk consolidation
- heap-techniques-2.md - CTF-writeup heap variants: UAF vtable pointer encoding shell argument, uninitialized chunk residue pointer leak, tcache strcpy null-byte overflow + backward consolidation, adjacent-struct fn-pointer overflow for libc leak + GOT overwrite, hidden-menu tcache poisoning, tcache double-free + fake _IO_FILE vtable stdout hijack, tcache-to-fastbin promotion cross-bin attack, 6-bit index OOB + written_bytes accumulator, IS_MMAPED bit-flip for unsorted bin leak on calloc'd chunk, filename-regex-constrained fastbin via LSB-only heap pointer overwrite, custom allocator unsafe unlink to GOT
- heap-fsop.md - FILE-structure (_IO_FILE) exploitation: fastbin stdout vtable two-stage hijack for PIE + Full RELRO, _IO_buf_base null-byte stdin hijack, glibc 2.24+ _IO_FILE vtable validation bypass, unsorted-bin attack on stdin IO_buf_end, unsorted-bin corruption via mp structure, realloc(ptr, 0) as free() UAF, single-byte reference counter wraparound UAF
- advanced-exploits.md - Advanced exploit techniques (part 1): VM signed comparison, BF JIT shellcode, type confusion, off-by-one index corruption, DNS overflow, ASAN shadow memory, format string with encoding constraints, custom canary preservation, signed integer bypass, canary-aware partial overflow, CSV injection, MD5 preimage gadgets, VM GC UAF slab reuse, path traversal sanitizer bypass, FSOP + seccomp bypass via openat/mmap/write
- advanced-exploits-2.md - Advanced exploit techniques (part 2): bytecode validator bypass via self-modification, io_uring UAF with SQE injection, integer truncation int32->int16, GC null-reference cascading corruption, leakless libc via multi-fgets stdout FILE overwrite, signed/unsigned char underflow heap overflow, XOR keystream brute-force write primitive, tcache pointer decryption heap leak, unsorted bin promotion via forged chunk size, FSOP stdout TLS leak, TLS destructor hijack via
__call_tls_dtors, custom shadow stack pointer overflow bypass, signed int overflow negative OOB heap write, XSS-to-binary pwn bridge - advanced-exploits-4.md - Advanced exploit techniques (part 4): Windows SEH overwrite + pushad VirtualAlloc ROP, IAT-relative resolution, detached process shell stability, SeDebugPrivilege SYSTEM escalation, ARM buffer overflow with Thumb shellcode, Forth interpreter system word exploitation, GF(2) Gaussian elimination for multi-pass tcache poisoning, single-bit-flip exploitation primitive (mprotect + iterative code patching), Game of Life shellcode evolution via still-lifes, UAF via menu-driven strdup/free ordering, Windows CFG bypass via system() as valid call target, neural network output as function pointer index OOB, shellcode unique-byte limit bypass via counter overflow
- advanced-exploits-3.md - Advanced exploit techniques (part 3): stack variable overlap / carry corruption OOB, 1-byte overflow via 8-bit loop counter, game AI arithmetic mean OOB read, arbitrary read/write GOT overwrite to shell, stack leak via __environ + memcpy overflow, JIT sandbox escape via uint16 jump truncation, DNS compression pointer stack overflow with multi-question ROP, ELF code signing bypass via program header manipulation, game level format signed/unsigned coordinate mismatch, file descriptor inheritance via missing O_CLOEXEC, sign extension integer underflow in metadata parsing, ROP chain construction with read-only primitive, 4-byte shellcode with timing side-channel via persistent registers, CRC oracle as arbitrary read, UTF-8 case conversion buffer overflow
- advanced-exploits-5.md - Advanced exploit techniques (part 5): data-interpretation exploitation — Chip-8 emulator OOB memory for ret2libc, double-precision float quicksort canary repositioning, bloom filter abs(INT_MIN) negative index OOB write
- sandbox-escape.md - Custom VM exploitation, FUSE/CUSE devices, busybox/restricted shell, shell tricks, process_vm_readv sandbox bypass, named pipe file size bypass, CPU emulator print opcode Python eval injection (cross-references ctf-misc/pyjails.md for Python jail techniques)
- kernel.md - Linux kernel exploitation fundamentals: environment setup, QEMU debug, heap spray structures (tty_struct, poll_list, user_key_payload, seq_operations), kernel stack overflow, canary leak, privilege escalation (ret2usr, kernel ROP), modprobe_path overwrite, core_pattern overwrite, kmalloc size mismatch heap overflow + struct file f_op corruption
- kernel-techniques.md - Kernel exploitation techniques: tty_struct kROP (fake vtable + stack pivot), AAW via ioctl register control, userfaultfd race stabilization, SLUB allocator internals (freelist hardening/obfuscation), leak via kernel panic, MADV_DONTNEED race window extension (DiceCTF 2026), cross-cache CPU-split attack (DiceCTF 2026), PTE overlap file write (DiceCTF 2026), addr_limit bypass via failed file open for kernel memory read/write
- kernel-bypass.md - Kernel protection bypass: KASLR/FGKASLR bypass (__ksymtab), KPTI bypass (swapgs trampoline, signal handler, modprobe_path/core_pattern via ROP), SMEP/SMAP bypass, GDB kernel module debugging, initramfs/virtio-9p workflow, exploit templates, exploit delivery
- field-notes.md - Detailed pwn notes: heap exploitation quick reference, additional exploit notes, useful commands
- attack-playbook.md - Linux userland attack playbook: recon of input/privilege boundaries, leak selection by mitigation, and primitive ranking workflow
- static-signals.md - Exploit-relevant static signals (libc version, seccomp policy, RELRO/PIE/canary/NX evidence) for exploitability assessment
- pwnable-tw/README.md - 43 pwnable.tw writeups (orw, start, calc, hacknote, babystack, tcache_tear, death_note, dubblesort, applestore, bookwriter, and more) with per-challenge environment, protections, root-cause defects, and concrete exploitation chains
- tools-mcp.md - MCP server integration for pwn: WinDbg MCP session model (
open_cdb_dump/open_cdb_remote/open_kd_session+session_id), crash-dump triage, in-dumpflag{memory scanning, live breakpoint/hardware-watchpoint/memory-patch exploitation,!dh -fWindows mitigation check (thechecksecequivalent), kernel-mode token stealing with kd; IDA/Ghidra MCP for exploit development (decompile the vulnerable function first, drop to assembly only for exact gadget bytes)
When to Pivot
- If you do not yet understand what the binary does, switch to
/ctf-reversebefore trying to exploit it. - If the service is really a restricted shell, encoding puzzle, or sandbox language challenge, switch to
/ctf-misc. - If the exploit path depends on a web endpoint, session bug, or upload primitive more than memory corruption, switch to
/ctf-web. - If the vulnerability requires breaking a cryptographic primitive before exploitation, switch to
/ctf-crypto.
Quick Start Commands
# Binary analysis
checksec --file=binary
file binary
readelf -h binary
# Find gadgets
ROPgadget --binary binary | grep "pop rdi"
ropper -f binary --search "pop rdi"
one_gadget /lib/x86_64-linux-gnu/libc.so.6
# Debug
gdb -q binary -ex 'start' -ex 'checksec'
# Pattern for offset finding
python3 -c "from pwn import *; print(cyclic(200))"
python3 -c "from pwn import *; print(cyclic_find(0x61616168))"
# libc identification
./libc-database/find puts <leaked_addr_last_3_nibbles>
Source Code Red Flags
- Threading/
pthread-> race conditions usleep()/sleep()-> timing windows- Global variables in multiple threads -> TOCTOU
Race Condition Exploitation
bash -c '{ echo "cmd1"; echo "cmd2"; sleep 1; } | nc host port'
Common Vulnerabilities
- Buffer overflow:
gets(),scanf("%s"),strcpy() - Format string:
printf(user_input) - Integer overflow, UAF, race conditions
Protection Implications for Exploit Strategy
| Protection | Status | Implication |
|---|---|---|
| PIE | Disabled | All addresses (GOT, PLT, functions) are fixed - direct overwrites work |
| RELRO | Partial | GOT is writable - GOT overwrite attacks possible |
| RELRO | Full | GOT is read-only - need alternative targets (hooks, vtables, return addr) |
| NX | Enabled | Can't execute shellcode on stack/heap - use ROP or ret2win |
| Canary | Present | Stack smash detected - need leak or avoid stack overflow (use heap) |
Quick decision tree:
- Partial RELRO + No PIE -> GOT overwrite (easiest, use fixed addresses)
- Full RELRO -> target
__free_hook,__malloc_hook(glibc < 2.34), or return addresses - Stack canary present -> prefer heap-based attacks or leak canary first
Stack Buffer Overflow
- Find offset:
cyclic 200thencyclic -l <value> - Check protections:
checksec --file=binary - No PIE + No canary = direct ROP
- Canary leak via format string or partial overwrite
- Canary brute-force byte-by-byte on forking servers (7*256 attempts max)
ret2win with magic value: Overflow -> ret (alignment) -> pop rdi; ret -> magic -> win(). Stack alignment: SIGSEGV in movaps = add extra ret gadget. Offset: buffer at rbp - N, return at rbp + 8, total = N + 8. Input filtering: assert payload avoids memmem() banned strings. Gadgets: ROPgadget --binary binary | grep "pop rdi", or pwntools ROP() for hidden gadgets in CMP immediates. See overflow-basics.md for full exploit code.
Parser Stack Overflow (Unchecked memcpy)
Pattern: Custom file parser (PCAP, image, archive) allocates fixed stack buffer but input records can exceed it. memcpy copies before length validation, overflowing saved registers and return address. Must restore callee-saved registers: rbx to readable memory (BSS), loop counters to exit values, then ret gadget + win function. See overflow-basics.md.
Struct Pointer Overwrite (Heap Menu Challenges)
Pattern: Menu create/modify/delete on structs with data buffer + pointer. Overflow name into pointer field with GOT address, then write win address via modify. See overflow-basics.md for full exploit and GOT target selection table.
Signed Integer Bypass
Pattern: scanf("%d") without sign check; negative quantity * price = negative total, bypasses balance check. See overflow-basics.md.
Canary-Aware Partial Overflow
Pattern: Overflow valid flag between buffer and canary. Use ./ as no-op path padding for precise length. See overflow-basics.md and advanced.md for full exploit chain.
Global Buffer Overflow (CSV Injection)
Pattern: Adjacent global variables; overflow via extra CSV delimiters changes filename pointer. See overflow-basics.md and advanced.md for full exploit.
ROP Chain Building
Leak libc via puts@PLT(puts@GOT), return to vuln, stage 2 with system("/bin/sh"). See rop-and-shellcode.md for full two-stage ret2libc pattern, leak parsing, and return target selection.
DynELF libc discovery: pwntools.DynELF(leak_func, pointer_in_libc) resolves libc symbols remotely without knowing the libc version. See rop-and-shellcode.md.
Constrained shellcode in small buffers: When buffer is too small, use read() shellcode stub (< 20 bytes) to pull full stage-2 shellcode. See rop-and-shellcode.md.
Raw syscall ROP: When system()/execve() crash (CET/IBT), use pop rax; ret + syscall; ret from libc. See rop-and-shellcode.md.
ret2csu: __libc_csu_init gadgets control rdx, rsi, edi and call any GOT function — universal 3-argument call without libc gadgets. See rop-and-shellcode.md.
Bad char XOR bypass: XOR payload data with key before writing to .data, then XOR back in place with ROP gadgets. Avoids null bytes, newlines, and other filtered characters. See rop-and-shellcode.md.
Exotic gadgets (BEXTR/XLAT/STOSB/PEXT): When standard mov write gadgets are unavailable, chain obscure x86 instructions for byte-by-byte memory writes. See rop-and-shellcode.md.
Stack pivot (xchg rax,esp): Swap stack pointer to attacker-controlled heap/buffer when overflow is too small for full ROP chain. Requires pop rax; ret to load pivot address first. See rop-and-shellcode.md.
rdx control: After puts(), rdx is clobbered to 1. Use pop rdx; pop rbx; ret from libc, or re-enter binary's read setup + stack pivot. See rop-and-shellcode.md.
Canary XOR epilogue as rdx zeroing gadget: When no pop rdx; ret exists, jump into the canary check epilogue xor rdx, fs:28h -- it zeros RDX when the canary is intact. See rop-and-shellcode.md.
stub_execveat as execve alternative: When no pop rax; ret exists, use stub_execveat (syscall 322/0x142) instead of execve -- send exactly 0x142 bytes so read() return value sets rax. See rop-and-shellcode.md.
Shell interaction: After execve, sleep(1) then sendline(b'cat /flag*'). See rop-and-shellcode.md.
Format String Through Input Transformation
ROT13-encoded format string: When input is ROT13/Caesar-transformed before reaching printf, pre-encode the format string payload with the inverse transform so it arrives intact. See format-string.md.
Kernel Exploitation
addr_limit bypass via failed file open: When a kernel module sets addr_limit = KERNEL_DS but fails to restore it on error paths, force the error (e.g., make target file a directory) to retain kernel memory access from userspace read()/write(). See kernel-techniques.md.
Sandbox and Emulator Escape
CPU emulator eval injection: When an emulator's print opcode uses eval('"' + buf + '"') for escape sequences, build "+__import__("os").system("cmd")# in emulator memory via ADD opcodes to escape the string and execute Python. See sandbox-escape.md.
Advanced Exploit Primitives
Neural network function pointer OOB: When a binary uses NN output as an index into a function pointer array without bounds checking, retrain weights/biases to produce an out-of-bounds index that reads a target address from the biases array. See advanced-exploits-4.md.
Shellcode unique-byte limit bypass via counter overflow: When shellcode is limited to N unique bytes, spray the stack to corrupt the seen[256] counter, then re-execute main (skipping memset) so the overflowed counter allows arbitrary bytes on the second run. See advanced-exploits-4.md.
Deep-Dive Notes
Use field-notes.md once you have confirmed the challenge is truly exploitation-heavy.
- Heap and allocator notes: House of Apple, tcache, unsafe unlink, talloc, UAF, FSOP
- Advanced exploit notes: seccomp bypass, ret2vdso, io_uring, integer truncation, ASAN, timing oracles
- Sandbox and hybrid notes: pyjail crossover, busybox escapes, custom VMs, shell tricks, path sanitizers
- Kernel and Windows notes: kernel playbooks, SEH, CFG bypass, privilege escalation
- Historical case notes: older but still reusable CTF exploit patterns
FAQ
What does the ctf-pwn skill do?
Provides binary exploitation techniques for CTF challenges. Use when you already have a vulnerable native target or service and need to turn memory corruption or low-level primitives into code execution or privilege escalation, such as buffer overflows, format strings, heap bugs, ROP, ret2libc, shellcode, kernel exploitation, seccomp bypass, sandbox escape, or Windows/Linux exploit chains. Do not use it when the main blocker is understanding what the binary does; use reverse engineering first. Do not use it for pure web bugs, disk or packet forensics, or standalone crypto/math challenges.
How do I install ctf-pwn?
Run npx skills add https://github.com/ljagiello/ctf-skills --skill ctf-pwn in your project. The skills CLI detects the agents you use and copies the skill into the right folder. For Claude Code you can also place the skill folder at ~/.claude/skills/ctf-pwn/ (personal) or .claude/skills/ctf-pwn/ (project).
Which AI agents can use ctf-pwn?
Any agent that supports the open Agent Skills format (a folder with a SKILL.md file), including Claude Code, Codex, Cursor, GitHub Copilot, Gemini CLI, Windsurf, Cline, OpenCode and more.
Is ctf-pwn safe to install?
Security partners have reviewed it: Gen Agent Trust Hub passed; Socket flagged risks; Snyk passed; Runlayer flagged risks; ZeroLeaks passed. As with any skill, read the SKILL.md and bundled scripts before installing.
Who maintains ctf-pwn?
It is published by ljagiello in ljagiello/ctf-skills. It has 9,459 recorded installs.
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ctf-reverse
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Provides digital forensics and signal analysis techniques for CTF challenges. Use when analyzing disk images, memory dumps, event logs, network captures, cryptocurrency transactions, steganography, PDF analysis, Windows registry, Volatility, PCAP, Docker images, coredumps, side-channel power traces, DTMF audio spectrograms, packet timing analysis, CD audio disc images, or recovering deleted files and credentials.
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