This project aims to reproduce the LMSI CM-153 card needed to operate a Philips CM-100 CD-ROM drive. This drive was originally released in 1985 and used an early version of the LSMI protocol to connect. Later versions of LMSI cards, such as the CM-260, are not compatible with earlier drives (I do not know what the exactly compatibilities are). So an early card is required. The CM-153 is a very uncommon part to find due to it's limited use, high cost, and the fact that it would probably be tossed out with the computer when upgraded being separated from its original drive.
Thanks to Roland who has a working CM-100 and CM-153 we have some pretty high quality reference images of what this card looks like. It uses all off the shelf 74 series logic chips and one 8251A UART controller. It should therefore be possible to recreate without needing any rare chips or ROM dumps.
The card has been fully reverse engineered and tested to be functional. It has been demonstrated to work using this driver with a CM100 drive.
FISSURE is an open-source RF and reverse engineering framework designed for all skill levels with hooks for signal detection and classification, protocol discovery, attack execution, IQ manipulation, vulnerability analysis, automation, and AI/ML. The framework was built to promote the rapid integration of software modules, radios, protocols, signal data, scripts, flow graphs, reference material, and third-party tools. FISSURE is a workflow enabler that keeps software in one location and allows teams to effortlessly get up to speed while sharing the same proven baseline configuration for specific Linux distributions.
The framework and tools included with FISSURE are designed to detect the presence of RF energy, understand the characteristics of a signal, collect and analyze samples, develop transmit and/or injection techniques, and craft custom payloads or messages. FISSURE contains a growing library of protocol and signal information to assist in identification, packet crafting, and fuzzing. Online archive capabilities exist to download signal files and build playlists to simulate traffic and test systems.
A Hex Editor for Reverse Engineers, Programmers and people who value their retinas when working at 3 AM. Full featured hex editor. Byte patching. Patch management. Copy and paste byte sequences. String and hex pattern highlighting. Pattern matching DSL. Huge file support. Can disassemble 16 different architectures' code and counting.
Omnivore is a cross-platform app for modern hardware (running linux, MacOS and Windows) to work with executables or media images of Atari 8-bit, Apple ][+, and other retrocomputer machines and game consoles.
A FREE comprehensive reverse engineering course covering x86, x64, 32-bit ARM & 64-bit ARM architectures.
Books, videos, and examples.
Assembled by DC540.
USBQ is a Python-based programming framework for monitoring and modifying USB communications. Uses the kernel module from USBiquitous to implement the MITM part in the USB stack. Really does need an external device to actually sit in between the device and the system to sniff the data. Hmm.
This repository contains helpful resources to receive signals transmitted from an Arduino 433 MHz transmitter with an RTL-SDR receiver using GNU Radio.
The project consists of two parts. In the first part, we reverse-engineer the protocol. In the second part, we implement a real-time receiver.
Binary Viewer is a tool for binary file discovery using visualizations that may highlight patterns.
SecretFinder is a python script based on LinkFinder written to discover sensitive data like apikeys, access tokens, authorizations, Javascript web tokens, and so forth in JavaScript files. It does so by using jsbeautifier for python in combination with a fairly large regular expression.
LinkFinder is a python script written to discover endpoints and their parameters in JavaScript files. This way penetration testers and bug hunters are able to gather new, hidden endpoints on the websites they are testing. Resulting in new testing ground, possibility containing new vulnerabilities. It does so by using jsbeautifier for python in combination with a fairly large regular expression. The regular expressions consists of four small regular expressions.
Seems like it'd be useful for finding REST APIs to reverse engineer.
A book that teaches the basics of reverse engineering software. CC-BY-SA. Has its own Git repo. Available in multiple languages.
Software for investigating unknown wireless protocols. Plug in an SDR and go. Helps you figure out how to demodulate signals, record and transmit signals, generate an overview, write or customize decoding routines to get a clearer picture, annotate and label the signals, fuzz devices (with a transmit-capable SDR), and run simulations of the protocols' state machines.
In the Arch Linux Community package collection.
A cheat-sheet for reverse engineering malware, by Lenny Zeltser.
A disassembler for Windows. One of the best in the field, and v2.0 just went beta. It's shareware, though it doesn't appear to lack any functionality if you haven't purchased it yet.
A toolset for taking apart Android .apk files so that the binaries can be reverse engineered or modified.
FDBG is a code debugger for code running in user mode (ring 3) in long mode (i.e., 64-bit native mode) on AMD CPUs. Ports for Windows and Linux are available. Written entirely in assembly language, includes source code. Extremely small executable.
Upload a file to this site and it not only takes the file apart like a hex editor, but it also implements a number of different visualization techniques that translate the binary into visual pictures. The visual feedback is highly useful in the process of reverse engineering, because people's brains just weren't wired to read hex.
BinNavi is a tool for performing static and dynamic reverse engineering of executables for a number of platforms - x86, ARM, PowerPC, and MIPS. Can connect to remote debuggers on other systems to examine running code. Extensible with scripts, can annotate call flow graphs. The source is on Github: https://github.com/google/binnavi