thumb

x86_64 Assembly Language Programming with Debugging and Reverse Engineering Tools

The x86_64 Assembly Language Programming course is a hands-on, intensive program designed to equip students with deep knowledge of low-level system programming using 64-bit assembly on Linux. Starting from the fundamentals of CPU architecture, memory addressing, and instruction sets, the course takes learners through the core principles of writing, assembling, linking, and debugging assembly code using the NASM assembler and the System V AMD64 calling convention. Students will gain a foundational understanding of how modern programs interface directly with hardware and the Linux kernel through system calls.

Beyond basic syntax and logic, the course emphasizes practical skills in debugging and reverse engineering. Learners will use powerful tools such as GDB for live debugging, Ghidra for advanced decompilation and static analysis, Radare2 for binary inspection and patching, and EDB for GUI-based analysis. These tools will help students trace control flow, inspect register values, analyze memory usage, and reverse engineer compiled binaries—skills highly valued in cybersecurity, malware analysis, embedded systems, and exploit development.

By the end of the course, students will be able to write and debug complex assembly routines, develop custom shellcode, reverse engineer stripped binaries, and understand the inner workings of executable files at the binary level. Capstone projects such as creating syscall-only programs, analyzing unknown binaries, and injecting shellcode into test programs will help reinforce theoretical knowledge with real-world practice. This course is ideal for cybersecurity professionals, system programmers, ethical hackers, and anyone aiming to master low-level software engineering and reverse engineering on modern 64-bit Linux systems.

Course Requirements

To ensure students gain the most from this advanced x86_64 Assembly course, the following prerequisites and setup are recommended:

    01. Programming Knowledge :
  • A solid understanding of at least one programming language (preferably C or C++) is essential to grasp memory operations, control structures, and stack-based execution models used in low-level programming.
  • 02. Linux Proficiency :
  • amiliarity with the Linux command-line environment is mandatory. Students should be comfortable navigating directories, using terminal commands, editing files with vim or nano, and managing file permissions.
  • 03. Basic Computer Architecture Concepts:
  • Students should understand binary and hexadecimal number systems, memory addressing, CPU registers, and the basics of how code is executed at the hardware level.

Professional Experience and Skills Gained from x86_64 Assembly Course

Upon successful completion of the x86_64 Assembly Language Programming course at The Geek Institute of Cyber Security, students will gain the following professional skills and practical experience that are essential for a career in Debugging and Reverse Engineering:

  • Low-Level Programming Proficiency: Students will master writing and optimizing 64-bit assembly code using NASM on Linux, gaining precise control over CPU registers, memory, and execution flow.
  • System-Level Debugging Expertise: Learners will gain advanced debugging experience using tools like GDB, EDB, and Radare2 to trace, break, inspect, and modify live-running processes at the register and memory level.
  • Reverse Engineering and Binary Analysis: Students will develop the ability to decompile, analyze, and reconstruct logic from stripped or obfuscated binaries using tools like Ghidra and Radare2.
  • Exploit Development Foundations: Through hands-on labs, learners will explore buffer overflows, shellcode creation, and memory corruption — building a solid foundation for ethical hacking and exploit development.
  • Linux System Call Programming: Participants will write programs that directly invoke Linux syscalls in assembly, understanding how software communicates with the kernel without using high-level libraries.