
Explore the physics of computation, build your own instruction set architecture, and master Ghidra and AIDA Pro for malware analysis, binary forensics, and crafting 64‑bit assembly and shellcode.
Unlock the power of assembly to speak directly to the machine, optimize code, and reveal opportunities in ethical hacking, exploit development, and digital forensics.
Explore shellcode concepts, its role in buffer overflow exploits, and how assembly opcodes spawn a reverse shell. A practical C example demonstrates shellcode creation and its impact on cybersecurity.
Build a roadmap from computer science fundamentals to networking, operating systems, hardware, wireless, and web exploitation; apply adversarial thinking, reverse engineering, and coding to understand and defend systems.
Explore how the cpu, memory, and io form subsystems connected by buses to move data and instructions, enabling software execution, with hands-on programming environment setup.
Explore how the CPU fetches instructions from memory and how software runs on Linux, and prepare a dev environment with gcc, vim or VS Code for C and Python.
Explore how computers encode and store data as billions of binary switches, where bits form bytes and ascii characters, using binary and hexadecimal representations to manage information.
Learn how decimal addition works step by step with a carry flag and a visual algorithm, and see how fixed bit limits influence unsigned and signed arithmetic and overflow flags.
Explore how unsigned four-bit binary numbers are added and subtracted, how carry and overflow arise in fixed-width systems, and how hardware handles these operations at the binary level.
Learn how borrowing works in decimal subtraction, from ones and tens to applying the same logic to binary subtraction, including signed vs unsigned representations, two's complement, and cpu flags.
Explore binary subtraction in unsigned integers, learn how borrowing triggers the carry flag, and see how assembly subtraction (sub) updates flags for limited-bit arithmetic.
Learn how computers use two's complement to represent signed integers for easy binary addition and subtraction. Explore why sign-magnitude methods fail and review four-bit examples illustrating the practical benefits.
Explore Boolean algebra and binary logic, learn and or not gates, truth tables, and how these foundations power digital circuits, computer organization, and decision making in software logic.
Learn how transistors serve as solid-state switches and form logic gates, enabling faster, more efficient hardware design. Review concepts like current, voltage, DC vs AC, and logic signaling for engineers.
Explore how resistance, capacitance, and inductance shape impedance and timing in circuits, then see how resistors, capacitors, and inductors form passive components driving series and parallel behavior.
Explore how capacitors store energy, charge gradually, and smooth voltage, using the rc time constant to model exponential voltage changes across the capacitor and resistor toward steady state.
Inductors store energy in a magnetic field and resist rapid changes in current, filtering and stabilizing the voltage feeding the cpu on motherboards.
Explore how power consumption arises mainly from resistance, and how transistors switch and amplify to drive modern CPUs and CMOS devices.
Learn the basics of the mOSFET, including n-channel and p-channel operation, gate control, and how CMOS designs improve speed and reduce power consumption.
Explore CMOS technology, a complementary MOS design using PMOS and NMOS transistors to build efficient inverters and basic logic gates for digital circuits.
Learn how computers use logic circuits, focusing on combinational versus sequential logic, memory concepts, and how binary states map to voltages with active high or low signaling.
Learn how to add two n-bit binary numbers using half adders and full adders, including carry propagation, truth tables, and the sum and carry equations.
Explore nand and nor gates, the universal gates, and how they enable building any other gate by inverting outputs and applying De Morgan's laws.
Install and configure sasm, the open-source assembly development environment, on Linux, and explore its syntax highlighting, graphical debugging, and customization options.
Explore Ghidra's open source, free platform with broad architecture support, and learn to download, install, and navigate its file structure, documentation, extensions, and collaboration features for large firmware images.
Install the Java development kit on Linux by updating the package list and installing default-jdk with apt-get, then verify with java -version showing openjdk 17.0.6.
Install the Java Development Kit on Windows or macOS using Amazon Corretto. This no-cost, production-ready OpenJDK distribution provides long-term support, security updates, and reliable performance for ghidra and Java apps.
Learn to download, install, and use IDA Pro freeware for static and dynamic analysis to reverse engineer malware, with focus on disassembly, debugging, and exploring 32- and 64-bit binaries.
Launch Ghidra, create a non-shared project, and import a binary to preview loaders and language options, then review the import results summary for setup.
Discover Ghidra's reverse engineering workflow, from importing binaries to analyzing with disassembly and the decompiler, configuring analysis options, and navigating with the program trace, symbol tree, and bookmarks.
Explore how the CPU, memory, and IO interact via data, address, and control buses. Set up a simple programming environment to practice hands-on development.
Explore how machine instructions move from memory to the CPU, compare interpreted Python and compiled C programs, and set up a Linux development environment with GCC, Vim, and code.
Explore how computers operate as billions of two-state switches controlled by a unit, encoding data in memory as bits and bytes, with binary, ascii, and hex representations.
Explore how decimal addition works step by step, and how computers perform low-level arithmetic using fixed bit widths, carry and overflow flags to manage unsigned and signed calculations.
Learn how unsigned binary numbers are added, how carry bits and the carry flag indicate overflow in four-bit arithmetic, and how to extend to larger data types for bigger results.
Explore how borrowing shapes decimal subtraction step by step, then see how the same logic carries into binary subtraction, sign representation, and cpu flags using two's complement.
Explore binary subtraction in unsigned four-bit arithmetic, borrowing, and the carry flag, then see how assembly uses sub and subs to update flags.
Understand how two's complement enables efficient binary addition and subtraction of signed integers. See how it replaces sign magnitude with four-bit examples and the range minus eight to plus seven.
Explore boolean algebra basics for low level computing, using binary values 0/1 and logic operators and, or, not; build truth tables and understand how gates power digital circuits and processors.
Are you ready to unlock the secrets of reverse engineering and take your cybersecurity and programming skills to the next level? Whether you're an aspiring ethical hacker, a cybersecurity professional, or a programming enthusiast, this comprehensive course will empower you with the tools and techniques needed to analyze malware, write assembly programs, and develop powerful exploits.
From foundational assembly language concepts to advanced exploit development, you’ll gain hands-on experience with industry-standard tools like Ghidra, IDA Pro, SASM, and more.
What You'll Learn:
Malware Analysis & Reverse Engineering: Learn how to use tools like Ghidra to dissect and understand malware behavior.
Binary Analysis Techniques: Master the 4 stages of binary compilation—preprocessing, compilation, assembly, and linking.
Executable Formats (ELF & PE): Explore Linux ELF and Windows PE formats to analyze executables.
Assembly Programming: Write, debug, and execute 64-bit assembly programs from scratch.
Shellcoding & Exploit Development: Develop shellcode and exploit vulnerabilities to gain system access.
Buffer Overflow Attacks: Identify and exploit buffer overflow vulnerabilities using Metasploit, Immunity Debugger, and manual techniques.
Network Shells: Create TCP bind and reverse shells to understand real-world exploitation techniques.
Why This Course?
Comprehensive Curriculum: Cover everything from malware analysis and binary analysis to advanced exploit development.
Practical, Hands-On Learning: Dive deep into real-world projects and step-by-step labs to reinforce your knowledge.
Industry-Standard Tools: Gain expertise in Ghidra, IDA Pro, SASM, and more, used by cybersecurity professionals globally.
Career Advancement: Develop skills in high demand across ethical hacking, red teaming, and cybersecurity domains.
Course Breakdown:
Introduction: Get started with the essentials and understand why assembly is the key to unlocking open-source knowledge.
Lab Setup: Set up your environment with SASM, Ghidra, IDA Pro, and other essential tools.
Malware Analysis with Ghidra: Begin analyzing malware, extracting system files, and utilizing OSINT for reverse engineering.
Binary Analysis: Understand how binaries compile, load, and execute.
Assembly Programming: Write and debug 64-bit assembly programs, develop projects, and understand system calls.
Shellcoding & Exploitation: Create shellcodes, analyze vulnerabilities, and build exploits for real applications.
Buffer Overflow Exploits: Exploit buffer overflow vulnerabilities to gain shell access.
Who Should Enroll?
Cybersecurity professionals aiming to enhance reverse engineering skills.
Ethical hackers and red teamers seeking practical experience in exploit development.
Students or programmers passionate about low-level programming and system internals.
IT professionals exploring advanced debugging and vulnerability exploitation techniques.
Prerequisites:
Basic programming knowledge is helpful but not mandatory.
A willingness to learn and explore complex concepts.
This is not just another course - it’s 33 hours of expert-led content designed to take you from beginner to advanced in reverse engineering, malware analysis, and exploit development. Whether you're looking to boost your career or master low-level programming, this course is your ultimate guide.
Enroll now to begin your journey and discover how limitless your skills can become. Let’s hack the future—together!
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