
Important Ethical Warning
Explore practical antivirus evasion techniques for pentesters and red teams through a hands-on Windows Defender bypass demo, featuring malware concealment, exploits, and reverse shell concepts.
Install Visual Studio C++ Community Edition on a Windows 10 virtual machine, set up desktop development with C++, create a hello world console project, and test it against Windows Defender.
Install essential Windows tools for malware research, including Visual Studio Community edition with C++, P bear, x64 dbg, and Process Hacker, to prepare a malware development and analysis environment.
A process is a program loaded into memory with executable code and execution state. Windows manages it with handles, threads, and security context.
Explore how to create a Windows process programmatically with the CreateProcess WinAPI, detailing parameters like application name, command line, startup info, and process information, including creation flags.
Learn to create a Windows process with the CreateProcess WinAPI function, including startup info, process information, and handling suspended state and resuming the main thread.
Understanding Threads in Windows
A thread is the basic unit of execution within a Windows process. While a process provides the resources and environment for an application, threads perform the actual work within that process.
A process can contain one or multiple threads, allowing different tasks to execute concurrently. Each thread has its own execution state, stack, and processor context, while sharing the process's memory and resources.
Understanding threads is essential for learning Windows Internals, debugging, reverse engineering, malware analysis, and cybersecurity, because thread behavior plays an important role in how Windows applications execute and interact with the operating system.
Demonstrates creating a Windows thread in a C++ console app using the Windows API's create thread function, printing the thread id, and synchronizing with wait for single object.
Explore how shellcode runner malware operates on Windows, allocating memory, copying shellcode, enabling execute permissions, and launching via a thread to bypass antivirus engines.
Install and configure yara on Windows 10, run yara to test static malware signatures against rules, and prepare for future lessons on obfuscation techniques to evade static analysis.
Learn to craft Yara rules for a Windows shellcode runner malware, detecting shellcode bytes and function calls like virtual alloc, virtual protect, and create thread to bypass static antivirus scanning.
Learn to obfuscate malware shellcode with xor encryption, decrypt it at runtime, and test evasion against antivirus and Yara rules.
Learn the import address table in Windows and how to obfuscate and hide imported functions from Yara for binary concealment in malware and red team tooling.
Learn function obfuscation by hiding a Windows API function from the import address table, using a four-step runtime load of the function from a dynamic library and calling it.
Obfuscate a windows shellcode runner by hiding kernel32 function calls, decrypting shellcode at runtime, and evading Yara and Windows Defender detections through string encryption and import table obfuscation.
bypass static antivirus scans by obfuscating shellcode and hiding functions in the import address table, then test against Windows Defender with yara rules.
Explore antivirus evasion techniques against Windows Defender. Learn to allocate memory, decrypt and write shellcode in chunks with time gaps, then change memory permissions and execute via a thread.
Explore malware code that bypasses Windows Defender antivirus, detailing shellcode decryption in memory, chunked injection, and execution in a lab setup.
Explore how a fileless dropper malware bypasses defender antivirus by loading an encrypted payload into memory, decrypting it, and opening a reverse shell to the attacker.
Generate a raw payload with msf venom, encrypt it with a python script, and deploy a dropper to bypass Windows Defender and gain a session.
Learn how attackers hide malware inside an image to bypass Windows antivirus and execute payloads covertly, with hands-on steps using SFX archives and concealment techniques.
Explore antivirus evasion via a dropper malware using process injection to download and decrypt shellcode in memory, inject into a target process, and establish a reverse shell.
Provide a code walkthrough of a dropper malware that uses process injection to bypass Windows Defender, detailing shellcode decryption and remote thread execution.
Explore the source code of a dropper that uses process hollowing to bypass antivirus defenses, loading encrypted shellcode from a remote server and executing it by hijacking a suspended process.
Explore antivirus evasion by testing and bypassing Windows Defender with undetectable malware, including payload creation, encryption, and process hollowing, using Kali Linux, MSF venom, and a reverse TCP shell.
Practical demonstration of ppid spoofing in windows using extended startup info and update proc thread attributes to set Notepad.exe as the parent of Ms Paint, verified by Process Hacker.
Understanding the Malware working which uses PPID ( Parent Process ID ) spoofing which bypasses Windows Defender Antivirus
Code explanation of the Malware which uses PPID ( Parent Process ID ) spoofing to bypass Windows Defender antivirus.
Bypassing Windows Defender antivirus using a Malware which uses PPID spoofing.
In today’s cybersecurity landscape, antivirus (AV) software and Windows Defender are the first lines of defense against malware activities. For ethical hackers, penetration testers, and red teamers, understanding how these malwares and security tools work and how malwares evade Antivirus/EDR is essential for realistic and effective security testing.
This course will teach you to build undetectable Malware which bypasses Antivirus/EDR which is used in professional penetration tests and red team operations. You’ll learn how antivirus engines detect threats (malwares) , explore common detection methods like signature-based scanning, heuristic analysis, and behavioral monitoring, and discover multiple bypass (evasion) strategies that work in real-world scenarios.
Through hands-on demonstrations, you’ll build and modify malwares, apply obfuscation techniques, use packing and encryption, and perform in-memory execution to bypass malware detection. Each section includes clear, step-by-step guidance so you can confidently reproduce the techniques in a controlled, legal lab environment without causing harm.
By the end of this course, you will be able to:
Build an undetectable Malware which bypasses Antivirus/EDR for Red Teaming, Penetration testing
Obfuscate malwares in multiple ways to bypass Antivirus/EDR
Implement multiple AV bypass methods safely and effectively in malwares
Apply real-world red team evasion techniques for better assessments
This course is intended for educational purposes only. All techniques are demonstrated in a legal, isolated lab environment for learning, testing, and skill improvement.