
Learn how 2.4GHz HID attack techniques work and use tools like Crazy Radio, NRF24L01 with Arduino, and Flipper Zero to understand wireless keyboard and mouse exploits, including reverse shell attacks.
Explore hands-on HID attack tools, including crazy radio, NRF24L01-based devices with Arduino nano, and flipper zero, to configure, build, and perform wireless keyboard and mouse attacks.
watch a live demo of a 2.4GHz hid attack with the crazy radio to gain reverse shell access from a victim's machine.
Experience a live attack demo using Flipper Zero to perform a 2.4 GHz HID attack and obtain a reverse shell on the victim’s machine.
See a live demo where a tiny rf nano device acts as a HID attacker, connects to the attacker machine, and yields a reverse shell on the victim machine.
Identify affected keyboards and mice using Bastille's vulnerability list, verify vendor responses and firmware updates, and explore using the provided firmware and GitHub resources for analysis.
Explore the concept of reverse shell attacks, examine the codes used to create a reverse shell, and learn how port forwarding with Ngrok enables TCP connections across networks.
Explore Crazy Radio variants; 2.0 with NRF 24 Lu one plus chipset works with firmware, while 1.0 is unavailable and PA is recommended, with 2.0 not supported by firmwares.
Learn to install crazy radio firmware and mouse jack firmware on a Kali machine, using Python 2 and 3, Sdsc compiler and Binutils, and platform io through virtual environments.
Learn how unencrypted 2.4GHz wireless keyboards and mice are vulnerable to mouse jacking HID attacks, where a dongle sniffs traffic and injects keystrokes remotely without physical access.
Install the jackit tool, a 2.4 GHz HID testing utility for keyboards and mice, identify affected devices, and learn firmware updates to mitigate HID mouse checking attacks with Crazy radio.
Learn to perform mouse checking attacks using the jacket tool to identify a wireless MAC address, then run scripts to demonstrate a mouse jack intrusion on victim machine.
Explore how the 2.4 GHz mouse dragging attack exploits wireless keyboards and mice, focusing on the NRF chip driving wireless communication. Update firmware to prevent mouse tracking attacks.
Explore creating HID scripts for Windows targets via a 2.4ghz exploit HID 2.0v, including scripts to change date/time, wallpaper, reboot, and empty the recycle bin on a victim machine.
Demonstrates a reverse shell on a Windows victim, illustrating remote access via PowerShell and network tunneling with ngrok and netcat. Highlights memory-injection and execution-policy bypass.
Develop HID scripts for Linux targets to automate keyboard-like attacks, opening terminals, listing directories, visiting sites, changing wallpaper, and creating files on the desktop.
Explore reverse shell attacks on Linux using a Python socket script, ngrok for remote tunneling, and netcat to establish and interact with a victim machine.
Build a demo device with the nrf24l01 chipset to perform a 2.4 ghz hid attack, then demonstrate a reverse shell from the victim to the attacker.
Identify essential hardware for a mouse-tracking device using an Arduino, NRF24L01 modules, capacitors, a breadboard, jumper wires, optional LEDs, and a 3.3V to 5V stabilizing socket.
Assemble an Arduino Uno powered NRF24L01 device per the sketch diagram, wiring 3.3V/5V, capacitors, VCC and ground, and pins 10, 9, 13, 11, 12; review code and HID codes.
Install Python 3 and Visual Studio Code on Windows, install PlatformIO, and set up a USB mouse project using GitHub resources to compile, upload, and use the serial monitor.
Execute a 2.4GHz HID attack with an nrf24l01 device by preparing Python and Arduino code, converting scripts to hex, uploading, and testing ipconfig and get services on the target.
Demonstrates a reverse shell attack on the Nrf24l01 device, showing how to generate, upload, and trigger a netcat-backed PowerShell session on the attacker machine via ngrok.
Watch a live reverse shell demo using the RF nano v3 to connect an attacker machine to a victim machine. Learn to configure the device for HID attacks.
Explore the RF-nano v3 module—a compact Arduino Nano with nrf24l01, featuring built-in and external antennas, and learn the installation process, required files, and how to run attacks with this device.
Install the Arduino IDE, add the rf24 library by tmr h 20, download the mouse tracking code, and review nrf24l01 pin mappings for rf-nano v3 and future hid code demos.
Demonstrates executing hid attacks with rf-nano v3 by running hexa form scripts on a victim's machine, including emptying the recycle bin and changing date and time.
Demonstrates a reverse shell attack on a wireless keyboard/mouse setup, illustrating remote access using ngrok, netcat, and PowerShell with RF-Nano v3.
Demonstrate using Flipper Zero to sniff NRF 24 traffic, identify a victim address, store results, and perform a mouse tracker attack with live demos.
Explains a reverse shell attack using Flipper Zero to gain remote access to a victim's machine, including PowerShell execution and memory injection of malicious code.
Demonstrate a hands-on reverse shell demo using a bad USB to gain access from a Kali Linux attacker to a fully patched Windows 11 victim.
after gaining reverse shell access from bad usb, learn practical post-exploitation steps: run basic commands, manage files, view users and system info, control processes and services.
Explore reverse shell programming with a PowerShell tool, creating and testing malicious code on a local system, and address antivirus detection, connection persistence, and remote deployment through bad USBs.
Set up a local python http server to host a PowerShell reverse shell and inject code directly into memory, avoiding disk writes.
Explore tcp tunneling with ngrok to deploy a reverse shell across different networks, hosting the payload on pastebin and executing it remotely via powershell.
Explore crafting dynamic reverse shell code for hid attacks by replacing static pastebin urls with rentry, enabling programmable code on a bad usb via ngrok, netcat, and PowerShell.
Discover how dynamic URLs are used in a hacking context, comparing pastebin-style services and raw code options to host and modify malicious code via URL-based workflows.
please share an honest review to motivate the creators and help improve this course, and download the HTML file from resources in the bonus section to access discounted coupons.
Wireless Systems are widely used for their convenience, but they often come with hidden vulnerabilities. In "Ethical Hacking Wireless Systems", you will explore the fascinating world of 2.4GHz frequency and master advanced HID (Human Interface Device) attack techniques. This course is designed to provide a comprehensive, hands-on approach to understanding, exploiting, and securing wireless peripherals.
Starting with an introduction to the tools of the trade, including CrazyRadio, RF-NANO, UcMouseJacker, and the Flipper Zero with NRF24, you will learn to configure these devices for powerful HID attacks. From there, we’ll dive into live demonstrations of reverse shell attacks on Windows and Linux systems, showing how vulnerabilities in wireless devices can be exploited in real time.
Through step-by-step modules, you will gain the skills to prepare, configure, and use devices like CrazyRadio for mouse jacking, build your own UcMouseJacker using NRF24L01 and Arduino components, and execute HID exploits with RF-NANO and Flipper Zero. Each section is packed with practical techniques and hands-on exercises, including how to create custom HID scripts for precise attacks and how to execute reverse shell exploits effectively.
Whether you are an ethical hacker, cybersecurity researcher, or wireless security enthusiast, this course provides valuable insights into the mechanics of 2.4GHz wireless communication and its vulnerabilities. By the end of this course, you will have the knowledge to both exploit and secure these devices, making you a skilled professional in HID-based wireless security.
Enroll today and unlock the power of HID 2.0v exploitation to elevate your skills in wireless security!
Disclaimer:
Important: All demonstrations and exercises in this course are conducted in controlled lab environments and are intended strictly for educational and ethical research purposes. Students must adhere to all applicable laws and regulations. Unauthorized interception, transmission, or manipulation of live devices, networks, or signals is strictly prohibited. This course focuses on defensive security, signal analysis, and research-based experimentation only.