
Explore hid attacks from keystroke injection to reverse shell techniques. Understand how wireless hid capabilities enable covert commands and defend against usb-based attacks.
Explore how human interface devices bypass authentication to inject malicious commands, enabling fast, stealthy HID attacks on Windows, Linux, and IoT systems.
Explore tools of the trade for ethical hacking by examining HID devices such as Digispark with Attiny85, Arduino Micro and Leonardo, cactus HID, and Raspberry Pi Pico, including wireless HID.
Demonstrate how a bad USB delivers a reverse shell from a fully updated Windows 11 victim to a Kali Linux attacker machine across two isolated networks.
Gain practical insight into post-access actions after a reverse shell, exploring basic commands, file operations, user and system information, process and service management, and network details.
Set up a reverse shell environment using a get reverse shell tool and PowerShell scripts. Discuss antivirus considerations and remote deployment via bad USBs.
Learn how to set up a local server and deliver a reverse shell to a victim's machine, using memory-resident code and stealth techniques for remote access.
Explore tcp tunneling with ngrok to expose local services and deploy a reverse shell script to a remote server across networks, using pastebin for hosting and netcat for listening.
Explore crafting dynamic reverse shell code for hid attacks, using static urls via a hosting service, ngrok integration, and programming bad usb devices like digispark to deploy the code.
Explore dynamic urls options for HID devices, comparing r.org, pastebin, and friend paste, and show how raw url access can retrieve code across services.
Watch a live demonstration of the Digispark as a bad usb; it connects attacker and victim machines, types keystrokes, and yields a reverse shell.
Set up a Digispark environment using Windows 10 in VirtualBox, install DG stamp AVR boards and drivers, and program with Arduino IDE to prototype keystroke HID projects.
Explore how HID devices simulate keystrokes with a keyboard library, and learn simple keystroke sequences and automation using Digispark and DJI Spark.
Explore how digispark badusb devices power reverse shells via PowerShell, enabling a reverse TCP connection from a victim machine to an attacker using Kali, Ngrok, and netcat.
Witness a live bad USB demonstration using an Arduino Micro to trigger a reverse shell on a Windows 11 victim machine, with an attacker and victim running on different IPs.
Configure the Arduino micro as a USB HID device and witness keystrokes, powered by ATmega32U4. Learn installation steps in Arduino IDE 1.8.5, installing AVR boards and selecting the correct port.
Learn to use an Arduino Micro as a HID device to perform keystroke attacks, including opening PowerShell, typing commands, downloading files, and listing installed software via keyboard actions.
Execute a reverse shell via a bad USB using an Arduino Micro USB, compiling and uploading code, launching PowerShell, and establishing a listener from a Kali attacker machine.
Watch the cactus HID wireless device create an access point and deliver live payloads, demonstrating a reverse shell via netcat on 192.168.1.1 and a new attack vector.
Configure a cactus HID wireless device, install the es exploit version two firmware, and flash ESP8266 and Arduino code via the Arduino IDE to enable the exploit interface.
Explore wireless keystroke attacks using a cactus HID device and the ES exploit interface. Learn to configure payloads, convert scripts, and examine exfiltrated data in practical demonstrations.
Explore practical cactus HID scripts and demonstrations of wireless keystroke payloads, including clearing PowerShell history, disabling internet, swapping mouse buttons, and exfiltrating Wi-Fi passwords.
Explore reverse shell attacks using cactus hid to deliver payloads via a malicious url and establish a reverse tcp connection between a victim machine and an attacker, using netcat.
Watch a live demonstration of bad USB hardware using Arduino Leonardo and ESP8266, showing scripts that enable reverse shell access between attacker and victim machines.
Configure an Arduino Leonardo with ESP8266 to create a wireless HID, flash firmware via node MCU flasher, and use a Wi-Fi ducky interface for keystroke scripting.
Demonstrates live keystrokes on a victim's machine using a bad USB and wifi ducky, executing scripts to restart, create folders, rename the computer, or open sites.
Learn to perform a wireless reverse shell using a wifi ducky, Ngrok, and a PowerShell payload to connect to the victim, with antivirus blocking addressed in the next video.
Learn how HID-based scripts can bypass antivirus defenses to establish a reverse shell, including uninstalling antivirus packages and restarting defenses to regain access.
Witness the power of a Raspberry Pi Pico transformed into Pico Ducky to run rubber ducky scripts, showcasing a reverse shell demonstration on a victim machine as a HID device.
Configure a Raspberry Pi Pico for HID attacks by converting it to CircuitPython, loading necessary CircuitPython libraries, adding payloads, and using boot modes and jumper tweaks for stealth.
Upload and run multiple HID payload scripts on a Raspberry Pi Pico by wiring GPIO pins to ground. Demonstrates changing date and time, altering wallpaper, and taking screenshots via payloads.
Explore launching reverse shells from a PCO Ducky HID device, reusing Arduino Leonardo syntax, using ngrok, and addressing real-time protection by regenerating the code.
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Welcome to Hardware Hacking Tools for Ethical Hackers, a comprehensive course designed to explore the security implications of Human Interface Devices (HID) through practical, hands-on demonstrations and controlled lab exercises.
In modern computing environments, USB devices such as keyboards and mice are automatically trusted by operating systems. Security professionals study this behavior to understand how these trusted devices could potentially be misused and how organizations can better defend their systems. In this course, you will learn how cybersecurity researchers analyze and test HID-based attack vectors as part of authorized penetration testing and security assessments.
You will begin by understanding the fundamentals of HID technology and how computers interpret keyboard and mouse inputs. From there, the course gradually introduces practical hardware tools commonly used in security research, including DigiSpark, Arduino Micro (BadUSB style devices), Cactus HID, and Raspberry Pi Pico. Step-by-step demonstrations will show how these devices can be programmed to automate keyboard input and simulate user interaction during controlled testing scenarios.
As the course progresses, you will explore how security professionals design automated payload demonstrations and testing scripts used to evaluate endpoint security configurations. You will also examine how different operating systems respond to automated HID input and how organizations can implement security controls to reduce the risks associated with unauthorized USB devices.
The course includes multiple hands-on demonstrations designed to help you understand both the offensive testing perspective and the defensive security perspective. You will learn how hardware-based techniques are used in security labs to identify vulnerabilities, evaluate system protections, and strengthen overall cybersecurity defenses.
By the end of this course, you will have a strong understanding of HID-based security testing tools, how they are used by cybersecurity professionals, and how organizations can protect their systems from hardware-based threats.
Disclaimer:
This course is intended strictly for educational and ethical cybersecurity research purposes. All demonstrations are performed in controlled laboratory environments on systems owned by the instructor or authorized for testing. The techniques shown are designed to help security professionals understand vulnerabilities and improve defensive security measures. Students are expected to follow all applicable laws and perform security testing only on systems they own or have explicit permission to test.