The USB Rubber Ducky was first developed in 2010 by a hacker known as "hak5darren," who wanted to create a tool that would allow him to easily and quickly execute code on a target system without having to physically type the commands. The device quickly gained popularity among cyber security professionals and ethical hackers for its versatility and ease of use.
One of the primary uses of the USB Rubber Ducky is for "social engineering" attacks, where an attacker attempts to trick a victim into installing malware or giving away sensitive information. For example, an attacker could create a fake login page that looks legitimate, and then use the USB Rubber Ducky to quickly enter a series of keystrokes that would cause the victim's computer to automatically enter their login credentials into the fake page.
The USB Rubber Ducky can also be used for more traditional cyber security activities, such as testing the security of a system or network. Ethical hackers can use the device to quickly execute a series of commands that would reveal vulnerabilities or weaknesses in a system, and then use this information to recommend improvements or fixes.
Overall, the USB Rubber Ducky is a powerful and useful tool for cyber security professionals and ethical hackers. It allows them to quickly and easily execute code and commands on a target system, making it an essential part of many cyber security toolkits.
What is usb rubber ducky payloads?
A USB Rubber Ducky payload is a series of commands or code that is programmed into the device and executed on a target computer when the device is plugged in. These payloads can be written in a variety of languages, such as Bash, Python, or even custom scripts, and can be tailored to achieve a specific goal or accomplish a specific task.
Some common examples of USB Rubber Ducky payloads include:
- Installing malware or other malicious software on a target system
- Executing a series of commands to gather information about a system, such as passwords, login credentials, or other sensitive data
- Enabling remote access or control of a system
- Executing a series of commands to disable security measures or bypass security protocols
- Creating fake login pages or other phishing attacks to trick victims into entering their sensitive information
It's important to note that using a USB Rubber Ducky for malicious purposes is illegal in many jurisdictions, and should only be used for legitimate cyber security purposes, such as testing the security of a system or network.
What language does usb rubber ducky use ?
The USB Rubber Ducky is a hardware tool that emulates a keyboard, so it does not have a specific programming language that it uses. Instead, it is programmed with a series of keystrokes and commands that can be written in any language that is supported by the target system.
For example, if the target system is a Windows computer, the USB Rubber Ducky payload could be written in a language such as PowerShell or batch scripts, which are native to the Windows operating system. If the target system is a Linux machine, the payload could be written in a language such as Bash or Python.
In addition to using standard programming languages, the USB Rubber Ducky also supports custom scripts and payloads that can be written in a variety of languages and formats. This allows users to create highly customized payloads that are tailored to their specific needs and goals.
How fast is the rubber ducky?
The speed at which a USB Rubber Ducky can execute its payload depends on a number of factors, including the complexity of the payload, the processing power of the target system, and the speed at which the target system can accept and process the keystrokes and commands being emulated by the device.In general, the USB Rubber Ducky is capable of executing its payload at a very high speed, often faster than a human user could type the same commands manually. This makes it a powerful and efficient tool for executing complex or time-sensitive tasks on a target system.
It's worth noting that the speed of the USB Rubber Ducky can also be adjusted by the user, who can set the device to execute its payload at a slower or faster rate depending on their needs and goals. This allows users to fine-tune the device's performance to suit the specific requirements of their tasks.