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3 HACKING gadgets you have to TRY!! thumbnail

3 HACKING gadgets you have to TRY!!

NetworkChuck·
6 min read

Based on NetworkChuck's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

PO PO pie turns a Raspberry Pi Zero W into a USB HID device that can impersonate keyboard/mouse behavior and run remote-controlled payloads via a web UI.

Briefing

Three Raspberry Pi–based gadgets turn a $40-ish Raspberry Pi Zero W into a remote-controlled hacking platform, a self-contained “Wi‑Fi pet” that improves at wireless monitoring, and a pocketable Kali Linux workstation—plus a bonus network-sniffing concept that no longer works.

The first build is a “bad USB” variant called PO PO pie (and its newer fork tone pie / “A little offensive appliance” lineage). The core idea is to plug the Pi Zero W into a computer over USB so the machine treats it as something harmless—like a keyboard, mouse, or network adapter—rather than a suspicious device. Once powered, the Pi creates its own Wi‑Fi network, letting the user connect to a web interface and control payloads from a phone or laptop. The setup uses a Raspberry Pi Zero W (the “W” version for built-in wireless), an SD card flashed with the latest PO PO pie image from GitHub, and Raspberry Pi Imager to write the OS. After boot, the Pi exposes a web UI at a local IP (the transcript uses 172.40.1:8000) and supports SSH with a default password.

Payloads run via HID scripting (JavaScript-based), which differs from the USB Rubber Ducky’s ducky script but can translate ducky script payloads into HID behavior. In practice, the Pi can wiggle a mouse, open a rickroll, and trigger more serious actions such as capturing logins, disabling security, grabbing passwords, or running PowerShell reverse shells and exfiltration—though the creator emphasizes pranks and “fun” rather than wrongdoing. The key operational advantage is remote control: the device can be left plugged in while the operator walks away and manages actions over Wi‑Fi.

The second project is PO G A (a Tomagotchi-style Wi‑Fi honing device). It’s designed to use AI to tune its wireless parameters to the environment it’s exposed to, improving over time. The build starts by flashing a “latest POGO” image (the transcript cites version 1.55 on GitHub) to a microSD card, then editing a boot-time config file (config.toml) to enable the web UI and set a web login. After boot, the Pi Zero connects to the operator’s machine via USB gadget networking (RNDIS/ethernet gadget), and the user assigns a static IP (the transcript uses 10.0.0.2/10.0.0.1) to reach the web interface at 10.0.0.2:8080. Switching from manual mode to “automotive” mode makes it begin monitoring and “doing things” on the local wireless environment, with the expectation that leaving it running longer yields smarter behavior.

The third project is straightforward: install Kali Linux onto the Raspberry Pi Zero using Raspberry Pi Imager’s “Other specific purpose OS” options (the transcript mentions Kali Linux and “pietail”/phone-as-screen variants, though one phone-based method didn’t work for the creator). The result is a small, wireless-capable hacking environment that can be paired with a keyboard/display or controlled via an Android phone.

A bonus attempt—“Poison Tap,” popular around 2016—aimed to passively capture network traffic from a connected computer and upload data to a web server. After hours of setup and troubleshooting, no usable data appeared, so the project is treated as nonfunctional today. The segment ends with a “Happy Pie Day” push and a sponsored Oracle Cloud container-learning plug.

Cornell Notes

Raspberry Pi Zero W can be repurposed into three practical “hacking gadget” builds: a bad USB-style device (PO PO pie), a Wi‑Fi monitoring “AI pet” (PO G A), and a compact Kali Linux environment. PO PO pie turns the Pi into a USB HID device that can impersonate a keyboard/mouse and runs payloads through HID scripting, while exposing a Wi‑Fi network and web UI for remote control. PO G A uses an AI approach to tune wireless monitoring parameters; it’s configured via a boot-time config.toml and controlled through a web UI reached over USB gadget networking (RNDIS). Kali Linux can be installed directly via Raspberry Pi Imager’s OS options, creating a portable pentesting setup. A fourth idea, Poison Tap, is reported as broken/nonfunctional in current conditions.

How does PO PO pie make a Raspberry Pi Zero W behave like a “bad USB,” and how is it controlled remotely?

It relies on USB HID behavior: when plugged into a computer, the Pi presents itself as a keyboard/mouse (or other device types) so the host executes scripted keystrokes/mouse actions rather than treating it as a Pi. After boot, the Pi Zero W creates its own Wi‑Fi network; the operator connects to that network and uses a web UI (the transcript uses a local address like 172.40.1:8000) to run payloads. SSH is also available at the device IP with a default password (the transcript mentions “TOOR” as the default). The payloads are executed through HID scripting.

What’s the difference between HID scripting used here and the USB Rubber Ducky’s ducky script, and why does that matter?

The transcript contrasts ducky script (a custom scripting language associated with the USB Rubber Ducky) with HID script, which is described as JavaScript-based and closer to a standard approach. The important practical point is compatibility: the system can import ducky script payloads and translate them into HID behavior. That means the operator can reuse a large community library of ducky payloads while running them through the Pi-based HID engine.

What hardware and setup steps are required to flash and run PO PO pie?

The build calls for a Raspberry Pi Zero W (wireless is essential for remote control), an SD card (the transcript uses a 32 GB microSD), a microSD card reader/adapter, and a micro-USB cable (micro-USB to USB for connecting the Pi to a computer). The operator downloads the latest PO PO pie image from GitHub releases, then uses Raspberry Pi Imager to write the custom image to the SD card. After inserting the SD card and powering via micro-USB, the Pi boots, starts its Wi‑Fi network, and exposes the web UI for control.

How does PO G A connect to a computer and present its web interface?

PO G A is configured to use USB gadget networking so the operator can reach it without relying on the Pi’s Wi‑Fi connection. After flashing the POGO image (the transcript cites GitHub version 1.55) and editing config.toml on the boot drive (to enable the web UI and set a web login), the Pi is connected via micro-USB. The computer detects a new RNDIS/ethernet gadget interface; the operator then assigns a static IP (the transcript uses 10.0.0.2 for the host side and 10.0.0.1 as the router/gateway) and verifies with ping before opening the web UI at 10.0.0.2:8080.

What does “automotive” mode do in PO G A, and why is leaving it running important?

The transcript describes switching from manual mode to “automotive,” after which the device begins monitoring and “doing things” on the wireless environment. The underlying premise is that the AI tunes its parameters based on what it observes, so longer exposure and continuous operation are expected to improve performance. The operator is advised to keep it running—often via a USB power bank—when in environments where monitoring is permitted.

Why does the Poison Tap concept fail in this walkthrough?

Poison Tap is presented as a passive traffic-sniffing idea: connect a Raspberry Pi Zero to a computer and capture network traffic, then upload collected data to a configured web server. In this attempt, the creator sets up both the web server and the Pi Zero but receives no data output after hours of troubleshooting, leading to the conclusion that it doesn’t work anymore under current conditions.

Review Questions

  1. What role does Wi‑Fi play in PO PO pie’s workflow, and what interface is used to trigger payloads?
  2. How does PO G A’s USB gadget networking (RNDIS) change the way the operator reaches the device compared with connecting over Wi‑Fi?
  3. What compatibility advantage is claimed by translating ducky script payloads into HID script?

Key Points

  1. 1

    PO PO pie turns a Raspberry Pi Zero W into a USB HID device that can impersonate keyboard/mouse behavior and run remote-controlled payloads via a web UI.

  2. 2

    Remote control for PO PO pie happens over a Wi‑Fi network created by the Pi itself, enabling operators to manage actions from a phone or laptop while the Pi stays plugged in.

  3. 3

    HID scripting (JavaScript-based) can import and translate ducky script payloads, letting users reuse community payload libraries.

  4. 4

    PO G A uses an AI-driven approach to tune wireless monitoring parameters and is operated through a web UI reached via USB gadget networking (RNDIS) with static IP configuration.

  5. 5

    PO G A requires a boot-time config.toml edit to enable the web UI and set login credentials.

  6. 6

    Kali Linux can be installed directly onto a Raspberry Pi Zero using Raspberry Pi Imager’s OS options, creating a portable hacking environment.

  7. 7

    Poison Tap is reported as nonfunctional in current practice: despite setting up a web server and Pi, no captured data was produced.

Highlights

PO PO pie creates its own Wi‑Fi network after boot, so the operator can control USB HID payloads from a browser without staying physically at the plugged-in computer.
The payload engine uses HID scripting and can translate ducky script payloads, bridging two ecosystems of USB attack tooling.
PO G A reaches its web interface over USB gadget networking (RNDIS), then uses static IPs to connect to 10.0.0.2:8080.
The AI “automotive” mode is designed to improve results the longer it runs in a given wireless environment.
Poison Tap—once a popular 2016 idea—produced zero usable data after hours of setup, suggesting it’s effectively broken today.

Topics

  • Bad USB
  • HID Scripting
  • Wi‑Fi Monitoring
  • AI Tuning
  • Kali Linux

Mentioned

  • USB
  • Wi‑Fi
  • HID
  • SSH
  • RNDIS
  • DNS
  • IP
  • TCP
  • DHCP
  • WPA
  • PSK
  • AI