Atom Ducky is a HID device controlled through a web browser. It's designed to function as a wirelessly operated Rubber Ducky, personal authenticator, or casual keyboard. Its primary aim is to help ethical hackers gain knowledge about Rubber Ducky devices while integrating their use into everyday life.
- Web Interface
- HID
- Inject Payload
- Modify Payload
- Live Keyboard
- Single Payload
- Rubber Mode
- Templates Manager
- BLE (not related to HID functions)
- Sour Apple attack
- Samsung Flood attack
- Ducky
- Ducky image 🦆
- HID
- WiFi
- Access Point mode
- Network mode
- Interface
- Config
- Switch between AP/Network modes
- Assign custom IP for the Access Point
- Change SSID and Password easily
- Switch between RUBBER/NORMAL modes
Important
This project may not be suitable for the very beginners, as it requires some knowledge of the operating system command line interface.
Let's fully cover the setup process, including available microcontrollers. From first commands in the terminal, to the web interface of Atom Ducky.
First, we will need a Microcontroller device supporting HID, WiFi, and preferably BLE. Perfect choice would be an AtomS3U, link to official website: M5Stack AtomS3U.
For full version of AtomDucky
HID, WiFi and BLE:
Click to see full list
- Adafruit Feather ESP32 V2
- Adafruit Feather ESP32-S3 No PSRAM
- Adafruit QT Py ESP32-S3 no psram
- Ai Thinker ESP32-CAM
- Arduino Nano ESP32
- Cytron EDU PICO W
- Cytron Maker Feather AIoT S3
- DFRobot FireBeetle 2 ESP32-S3
- ES3ink
- ESP32-S3-Box-2.5
- ESP32-S3-Box-Lite
- ESP32-S3-DevKitC-1-N32R8
- ESP32-S3-DevKitC-1-N8
- ESP32-S3-DevKitC-1-N8R2
- ESP32-S3-DevKitC-1-N8R8
- ESP32-S3-DevKitC-1-N8R8-with-HACKTABLET
- ESP32-S3-DevKitM-1-N8
- ESP32-S3-EYE
- ESP32-S3-USB-OTG-N8
- FeatherS3
- FeatherS3 Neo
- LILYGO T-DISPLAY S3 v1.2
- LILYGO TEMBED ESP32S3
- LOLIN S3 16MB Flash 8MB PSRAM
- LOLIN S3 PRO 16MB Flash 8MB PSRAM
- M5Stack AtomS3
- M5Stack AtomS3 Lite
- M5Stack AtomS3U
- MakerFabs-ESP32-S3-Parallel-TFT-With-Touch-7inch
- NanoS3
- Oxocard Artwork
- Oxocard Connect
- Oxocard Galaxy
- Oxocard Science
- Pimoroni Badger 2040 W
- Pimoroni Pico DV Base W
- Pimoroni Plasma 2040W
- ProS3
- Raspberry Pi Pico W
- Seeed Studio XIAO ESP32C3
- Spotpear ESP32C3 LCD 1.44
- Sunton-ESP32-8048S070
- ThingPulse Pendrive S3
- TinyS3
- VCC-GND YD-ESP32-S3 (N16R8)
- VCC-GND YD-ESP32-S3 (N8R8)
- Waveshare ESP32-S3-GEEK
- Waveshare ESP32-S3-Pico
- Waveshare ESP32-S3-Zero
- Waveshare ESP32S3 LCD 1.28
- sunton_esp32_2432S032C
For no_ble version of AtomDucky
Boards supporting WiFi and HID:
Click to see full list
- ATMegaZero ESP32-S2
- Adafruit Camera
- Adafruit Feather ESP32-S2 Reverse TFT
- Adafruit Feather ESP32-S2 TFT
- Adafruit Feather ESP32-S3 Reverse TFT
- Adafruit Feather ESP32-S3 TFT
- Adafruit Feather ESP32S2
- Adafruit Feather ESP32S3 4MB Flash 2MB PSRAM
- Adafruit Feather ESP32S3 No PSRAM
- Adafruit FunHouse
- Adafruit MagTag
- Adafruit MatrixPortal S3
- Adafruit Metro ESP32S2
- Adafruit Metro ESP32S3
- Adafruit QT Py ESP32-S3 4MB Flash 2MB PSRAM
- Adafruit QT Py ESP32-S3 no psram
- Adafruit QT Py ESP32S2
- Adafruit-Qualia-S3-RGB666
- Ai Thinker ESP32-CAM
- Arduino Nano ESP32
- Artisense Reference Design RD00
- AutosportLabs-ESP32-CAN-X2
- BLING!
- BPI-Bit-S2
- BPI-Leaf-S3
- BPI-PicoW-S3
- BastWiFi
- Bee-Data-Logger
- Bee-Motion-S3
- Bee-S3
- BlizzardS3
- ColumbiaDSL-Sensor-Board-V1
- CrumpS2
- Cytron EDU PICO W
- Cytron Maker Feather AIoT S3
- DFRobot FireBeetle 2 ESP32-S3
- Deneyap Mini
- Deneyap Mini v2
- ES3ink
- ESP 12k NodeMCU
- ESP32-S2-DevKitC-1-N4
- ESP32-S2-DevKitC-1-N4R2
- ESP32-S2-DevKitC-1-N8R2
- ESP32-S3-Box-2.5
- ESP32-S3-Box-Lite
- ESP32-S3-DevKitC-1-N32R8
- ESP32-S3-DevKitC-1-N8
- ESP32-S3-DevKitC-1-N8R2
- ESP32-S3-DevKitC-1-N8R8
- ESP32-S3-DevKitC-1-N8R8-with-HACKTABLET
- ESP32-S3-DevKitM-1-N8
- ESP32-S3-EYE
- ESP32-S3-USB-OTG-N8
- Espressif-ESP32-S3-LCD-EV-Board
- FeatherS2
- FeatherS2 Neo
- FeatherS3
- FeatherS3 Neo
- Flipper Zero Wi-Fi Dev
- Franzininho WIFI w/Wroom
- Franzininho WIFI w/Wrover
- Freenove ESP32-WROVER-DEV-CAM
- Gravitech Cucumber M
- Gravitech Cucumber MS
- Gravitech Cucumber R
- Gravitech Cucumber RS
- HMI-DevKit-1.1
- Hardkernel Odroid Go
- Heltec ESP32-S3-WIFI-LoRa-V3
- HexKyS2
- IoTs2
- Kaluga 1
- LILYGO T-DECK
- LILYGO T-DISPLAY S3 v1.2
- LILYGO TEMBED ESP32S3
- LILYGO TTGO T8 ESP32-S2
- LILYGO TTGO T8 ESP32-S2 w/Display
- LOLIN S3 16MB Flash 8MB PSRAM
- LOLIN S3 MINI 4MB Flash 2MB PSRAM
- LOLIN S3 PRO 16MB Flash 8MB PSRAM
- Lilygo T-watch 2020 V3
- M5Stack AtomS3
- M5Stack AtomS3 Lite
- M5Stack AtomS3U
- M5Stack Cardputer
- M5Stack CoreS3
- M5Stack Dial
- MakerFabs-ESP32-S3-Parallel-TFT-With-Touch-7inch
- MicroDev microS2
- MixGo CE
- NanoS3
- Neuron
- Oak Dev Tech PixelWing ESP32S2
- Oxocard Artwork
- Oxocard Connect
- Oxocard Galaxy
- Oxocard Science
- Pajenicko PicoPad
- Pimoroni Badger 2040 W
- Pimoroni Inky Frame 5.7
- Pimoroni Inky Frame 7.3
- Pimoroni Pico DV Base W
- Pimoroni Plasma 2040W
- ProS3
- Raspberry Pi Pico W
- S2Mini
- S2Pico
- Saola 1 w/Wroom
- Saola 1 w/Wrover
- Seeed Studio XIAO ESP32C3
- Spotpear ESP32C3 LCD 1.44
- Sunton-ESP32-8048S070
- TTGO T8 ESP32-S2-WROOM
- Targett Module Clip w/Wroom
- Targett Module Clip w/Wrover
- ThingPulse Pendrive S3
- TinyS2
- TinyS3
- TinyWATCH S3
- VCC-GND YD-ESP32-S3 (N16R8)
- VCC-GND YD-ESP32-S3 (N8R8)
- Waveshare ESP32-S2-Pico
- Waveshare ESP32-S2-Pico-LCD
- Waveshare ESP32-S3-GEEK
- Waveshare ESP32-S3-Pico
- Waveshare ESP32-S3-Zero
- Waveshare ESP32S3 LCD 1.28
- nanoESP32-S2 w/Wrover
- nanoESP32-S2 w/Wroom
- senseBox MCU-S2 ESP32S2
- sunton_esp32_2432S032C
Tip
Choosing a board supporting BLE will let you have two bonus features, but they are not relevant to the keyboard at all.
Not every board has CircuitPython installed by default (very few to be clear), and installation process may vary between devices, the general advice is to plug your microcontroller into the computer, visit CircuitPython Official Website, and search for your board.
Boards without .UF2 bootloader:
Click to expand
- Python
- esptool
In case of the ATOM S3U based on ESP32S3 (CircuitPython M5stack AtomS3U), scroll down until you see:
Click on Download Bootloader ZIP on the website, create a folder anywhere, and unpack the downloaded .zip file there. Save the path of the folder to your clipboard, or just remember it.
For flashing the bootloader, we will need an esptool.py, we can also try using a web browser ESP Web Flasher.
Install esptool.py, use terminal and make sure you have Python installed.
$ pip install esptool
Flash the device with bootloader.
Before flashing, the board has to enter into the bootloader mode, this is different for all boards, usually holding the button itself works, but in case of Atom S3U we must hold the main button and the reset button until the green light.
# Find the port
# Windows:
$ mode
# Look for devices that have 9600-460800 Baud
Status for device COM13:
------------------------
Baud: 9600
Parity: None
Data Bits: 8
Stop Bits: 1.5
Timeout: OFF
XON/XOFF: OFF
CTS handshaking: OFF
DSR handshaking: OFF
DSR sensitivity: OFF
DTR circuit: OFF
RTS circuit: OFF
# Linux:
dmesg | grep tty
Next, use the esptool to flash:
The flash offset '-z' may vary, please check which flash offset your board has, common offsets to try are '0, 0x0, 0x1000'
# (--port /dev/ttyPORT for linux)
$ esptool --port COM13 erase_flash
$ esptool --port COM13 --baud 460800 write_flash -z 0 /path/to/your/downloaded/bootloader/combined.bin
Great, now click RESET button once, or just unplug and plug the board.
There should be a new drive detected by your computer, usually with the BOOT name or 'BOARD_NAMEBOOT'.
With bootloader installed:
Visit the CircuitPython Official Website and search for your board, the CircuitPython version that interests us is:
Download the .uf2 file and just copy or move it to the BOOT drive of the microcontroller.
This same drive should now be named CIRCUITPY, that means we have successfully installed CircuitPython.
- Clone this repository to your local drive:
$ git clone https://github.com/FLOCK4H/AtomDucky
-
Move all files from AtomDucky folder, or AtomDucky_no_ble folder for boards without BLE module, excluding README.md, to the CIRCUITPY drive.
-
Press RESET button once, or plug the device again.
Voila, the AtomDucky is ready to use, and it should already create an Access Point
-
The LED on the board should signal whether the device is starting (yellow light) or has initialized successfully (cyan light).
-
We need to join the Access Point hosted by our device, ESSID of the network is Atom Ducky, and it should have no encryption.
- Open the web browser and navigate to http://10.0.0.15
- Click on a white hamburger dropdown menu and select
Setup
- Configuration:
- Access Point IP address, we do not need to change it at all, so just press
Next
whenever you're ready. - SSID is either your local Network SSID or Atom Ducky Access Point SSID, if you want to pair with existing network, you need to provide its SSID.
- Password, can be left empty, can be set, or in case of pairing with existing network - we must provide correct password.
- Device Mode, there are two, first is
NORMAL
, second isRUBBER
. The difference is thatRUBBER
mode will inject the payload fromatoms/payload.txt
before the initialization of the web interface. - AP Mode, leave
TRUE
for the Atom Ducky access point, or necessarily change toFALSE
if you are connecting it to your network.
Click Save
button, this will save the config to atoms/_config
file and restart the board.
Connecting Atom Ducky to your network will result in different IP address assigned to the device (and this address may change irregularly), without this address, it's not possible to open the web interface. One may find the new IP address on network's config website in e.g. Attached Devices
subpage.
The hostname is ATOM-DUCKY
After plugging the Atom Ducky into a device supporting HID (computer, smartphone etc.), we want to open the web interface (open web browser and go to the IP address of Atom Ducky).
Web interface buttons:
- Inject Payload - :)
- Modify Payload - Modify and save the payload
- Live Keyboard - Open keyboard layout, press keys to send them
- Single Payload - Compose and send a single payload (not affecting payload.txt)
- Templates Manager - Add, modify and run payloads
- Rubber Mode - Toggle Rubber Mode (Rubber Mode does inject the payload before the web interface is initialized)
In the hamburger dropdown menu, there is a Settings
page where we can modify _config
file easily.
The BLE section is fully additional, and it contains functions that when launched can crash/ freeze iOS devices, or disrupt others in using their iOS/Samsung phones.
- Sour Apple - SourApple
- Samsung BLE Spam - ble-spam-samsung-circuitpy
The syntax is inherited from NeoDucky project.
Let's write a simple payload with Hello World!
atoms/payload.txt
Hello World!
Now let's run it in loop:
One liner
Hello <time1>World<time1><LOOP>
Multiple lines
Hello<time2> ;
World<time1>!;
<LOOP>;
Notice the semicolon use, it has to be at the end of the line in multi-line payloads
-
'timeX' - where X is the amount of time to sleep (can be float e.g. 0.1 or XXX number like 360)
-
'LOOP' - as one of special tags, when used will repeat the operation over and over, it has a near second cooldown to reduce eventual damage
Caution
Be very careful when using tag, as it may result in inpredictable and irreversible damage.
Keycodes are mostly single character format so "A" = "A" but there are exceptions:
- "\n" is used as 'jump into newline' or RETURN key, use tag instead to simulate its press
- "\t" a tab or four spaces are taken as a TAB key and will return four spaces, use tag instead to simulate its press
Used to perform specific actions in the payload, there are two types of tags:
1. Single
- The button that was pressed is automatically released before the next payload character is sent
<ESC> - ESCAPE,
<BSC> - BACKSPACE,
<TAB> - TAB,
<SCR> - PRINT SCREEN,
<SLK> - SCROLL LOCK,
<PAS> - PAUSE,
<INS> - INSERT,
<HOE> - HOME,
<PGU> - PAGE UP,
<PGD> - PAGE DOWN,
<ARR> - ARROW RIGHT,
<ARL> - ARROW LEFT,
<ARD> - ARROW DOWN,
<ARU> - ARROW UP,
<NLK> - NUMLOCK,
<APP> - APPLICATION,
<PWR> - macOS only,
<GUI> - WINDOWS KEY,
<CMD> - WINDOWS KEY,
<WIN> - WINDOWS KEY,
<CTL> - LEFT CONTROL,
<SPC> - SPACEBAR,
<RET> - RETURN/ ENTER
2. Multi
- Button is only released when it meets a sibling tag ("<LSHT>a<LSHT>a" will output 'Aa')
<CTRL> - Left Control
<LALT> - Left Alt
<CTRR> - Right Control
<RALT> - Right Alt
<GCMD> - GUI/Command
<LSHT> - Left Shift
<RSHT> - Right shift
<CAPS> - Capslock
<LOOP> - Run in loop
<timeX> - sleep for X time
<GUI><time2>chrome<time2>\n<time2>www.youtube.com<time1><RET><time5><CTRL>w<time1>
- First step in debugging any microcontroller is to open the serial monitor, we can do that using tools like
screen
,putty
, or insideThonny
IDE. - If the computer cannot detect the board's drive, is unable to read/write, or the drive name changed we need to:
- Reset the board by plugging again
- Follow Installing CircuitPython section in order to erase flash, write, and move .uf2 file.
- Optional: If you are unable to complete the above steps, please search for a complete reset of your microcrontroller.
- If web interface loads forever or fails to load, it's most probably also the drive issue and can be fixed by reinstalling (follow point 2).
Official CircuitPython Troubleshooting
Feel free to contribute to this repository, as it's completely open-source. Steps to open a pull request:
- Fork the project
- Download your fork to your local drive
- Make changes
- Open Pull Request
- :)
MIT
THE SOFTWARE IS PROVIDED “AS IS”, WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.