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Tufty 2040 + Accessory Kit
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A hackable, programmable badge with 2.4" (320 x 240) TFT LCD colour display, powered by Raspberry Pi RP2040. We've had a lot of requests for a LCD version o...
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A hackable, programmable badge with 2.4" (320 x 240) TFT LCD colour display, powered by Raspberry Pi RP2040.
We've had a lot of requests for a LCD version of Badger 2040 so tada - meet our pal Tufty. In a nutshell, we've combined a RP2040 microcontroller with a nice, crisp LCD screen to make a snazzy, colourful programmable badge - perfect for identifying/expressing yourself at cybernetic conferences, illicit undersea research facilities or dodgy space station bars. Don't limit yourself to hanging it round your neck (or tail) though, use it as a sleek display/control panel for sensor readouts, a photo frame for digitally generated art or for making/playing small games. Perhaps you could even have a crack at making it play Doom?
Tufty comes fully loaded with a quintet of buttons so you can easily change what's displayed on the screen, a slot so you can clip it onto a lanyard and a light sensing phototransistor, which can be used to adjust the brightness of the screen automatically. On the back, you'll find a ✨majestic cyberpunk squirrel✨, a battery connector (with a nice wide input voltage) and the usual RP2040 old chestnuts - boot and power on/off buttons and a Qw/ST connector for attaching breakouts.
You can pick up a Tufty on its own, or for a bit more cashew can get a handy Tufty + Accessory Kit with a lanyard, AAA battery pack and USB cable.
Features
- 2.4" colour IPS LCD display (320 x 240 pixels)
- Driver IC: ST7789v
- Connected via parallel
- Dimmable backlight (adjustable via PWM)
- Powered by RP2040 (Dual Arm Cortex M0+ running at up to 133Mhz with 264kB of SRAM)
- 8MB of QSPI flash supporting XiP
- Phototransistor for light sensing
- Five front user buttons
- Power and boot buttons (the boot button can also be used as a user button)
- White LED
- USB-C connector for power and programming
- JST-PH connector for attaching a battery (input range 3V - 5.5V)
- High-precision voltage reference for battery level monitoring.
- Qw/ST (Qwiic/STEMMA QT) connector
- Fully-assembled (no soldering required)
- Schematic
- Dimensional drawing
- C++/MicroPython libraries
Tufty + Accessory Kit includes
- Tufty 2040
- 3 x AAA battery holder
- 3 x AAA batteries
- Velcro square
- Black lanyard (made from recycled plastic bottles!)
- USB-C to USB-A cable
Software
You can program Tufty with C/C++ or MicroPython. You'll get best performance using C++, but if you're a beginner we'd recommend using our batteries included MicroPython build for ease of getting started. We've preloaded Tufty with a demo reel of fun examples to show you what it can do!
- Download Pirate brand MicroPython (special Tufty edition)
- Getting Started with Tufty 2040
- C++ examples
- MicroPython examples
- PicoGraphics function reference
The display functions in our new improved PicoGraphics library have been given a glow up - be sure to check them out! You can now:
- render JPEGs
- display QR codes
- draw weird polygonal shapes
- import sprites from a spritesheet
- use custom colour palettes (saving valuable RAM)
CircuitPython support is coming soon!
Connecting Breakouts
The Qw/ST connector on Tufty 2040 makes it super easy to connect up Qwiic or STEMMA QT breakouts. If your breakout has a QW/ST connector on board, you can plug it straight in with a JST-SH to JST-SH cable.
Breakout Garden breakouts that don't have a Qw/ST connector can be connected using a JST-SH to JST-SH cable plus a Qw/ST to Breakout Garden adaptor. Want to use multiple breakouts at the same time? Try this adaptor!
- List of breakouts currently compatible with our C++/MicroPython build.
Notes
- Measurements: 65.2mm x 52.7mm x 9.6mm (L x W x H, including connectors). The mounting holes are M2 and 2.9mm in from each edge. The corner radius is 3mm.
- We've designed Tufty 2040 to be accommodating about input voltage (3V - 5.5V), so it's possible to use a variety of different batteries and battery packs. We'd recommend using a 3x AAA battery pack which should give you maximum juice whilst still fitting behind Tufty nicely.
- A 2x AAA battery pack will only work well if you use non-rechargeable batteries - the voltage from 2 rechargeable (NiMH) batteries (2.4V) is just not enough for the screen.
- Tuftys are hungrier than Badgers! Power consumption is around 80mA for the screen (at full brightness) and 20mA for the RP2040 - so 100 mA total. Tufty has a toggle power on / off button (instead of a reset button) to make it easy to turn it off to preserve power, and setting the backlight to dim/turn off automatically will also make your batteries last much longer.
- Alternatively, you can plug a LiPo/LiIon battery into the battery connector, with the following caveats. Please only consider this if the person wearing the badge is an adult and knows what they're doing with LiPos!
- A solid enclosure or backplate to protect the battery from damage whilst being worn is a very good idea (or you could use one of our Galleon hard case LiPo batteries).
- There's no battery protection included on Tufty 2040, so you should only use it with LiPo batteries that include internal protection (all ours do).
- Unlike some of our other boards, Tufty 2040 doesn't have battery charging circuitry onboard. You'll need an external LiPo charger to charge the battery (like a LiPo Amigo).
- Sciurus Cybernetics employees should be careful when eating their last nut, in order to avoid kernel panic.
About RP2040
Raspberry Pi's RP2040 microcontroller is a dual core ARM Cortex M0+ running at up to 133Mhz. It bundles in 264kB of SRAM, 30 multifunction GPIO pins (including a four channel 12-bit ADC), a heap of standard peripherals (I2C, SPI, UART, PWM, clocks, etc), and USB support.
One very exciting feature of RP2040 is the programmable IOs which allow you to execute custom programs that can manipulate GPIO pins and transfer data between peripherals - they can offload tasks that require high data transfer rates or precise timing that traditionally would have required a lot of heavy lifting from the CPU.
Jargon buster
Plain-language definitions for the technical terms used above.
- ADC
- An analogue-to-digital converter reads a changing voltage and turns it into a number the microcontroller can use. It matters when connecting analogue sensors such as light, sound, or variable-resistor sensors.
- breakout
- A breakout is a small circuit board that makes a tiny or hard-to-solder component easier to connect to with standard pins. It matters because this OLED module can be wired into a microcontroller project without needing to solder directly to the display’s fine contacts.
- CircuitPython
- A beginner-friendly version of Python designed to run directly on microcontroller boards. If a product supports CircuitPython, you can often program it by copying code files onto the board rather than setting up a more complex toolchain.
- GPIO
- General-purpose input/output pins are microcontroller pins you can set in software to read signals, switch devices on and off, or connect to peripherals. The number of GPIO pins matters because it limits how many buttons, LEDs, sensors, and other parts you can wire directly to the board.
- I2C
- I2C is a two-wire communication bus used by many sensors and small modules. It matters because several I2C devices can share the same two wires, but each device needs a compatible address and your controller must support I2C.
- IPS
- IPS is a type of LCD panel that keeps colours and contrast more consistent when viewed from an angle. This matters for small displays that may be mounted in a dashboard, handheld project, or enclosure where the viewer is not always looking straight on.
- LCD
- LCD stands for liquid crystal display, a screen technology that uses a backlight and liquid crystals to show images or text. It matters because LCD modules usually need a display driver and enough controller pins or a bus interface to send image data.
- LED
- A light-emitting diode is a small electronic component that lights up when current flows through it in the correct direction. In this kit, LEDs create the flashing effect, so polarity and correct soldering matter for the project to work.
- LiPo
- A lithium polymer rechargeable battery commonly used in portable electronics projects. It matters because LiPo batteries need correct charging circuitry and care, and this board includes hardware intended for that battery type.
- microcontroller
- A microcontroller is a small computer on a chip that runs your program and controls connected inputs and outputs. For this product, it is the part that reads buttons and sensors, drives the display and speaker, and communicates over Bluetooth.
- MicroPython
- A version of the Python programming language made to run on microcontrollers. It matters because it lets beginners write readable code to control LEDs, sensors, motors and displays without needing to start with lower-level languages.
- pH
- A measure of how acidic or alkaline a liquid is, on a scale where 7 is neutral. For a water monitoring kit, pH tells you about water chemistry and whether the included probe matches the range and accuracy your project needs.
- phototransistor
- A light-sensitive transistor that changes its electrical output when light hits it. Compared with a modulated IR receiver, a simple phototransistor can be more affected by ambient light, so it may need extra filtering or careful setup.
- PWM
- Pulse Width Modulation is a way for a digital pin to simulate variable output power by switching on and off very quickly. It matters for controlling things like LED brightness, motor speed, or servo-style signals from a microcontroller pin.
- Qwiic
- Qwiic is a plug-in connector system for I2C devices that uses small 4-pin cables, so you can connect compatible sensors without soldering. It matters because your controller or adapter also needs Qwiic, or you will need a cable or breakout to wire it up.
- RAM
- RAM is temporary memory used while a device is running, and its contents are lost when power is removed. A “Run in RAM” mode is useful for testing settings without permanently programming the module, but it may not support every feature.
- RP2040
- A microcontroller chip used on many maker boards, with enough speed and flexible I/O for some camera and display projects. Compatibility with RP2040 matters because camera modules often need many pins and careful timing to read image data successfully.
- SPI
- A fast serial communication bus often used for displays, memory cards, and sensors. It matters because SPI devices need specific pins for clock and data, plus a separate chip-select line for each device.
- SRAM
- Fast temporary memory used by a processor while a program is running. More SRAM helps with projects that handle larger data buffers, networking, displays, or more complex code.
- STEMMA QT
- A small plug-in connector system for I2C boards that lets you connect compatible sensors and controllers without soldering. It matters because it can make wiring faster and less error-prone, especially when adding several small modules to a project.
- TFT
- A thin-film transistor display is a common type of colour LCD used for graphics screens. Knowing a product is for TFTs helps you check that the driver board matches the display’s connector, resolution, backlight, and signalling method.
- UART
- UART is a simple serial connection that sends data over separate transmit and receive wires, often labelled TX and RX. It matters because this module is designed to replace a wired UART cable with a wireless link while keeping the same serial data format.
- USB-C
- A modern reversible USB connector used for power and data connections. On this product it matters because it can connect directly to a computer as well as to a microcontroller project.
- voltage reference
- A stable voltage the ADC compares inputs against when converting them to numbers. A more stable reference helps produce more consistent measurements, especially in precision sensing and instrumentation.
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