LTR-559 Light and proximity sensor breakout

PCIe Flex Kabel für NVMe Base und Raspberry Pi 5 – PCIe Pipe 50mm Diese Kabel bieten eine Vielzahl von Optionen für das Verbinden und Platzieren Ihrer NVMe Base oder NVMe Base Duo. Sie haben ein "Einweg"-Design mit 16 Pads am Ende des Raspberry Pi 5 und 18 Pins am Ende der NVMe Base, um eine falsche Installation zu verhindern. Sie sind für PCIe Gen 3 Geschwindigkeiten ausgelegt und unterstützen auch Gen 2 perfekt. Das 50mm PCIe Pipe bleibt dabei aber spezifikationskonform, sodass Sie Ihre NVMe Base bequemer um ein bestehendes Pibow oder anderes Gehäuse herum montieren können, oder es oben/neben Ihrem RPi 5 mit einer breiteren Palette von mechanischen Setups montieren können. Merkmale im Überblick: "Einweg"-Design: Verhindert falsche Installation durch unterschiedliche Pin-Anordnungen an den Enden. PCIe Gen 3 Geschwindigkeiten: Ausgelegt für hohe Übertragungsgeschwindigkeiten, kompatibel mit Gen 2. Technische Daten Kabeltyp: PCIe Flex Kabel Unterstützte Generationen: PCIe Gen 3, kompatibel mit Gen 2 Länge: 50mm  Pin-Anordnung: 16 Pads (RPi 5 Ende), 18 Pins (NVMe Base Ende) Sonstige Daten Einweg-Design zur Vermeidung von Installationsfehlern Flexibilität in der Platzierung der NVMe Base oder NVMe Base Duo Lieferumfang PCIe Flex Kabel (50mm)

Pimoroni Yukon, Nur Host Eine leistungsstarke modulare Robotik- und Ingenieursplattform, gebaut um den RP2040 und entwickelt, um die anspruchsvollsten Roboter, Requisiten und Geräte anzutreiben. Das Alleskönner-Board Yukon ist ein eigenständiger Controller, der mit bis zu sechs austauschbaren Modulen ausgestattet werden kann, die leistungsstarke Hardware antreiben – ermöglicht durch die einzigartigen Pin-Funktionen des vielseitigen RP2040-Chips von Raspberry Pi. Diese Flexibilität bedeutet, dass Sie viele einzigartige Kombinationen von Motoren, Servos, Schrittmotoren, Lautsprechern, LED-Streifen und mehr von einem einzigen Yukon-Host aus steuern können!* Um Yukon-Kreationen abenteuertauglich zu machen, wird jedes Modul festgeschraubt, um eine solide mechanische und elektrische Verbindung zu gewährleisten. Yukon zusammenbauen Große Elektronikprojekte können oft viel Löten, Verkabeln und andere komplizierte Montagetechniken beinhalten, aber nicht bei Yukon! Der Host-Board und die Module verwenden lötfreie Steckverbinder, wo immer möglich, sodass es schnell und einfach ist, loszulegen, und einfach, Komponenten auszutauschen, wenn nötig. Yukon mit Strom versorgen Die externe Stromversorgung von Yukon ist dank seines kräftigen XT30-Anschlusses einfach, der es ermöglicht, 2- bis 4-Zellen-Lithium-Polymer-(LiPo-)Batterien (oder jede andere Quelle von 5V bis 17V) anzuschließen, um bis zu 15A Dauerstrom für Ihre Hochleistungsprojekte zu liefern. Yukon programmieren Yukon wird von einer umfassenden MicroPython-Bibliothek mit ganzen 50 (!) Beispielen unterstützt, die zeigen, wie die einzelnen Funktionen des Boards und aller seiner Module genutzt werden können. Es gibt auch voll ausgestattete Showcase-Beispiele, die zeigen, wie Yukon verwendet werden kann, um einen ferngesteuerten Rover, einen Spinnenpanzer und einen Stiftplotter zu bauen. Merkmale im Überblick Angetrieben von RP2040 (Dual Arm Cortex M0+ mit bis zu 133MHz und 264kB SRAM) 16MB QSPI-Flash mit XiP-Unterstützung 6 x Steckplätze für Hochleistungsmodule E-Fuse mit umschaltbarem Ausgang (40A Überstrom- und 18V Überspannungsschutz) XT30-Anschluss für V+ und Logikstrom (5 bis 17V, 15A kontinuierlich) USB-C für Programmierung und Logikstrom Ein-/Ausschalter 3 x Benutzerknöpfe 2 x Power- und 2 x Benutzer-LEDs 2 x Qw/ST-Anschlüsse zum Anschließen von Breakouts Interne Spannungs-, Strom- und Temperatursensoren Vollständig montiert M2-Schrauben zum Befestigen von Modulen Gummifüße MicroPython-Firmware und Bibliothek Technische Daten Maße: 84mm x 67mm x 14mm (L x B x H) Lieferumfang 1x Yukon Host (plus Schrauben und Füße) Diverse Module und Komponenten Über Yukon Yukon ist eine leistungsstarke modulare Robotik- und Ingenieursplattform, die um den beeindruckenden RP2040-Chip von Raspberry Pi herum aufgebaut ist. Sie bietet Steckplätze zum Anbringen austauschbarer Hardwaremodule für den Antrieb verschiedener Geräte wie Motoren, Servos, Schrittmotoren und LED-Streifen – alles von einem Board aus!

A handy little LCD to add displays to your projects. This 0.96-inch SPI LCD has a 2:1 widescreen aspect ratio, has wide viewing angles (IPS) and works with Raspberry Pi or Arduino. The display is great for displaying goodies like timers, clocks, sensor readings and more. Why not also display the IP address of a headless Raspberry Pi so you don't have to connect a full display or fiddle with nmap? Despite being so tiny, this LCD is a beautiful little display. It's bright, has great resolution and, because it's an IPS panel, it has wide viewing angles and looks great no matter how you look at it.It's driven by SPI and you should be able to run it at up to ~50FPS, although we've found that anywhere from 10FPS looks good for most applications. You can use this breakout completely solderless with our new Breakout Garden HAT with SPI! Features 0.96" colour LCD (160x80 pixels) SPI interface 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Display specifications 160x80 pixels (~190 PPI) 10.8x21.7mm active area 400cd/m2 Luminance 800:1 Contrast ratio 160° viewing angle (horizontal and vertical) ST7735S driver chip Software We have customised an existing Python library to control this display. The library makes it easy to display images, text or graphics, and even animated GIFs! There is a one-line installer to set up the library for you. Simply open a terminal and type: curl https://get.pimoroni.com/st7735

A sharp, bright 1.12" OLED that is ideal for adding a small display to your project. This 128x128 pixel monochrome white/black display is ideal for graphics, displays and simple icons. Now also available as SPI or I2C version! Our 1.12" OLED breakout is now available as SPI or I2C version. If you have SPI available on your microcontroller, we recommend the SPI version as you can drive it much, much faster for buttery smooth animations. OLEDs have the advantage of being extremely bright, easy to read and high contrast. As it's small, it fits well into projects where space is at a premium, and it's Raspberry Pi and Arduino compatible! For the I2C version, we've included a trace that can be cut to change the I2C address from 0x3C to 0x3D if you want to use two I2C OLEDs at the same time! It's compatible with our fancy breakout garden HAT, where using breakouts is as easy as plugging it into one of the six slots, creating projects and coding. Features 1.12" white/black OLED display (128x128 pixels) Uses the SH1107 driver chip 20x20mm active area SPI or I2C (address 0x3C/0x3D (cut trace)) interface 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Kit includes 1.12" OLED display breakout 1x5 (I2C) or 1x7 (SPI) pin header 1x5 right angle female header (only included with I2C version) For the I2C version, you can solder the piece of right angle female header and plug it directly onto the bottom left 5 pins of the GPIO header of your Raspberry Pi (pins 1, 3, 5, 7, 9). For the SPI version, either plug it into one of the SPI sockets of Breakout Garden or connect it with wires to the following pins on your Pi(note that this is the BCM pin numbering): 3-5V to any 5V or 3V pin CS to BCM 7 SCK to BCM 11 MOSI to BCM 10 DC to BCM 9 GND to any ground pin Software We recommend the Luma Python library for controlling this OLED display. A complete documentation of the Luma library can be found here. To get started: Install the latest library directly from GitHub: sudo pip install git+git://github.com/rm-hull/luma.oled.git#egg=luma.oled Dig the repository for the examples: git clone https://github.com/rm-hull/luma.examples With the SPI version, you can run an example as follows: python3 bounce.py --display sh1106 --height 128 --rotate 2 --interface spi --gpio-data-command 9 (add --spi-device 0 for the rear slot, or --spi-device 1 for the front slot) With the I2C version, you can run an example as follows: python3 maze.py --display sh1106 --height 128 --rotate 2 --interface i2c Our software does not support Raspbian Wheezy. Notes Dimensions: 28x42x5.5mm.

Crisp, high-resolution and with great viewing angles (IPS), this 1.3-inch square 240x240 pixel colour LCD will spice up your Raspberry Pi or Arduino projects. The square form factor of this display makes it perfect for putting lots of information on it - data, graphs, even things like album covers and photos. Like our smaller 0.9" LCD breakout, this is also an IPS display, so it has great viewing angles and is super sharp and bright. It's driven via SPI and you should be able to run it at up to ~50FPS, although we've found that 10FPS looks good for most applications. You can use this breakout completely solderless with our Breakout Garden HAT with SPI! Features 1,3"" Colour LCD (240x240 pixels) SPI interface 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Display specifications 240x240 pixels (~260 PPI) 23.4x23.4mm active area 250m2 Luminance 800:1 Contrast ratio 160° viewing angle (horizontal and vertical) ST7789V driver chip Software We have customised an existing Python library to control this display. The library makes it easy to display images, text or graphics and even display animated GIFs! Connecting to your Raspberry Pi If you are not using our Breakout Garden HAT with SPI, then you can connect your LCD breakout to your Raspberry Pi as follows. Our Python library is set to use SPI 1 on the Pi by default (BCM 7 for CS, BCM 11 for SCK and BCM 10 for MOSI), BCM 9 for DC and BCM 19 for the backlight. Here is which pins you need to connect between your 0.96"" LCD breakout and your Pi's GPIO (note that this is BCM pin numbering) : 3-5V to any 5V or 3V pin CS to BCM 7 SCK to BCM 11 MOSI to BCM 10 DC to BCM 9 BL to BCM 19 GND to any ground pin You can of course also use other pins with your LCD breakout, but you must change them accordingly when instantiating the display in your code. Notes Dimensions: 41.2x26.6x5.5mm

A tiny, densely packed matrix of 77 individually controllable bright white LEDs. Ideal for scrolling text, animations, bar charts or just general lighting, and it's Raspberry Pi and Arduino compatible. This tiny white LED matrix has 77 pixels on a board the size of a postage stamp! The brightness of each LED can be individually controlled, meaning you can display all kinds of cool text, animations and more on it. Like our other breakouts, this one simply plugs onto the pins of your Pi after soldering on the included right-angle female header, and we've included a trace that can be cut to change the I2C address from 0x75 to 0x77 if you want to use two matrices at once! It's compatible with our fancy breakout garden HAT, where using breakouts is as simple as plugging it into one of the six slots, creating projects and coding. Features 11x7 (77 total) bright white LEDs Utilises the IS31FL3731 driver chip 22x14mm active area 2mm LED spacing I2C interface (address 0x75/0x77 (interface track)) 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Kit includes 11x7 LED matrix breakout 1x5 pin header 1x5 female right angle header We have designed this breakout board so that you can solder the piece of right-angled header and plug it directly into the bottom left 5 pins of the GPIO header on your Raspberry Pi (pins 1, 3, 5, 7, 9). Software We've put together a Python library to make controlling the 11x7 LED Matrix Breakout really easy, along with a handful of examples to show what it can do. Our software does not support Raspbian Wheezy. Notes Dimensions: 23x25x3mm.

This super-cute 5x5 RGB LED matrix breakout is a nice way to visualise sensor data or for simple animations or notifications, and it's Raspberry Pi and Arduino compatible. These little matrices are ideal for visualising data from other Pimoroni breakouts in a breakout garden HAT, such as displaying environmental data from our BMP280 or BME680 breakouts. Or why not use two together as headlights or brake lights for your Pi powered vehicle? Like our other breakouts, this one simply plugs onto the pins of the Pi after you've soldered on the included angled female header, and we've included a trace that can be cut to change the I2C address from 0x74 to 0x77 if you want to use two matrices at once! It's compatible with our fancy breakout garden HAT, where using breakouts is as easy as plugging it into one of the six slots, creating projects and coding. Features 5x5 (25 in total) RGB LEDs Utilises the IS31FL3731 driver chip 15x15mm active area 3.5mm LED pitch I2C interface (address 0x74/0x77 (interface track)) 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Kit contains 5x5 RGB matrix breakout 1x5 pin header 1x5 female right angle header We have designed this breakout board so that you can solder the piece of right-angled header and plug it directly into the bottom left 5 pins of the GPIO header on your Raspberry Pi (pins 1, 3, 5, 7, 9). Software We've put together a Python library to make driving the 5x5 RGB matrix breakout really easy, along with a handful of examples to show what it can do. Our software does not support Raspbian Wheezy. Notes Dimensions: 19x29x3.5mm.

This ADS1015 ADC (analogue-to-digital converter) breakout has three channels that can read voltages from -24V to +24V at sample rates up to 3.3KHz with 12-bit resolution. It is Raspberry Pi and Arduino compatible and ideal for measuring DC voltages quickly and accurately over a wide voltage range. It is compatible with our stylish Breakout Garden HAT, where using breakouts is as simple as plugging it into one of the six slots, creating projects and coding. Features ADS1015 ADC(datasheet) 12-bit precision +/- 24V (DC) Measuring range Three channels Programmable gain Sampling rate up to 3.3KHz I2C interface (address 0x48/0x49 (cut trace)) 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Kit includes ADS1015 ADC Breakout Two 1x5 pin headers Two right-angled 1x5 female headers We have designed this breakout board so that you can solder the piece of right-angled female header and plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 6, 9). Software We have put together a Python library that you can use to read data from your ADS1015 ADC breakout, as well as a simple one-line installer to get everything installed. Our software does not support Raspbian Wheezy. Notes Dimensions: 24x21x2.75mm

A super-simple, slim way to connect a 3W speaker to your Raspberry Pi! Output punchy digital I2S audio while keeping your GPIO pins conveniently accessible. This SHIM has a clever friction-fit header that simply slides over the GPIO pins, requires no soldering* and is easy to remove. The MAX98357A combined DAC/amplifier chip takes high-quality digital audio signals from your Pi and amplifies them so they can be used with an unpowered speaker. The connectors make it easy to connect your speaker whether it's a bookshelf or floorstanding speaker, the speaker in an old radio or a teeny tiny mini speaker like the ones we sell here. As the Audio Amp SHIM adds no extra bulk to your Pi, it's perfect for fitting into a compact case - you could use it to build a tiny MP3 player to play local files or stream from services like Spotify to , add the ability to play digital radio streams to an old radio, or add bleepy sounds to your very own retro handheld. It's also a handy way to add an audio output to your Pi Zero or Pi 400! Please note that Raspberry Pis and speakers are not included with this board - check the extras section for compatible devices! Features MAX98357A DAC / amplifier chip(datasheet) Mono 3W audio output Push-fit speaker connectors SHIM format board with friction-fit connectors 2 mounting holes (M2.5) in case you want to fix everything with screws Fully assembled No soldering required (*unless you are using a Pi that comes without headers) Compatible with all Raspberry Pi models with 40-pin header Dimensions: 63.3 x 15.2 x 5.4mm (including speaker connector) Software The easiest way to set everything up is to use Pirate Audio software and installer, which configures I2S audio and SPI, as well as installing Mopidy and our customised Pirate Audio plugins that allow you to stream Spotify and play local files. Here's how to get started: Set up an SD card with the latest version of Raspberry Pi OS. Connect to Wi-Fi or a wired network. Open a terminal and type the following: gitclone https://github.com/pimoroni/pirate-audio cdpirate-audio/mopidy sudo./install.sh Restart your Pi You can find more detailed instructions here: https://github.com/pimoroni/pirate-audio/tree/master/mopidy or much more information in the tutorial "Getting started with Pirate Audio". Alternatively, if you don't want to install all the Mopidy stuff, you can set Audio Amp SHIM as your default Alsa device in Raspberry Pi OS by adding the following lines to your /boot/config.txt file: dtoverlay= hifiberry-dac gpio= 25=op,dh If you are using a Pi that has an audio jack, you may also need to disable onboard audio by adding a # at the beginning of the following line (this can help applications find the correct audio device automatically) #dtparam= audio=on Notes You can use an audio amp SHIM with HATs and mini-HATs without booster headers as long as they don't have any chunky components on the bottom (it's a good idea to check that there are no metal components on the bottom of your HAT touching the metal components on the top of the SHIM). If you want to use it with a Pibow Coupé enclosure (either for the Zero / Zero W or the Pi 4), you will need to use a booster header to raise it a little. If you plan to use the Audio Amp SHIM to add an audio output to your Pi 400, you will also need a booster header. If you connect the SHIM directly to the back of the Pi 400, note that the SHIM should be upside down, with the mounting holes facing down. Alternatively, you can also connect it via a flat HAT hacker (in this case you do not need a booster header and do not have to connect anything upside down). The maximum cable diameter for the connectors is 0.75 mm² (1 mm diameter, 18 AWG). You will need tinned ends on your speaker cables so that they are stiff enough to be plugged into the connectors. The Audio Amp SHIM uses GPIO 18, 19 and 21 (as well as 3.3 V, 5 V and various ground connections). If you want to use it in conjunction with other boards, you must check for pin conflicts using pinout.xyz.

A super-simple, slim way to connect a hi-fi amplifier or powered speakers to your Raspberry Pi ! Output punchy I2S digital audio while keeping your GPIO pins conveniently accessible. This SHIM has a clever friction-fit header that simply slides over the GPIO pins, requires no soldering* and is easy to remove. The PCM5100A DAC chip takes high quality digital audio from your Pi and outputs it at 24 bit / 192 KHz in stereo via the 3.5mm jack. As the Audio DAC SHIM adds no extra bulk to your Pi, it is perfectly suited to be housed in stylish cases or hidden away in hi-fi equipment, media centres or radios - so you can play music or stream digital radio through the still perfectly functioning sound system. It's also a handy way to add an audio output to your Pi Zero or Pi 400! Please note that a Raspberry Pi is not included with this board Features PCM5100A DAC chip(datasheet) Digital audio at line level (24-bit / 192KHz) via I2S 3.5mm stereo jack Board in SHIM format with friction-fit connections 2x mounting holes (M2.5) if you want to fix everything with screws Fully assembled No soldering required (*unless you are using a Pi that comes without headers) Compatible with all Raspberry Pi models with 40-pin header Dimensions: 66.5 x 16.2 x 5.2mm (including 3.5mm jack) Software The easiest way to set everything up is to use Pirate Audio software and installer, which configures I2S audio and SPI, as well as installing Mopidy and customised Pirate Audio plugins that allow you to stream Spotify or play local files. Here's how to get started: Set up an SD card with the latest version of Raspberry Pi OS. Connect to Wi-Fi or a wired network. Open a terminal and type the following: gitclone https://github.com/pimoroni/pirate-audio cdpirate-audio/mopidy sudo./install.sh Restart your Pi You can find more detailed instructions here: https://github.com/pimoroni/pirate-audio/tree/master/mopidy or much more information in the tutorial "Getting started with Pirate Audio". Alternatively, if you don't want to install all the Mopidy stuff, you can set Audio Amp SHIM as your default ALSA device in Raspberry Pi OS by adding the following lines to your /boot/config.txt file: dtoverlay= hifiberry-dac gpio= 25=op,dh If you are using a Pi that has an audio jack, you may also need to disable onboard audio, by adding a # at the beginning of the following line (this can help applications find the correct audio device automatically): #dtparam= audio=on Notes You can use an audio DAC SHIM with HATs and mini-HATs without booster headers as long as they don't have any chunky components on the bottom (it's a good idea to check that there are no metal components on the bottom of your HAT touching the metal components on the top of the SHIM). If you want to use it with a Pibow Coupé case (either for the Zero / Zero W or the Pi 4), you will need to use a booster header to raise it a little. If you plan to use the Audio DAC SHIM to add an audio output to your Pi 400, you will also need a booster header. If you plug it directly into the back of the Pi 400, note that the SHIM should be upside down, with the mounting holes facing down. Alternatively, you can connect it via a flat HAT hacker (in this case you do not need a booster header and do not have to connect anything upside down). The Audio DAC SHIM uses GPIO 18, 19 and 21 (as well as 5V and various grounds). If you want to use it in conjunction with other boards, you need to check for pin conflicts with pinout.xyz.

An all-in-one controller with Pico W power supply for industry and automation with 2.4 GHz radio link, relays and a variety of inputs and outputs. Compatible with 6V to 40V systems. Automation 2040 W is a Pico W / RP2040 powered monitoring and automation board. It includes all the great features of our Automation HAT (relays, analogue channels, power outputs and buffered inputs) but now in a single compact board and with an extended voltage range so you can use it with more devices. It's great for controlling fans, pumps, solenoids, large motors, electronic locks or static LED lighting (up to 40V). All channels (and the buttons) have an associated indicator LED so you can see at a glance what's happening with your setup, or test your programs without any hardware connected. We've even left some space to label whatever you've connected, whether it's piranha fish tanks, smart greenhouse sprinklers, elaborate homebrewing projects or Thunderbird-style garage door openers. Want to mount the board in a control cabinet or other electrical enclosure? DIN rail mounting clips will be available soon! Features Raspberry Pi Pico W on board Dual Arm Cortex M0+ runs with up to 133Mhz and 264kB SRAM 2MB QSPI flash with support for XiP Powered and programmable via USB micro-B 2.4GHz wireless connection 3 x 12-bit ADC inputs up to 40V 5 x digital inputs up to 40V 3 x digital sourcing outputs on V+ (supply voltage) 4A max. continuous current 2A max. current at 500Hz PWM 3 x relays (NC and NO terminals) 2A up to 24V 1A up to 40V 3.5mm screw terminals for connecting inputs, outputs and external power supply 2 x tactile buttons with LED indicators Reset button 2 x Qw/ST connectors for connecting breakouts M2.5 mounting holes Fully assembled No soldering required. C/C++ and MicroPython libraries Circuit diagram (coming soon) Specifications Board is compatible with 12V, 24V and 36V systems Requires a power supply of 6-40V Can supply 5V up to 0.5A for lower voltage applications Software Our C++/MicroPython libraries provide an easy way to interact with the functions on this board. You'll get the best performance with C++, but if you're a beginner, we recommend using our MicroPython build included in the batteries to get you started. Download Pirate Brand MicroPython Getting started with the Raspberry Pi Pico MicroPython examples Connecting breakouts The Qw/ST connectors on the Automation 2040 W make it super easy to connect Qwiic or STEMMA QT breakouts. If your breakout has a QW/ST connector on the board, you can connect it directly with a JST-SH to JST-SH cable. Breakout Garden breakouts that do not have a Qw/ST connector can be connected using a JST-SH to JST-SH cable and a Qw/ST to Breakout Garden adapter. Do you want to use >2 breakouts at the same time? Try it with this adapter! List of breakouts that are currently compatible with our C++/MicroPython build. Notes Do not use for switching mains voltages! Pico W Aboard Our new Pico W Aboard products come with an inbuilt Raspberry Pi Pico W. This means you get all the benefits of an RP2040 microcontroller - a fast dual-core ARM processor, a dynamic, growing ecosystem and a choice of different programming methods to experiment with. But the most exciting thing is that the Pico W has wireless connectivity, so your Pico/RP2040 devices can communicate with each other and the internet! Wireless is very new for Pico/RP2040 - be aware that things will evolve and change quickly! Software support (wireless examples, tutorials, CircuitPython support etc.) will take a while to catch up. If you are a complete beginner to Pico/RP2040, you may have a better experience with wireless if you wait until things have settled down a bit.

A slim industrial/automation controller with 2.4GHz radio powered by a Raspberry Pi Pico W. Compatible with 6V to 40V systems. Automation 2040 W Mini is a compact Pico W / RP2040 powered monitoring and automation board. It has many useful functions for controlling other electronic and industrial devices - analogue channels, powered outputs, buffered inputs and a relay. Perfect for controlling fans, pumps, solenoids, large motors, electronic locks or static LED lighting (up to 40V). All channels (and the buttons) have an associated indicator LED so you can see at a glance what's happening with your setup, or test your programs without any hardware connected. We've even left some space for labelling what you've connected, whether it's a hidden trapdoor to surprise your enemies, a coffee machine with associated API or a mechanism to remotely distribute treats to your pets (or family). Features Raspberry Pi Pico W on board Dual Arm Cortex M0+ running at up to 133Mhz and 264kB SRAM 2MB QSPI flash with support for XiP Powered and programmable via USB micro-B 2.4GHz radio link 3 x 12-bit ADC inputs with up to 40 V 2 x digital inputs up to 40V 2 x digital sourcing outputs on V+ (supply voltage) 4A max. continuous current 2A max. current at 500Hz PWM 1 x relay (NC and NO terminals) 2A up to 24V 1A up to 40V 3.5mm screw terminals for connecting inputs, outputs and external power supply 2 x tactile buttons with LED indicators Reset button 1 x Qw/ST connection for connecting breakouts M2.5 mounting holes Fully assembled No soldering required. C/C++ and MicroPython libraries Schematic Power supply The board is compatible with 12V, 24V and 36V systems Requires a power supply of 6-40V Can supply 5V up to 0.5A for lower voltage applications Software Our C++/MicroPython libraries provide an easy way to work with the features of this board. You'll get the best performance if you use C++, but if you're a beginner, we recommend using our MicroPython kit to get you started. Download Pirate Brand MicroPython (you will need the `picow` .uf2) Getting started with the Raspberry Pi Pico MicroPython examples MicroPython function reference C++ examples C++ Function Reference In our Getting Started Tutorial you will learn everything about the automation functions and how to programme them with MicroPython. Getting started with automation 2040 W Connecting breakouts The Qw/ST connector of the Automation 2040 W Mini makes it super easy to connect Qwiic or STEMMA QT breakouts. If your breakout has a QW/ST connector on the board, you can connect it directly with a JST-SH to JST-SH cable. Breakout Garden breakouts that do not have a Qw/ST connector can be connected with a JST-SH to JST-SH cable and a Qw/ST to Breakout Garden adapter. Do you want to use >2 breakouts at the same time? Try this adapter! List of breakouts that are currently compatible with our C++/MicroPython build. Notes Do not use for switching mains voltages! About Pico W Aboard Our new Pico W Aboard products come with an inbuilt Raspberry Pi Pico W. This means you get all the benefits of an RP2040 microcontroller - a fast dual-core ARM processor, a dynamic, growing ecosystem and a choice of different programming methods to experiment with. But the most exciting thing is that the Pico W has wireless connectivity, so your Pico/RP2040 devices can communicate with each other and the internet! Wireless is very new for Pico/RP2040 - be aware that things will evolve and change quickly! Software support (wireless examples, tutorials, CircuitPython support etc.) will take a while to catch up. If you're a complete beginner to Pico/RP2040, you may have a better experience with wireless if you wait until things have settled down a bit.

Automate your world with Automation HAT Mini! Monitor and control up to 24V systems and see their status on the gorgeous full colour display. Don't be fooled by its size - Automation HAT Mini packs a whole host of features. It has a relay, three buffered inputs, three outputs and three analogue inputs, all of which are 24V tolerant. Last but not least, it has a beautiful 0.96-inch colour IPS LCD to display the status of your systems. Automation HAT Mini is perfect for home automation projects, enabling your greenhouse to have smart sprinklers, scheduling fish feeding or controlling low voltage lighting systems. All inputs, outputs and the relay of Automation HAT Mini are 24V tolerant, and many low voltage systems in household appliances (and also in cars) operate at either 12V or 24V. Automation HAT Mini is a great way to monitor and control these. Use the buffered inputs to capture the on/off status of your devices, or get more granularity with the analogue inputs, which measure the input voltage with 12-bit accuracy. The sink outputs can draw a total of 500 mA across the three channels. For higher current loads you can use the relay, which tolerates up to 2A at 24V, and take advantage of the normally open or normally closed side, to get the correct failover status. On the bottom of the board is a female header with the correct pinout for Pimoroni breakout products. This opens up a whole range of nifty possibilities! Insert an I2C breakout extender into the header, then you can easily insert one of our breakouts. No soldering required! Use a light and proximity sensor LTR-559 to automatically switch on a device when it gets light or dark, or a temperature, pressure and humidity sensor BME280 that triggers at a certain temperature or humidity threshold. Features 0.96" colour LCD (160x80) 1 x 24V @ 2A relay (terminals NC and NO) 3 x 12-bit ADC @ 0-24V (ADS1015) (±2% accuracy) 3 x 24V tolerant buffered inputs 3 x 24V tolerant sink outputs 3.5 mm screw terminals Pimoroni breakout compatible pin header Panel in mini-HAT format Fully assembled (no soldering required) Compatible with all Raspberry Pi models with 40-pin header Dimensions: 65x30x16.8mm Notes The loads for the outputs should be switched on the ground side, i.e. 12/24V (from the supply) -> load -> output terminal -> ground (from the supply) The relay can tolerate up to 2A each and should be switched on the high side The sink outputs can draw a maximum of 500mA in total across the 3 outputs. Therefore, if you use a single channel, you can consume the entire 500 mA via this channel. The accuracy of the ADC is ±2%. Do not use for switching mains voltages!

A really nice environmental sensor that is ideal for monitoring temperature, pressure and humidity indoors or even outdoors in a suitable enclosure. It's Raspberry Pi and Arduino compatible. We use this sensor on our Enviro+ environmental monitoring board, but it's such a nice sensor we thought we'd put it on a breakout! The BME280 is a great sensor for monitoring conditions around your home. For iOS users, there is a Homebridge plugin for the BME280 that allows you to use the sensor for home automation and monitoring. It's compatible with our fancy breakout garden HAT, where using breakouts is as simple as plugging it into one of the six slots, creating projects and coding. Features Bosch BME280 Temperature, pressure, humidity sensor I2C interface, with address selection via ADDR solder bridge (0x76 or 0x77) 3.3V or 5V compatible Reverse polarity protection Raspberry Pi-compatible pin assignment (pins 1, 3, 5, 7, 9) Compatible with all models of Raspberry Pi and Arduino Python library Datasheet Kit contains BME280 breakout 1x5 pin header 1x5 right angle female header We have designed this breakout board so that you can solder on a right-angled female header and plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 6, 9). The right-angled header also has the advantage of positioning the breakout away from the Pi's CPU to minimise waste heat. Software We've put together a Python library for the BME280 sensor, with handy functions to read all the values, and some nice little examples of how to use it. Notes In our tests, we found that the sensor requires a certain burn-in time (at least 20 minutes) and that the readings take a few minutes to stabilise after measurements have started The solder pads (labelled ADDR) can be bridged to change the I2C address from the default 0x76 to 0x77, which means you can use up to two sensors on the same Raspberry Pi or Arduino The BME280, BME680 and BMP280 breakouts all share the same I2C addresses, so if you are using two together you will need to change the I2C address on one of them using the solder bridge/pads Dimensions: 19x19x2.75mm (LxWxH)

The state-of-the-art BME680 breakout allows you to measure temperature, pressure, humidity and indoor air quality and is compatible with Raspberry Pi and Arduino! Use this breakout to monitor every aspect of your indoor environment. Its gas resistance readings respond to changes in volatile organic compounds and can be combined with humidity readings to provide a measure of indoor air quality. Want to get an idea of whether your bedroom, workshop or workplace is sufficiently ventilated? Set up a BME680 on a Pi Zero W and let it log sensor readings to a file, or stream live data to a web service like adafruit.io or freeboard.io. It's compatible with our nifty Breakout Garden HAT, where using breakouts is as easy as plugging into one of the six slots, creating projects and coding. Features Bosch BME680 Temperature, pressure, humidity, air quality sensor I2C interface, with address selection via ADDR solder bridge (0x76 or 0x77) 3.3V or 5V compatible Reverse polarity protection Raspberry Pi-compatible pin assignment (pins 1, 3, 5, 7, 9) Compatible with all models of Raspberry Pi and Arduino Python library Datasheet Kit contains BME680 breakout 1x5 pin header 1x5 right angle female header We have designed this breakout board so that you can solder the right-angled header piece and plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 6, 9). The right-angled female header also has the advantage that the breakout can be positioned away from the Pi's CPU to minimise heat dissipation. Software As well as the C library provided by Bosch, we've put together a Python library (with a quick and painless one-line installer) to use with your BME680, so it's easy to combine it with our other boards (why not use a Blink! or Unicorn pHAT to visualise air quality in real time?) Notes In our tests, we have found that the sensor requires a certain burn-in time (at least 20 minutes) and that the readings take a few minutes to stabilise after the start of measurements The solder pads (labelled ADDR) can be bridged to change the I2C address from the default 0x76 to 0x77, which means you can use up to two sensors on the same Raspberry Pi or Arduino The BME280, BME680 and BMP280 breakouts all share the same I2C addresses, so if you are using two together you will need to change the I2C address on one of them using the solder bridge/pads Dimensions: 19x19x2.75mm (LxWxH)

The super-intelligent BME688 air quality sensor can accurately measure temperature, pressure and humidity. It also features an improved, AI-assisted gas scanner! Like its predecessor, the BME680, this high-quality sensor can be used to monitor all aspects of your environment by taking highly accurate measurements of temperature, pressure and humidity. In addition, the BME688 has a gas scanner function with advanced measurements that respond to changes in volatile organic compounds (VOCs), volatile sulphur compounds (VSCs) and the presence of carbon monoxide and hydrogen to provide an overall measure of indoor or outdoor air quality. With Bosch's software, you can further analyse the gas readings and train the algorithms to draw conclusions about specific air quality indicators, including the likelihood of bacterial growth and the presence of other organic contaminants. Want to get an idea of whether your bedroom, workshop or workplace is adequately ventilated? Set up a BME688 on a Pi Zero W and let it log the sensor readings to a file or transfer them to your home automation software or a web service like adafruit.io or freeboard.io. It's also compatible with our nifty Breakout Garden system, where using breakouts is so easy you just plug it into one of the slots and start growing your project, building and coding. This breakout is Qw/ST compatible so it can be plugged into a whole range of different microcontrollers and HATs with Qwiic or STEMMA QT connectors. Features Bosch BME688 4-in-1 environmental sensor with artificial intelligence(datasheet) I2C interface, with address selection via ADDR cuttable trace (0x76 or 0x77) Qwiic/STEMMA QT connection 3.3V or 5V compatible Reverse polarity protection (on breakout garden connector) Raspberry Pi compatible pin assignment (pins 1, 3, 5, 7, 9) Compatible with Raspberry Pi and Arduino Python library C library from Bosch BME688 software Circuit diagram Kit contains BME688 connector 1x5 male header 1x5 right angle female header We have designed this breakout board so that you can solder on the right-angled female header piece and plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 7, 9). The right-angled female header also has the advantage of positioning the breakout away from the Pi's CPU to minimise waste heat. Software In addition to the C library provided by Bosch, we have updated our BME680 Python library (with a quick and effortless one-line installer) to work with the BME688 so that it can be easily combined with our other boards (why not use a Blink! or a Unicorn pHAT to visualise air quality in real time?) Notes In our tests, we have found that the sensor requires a certain warm-up time (at least 20 minutes) and that the readings take a few minutes to stabilise once measurements have started The trace on the back of the board labelled ADDR can be cut to change the I2C address from the default 0x76 to 0x77, which means you can use up to two sensors on the same Raspberry Pi or Arduino The BME280, BME680, BMP280 and BME688 breakouts all have the same I2C addresses. So if you use two together, you will need to change the I2C address on one of them using the solder bridge or the cut-to-length traces. Dimensions: approx. 19mm x 19mm x 5mm (L x W x H, including connector)

A fast and accurate environmental sensor that can measure temperature, pressure and altitude. Our BMP280 breakout is Raspberry Pi and Arduino compatible. If you are looking for a simple temperature and pressure sensor, then this is the right choice. It's cheap and accurate (±1 hPa, ±1.0°C, ±1 metre), and ideal for keeping an eye on temperatures around your house or even for measuring altitude when ballooning at high altitude. It's compatible with our nifty Breakout Garden HAT, where using breakouts is as simple as plugging it into one of the six slots, creating projects and coding. Features Bosch BMP280 Temperature, pressure, height sensor I2C interface, with address selection via ADDR cuttable trace (0x76 or 0x77) 3.3V or 5V compatible Reverse polarity protection Raspberry Pi compatible pin assignment (pins 1, 3, 5, 7, 9) Compatible with Raspberry Pi 3B+, 3, 2, B+, A+, Zero, and Zero W Python library Data table Kit contains BMP280 Breakout 1x5 pin header 1x5 right angle female header We have designed this breakout board so that you can solder the right-angled header piece and plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 6, 9). The right-angled header also has the advantage of positioning the breakout away from the Pi's CPU to minimise waste heat. Software Our Python library for the BMP280 makes it easy to take readings from the sensor and combine them with code for our other breakout garden breakouts and even other HATs and pHATs on a pHAT stack. Our software does not support Raspbian Wheezy. Notes The solder pads (labelled ADDR) can be bypassed to change the I2C address from the default 0x76 to 0x77, which means you can use up to two sensors on the same Raspberry Pi or Arduino The BME680 and BMP280 breakouts share the same I2C addresses, so if you are using both together you will need to change the I2C address on one of them using the solder bridge/pads Dimensions: 19x19x2.75mm (LxWxH)

Now at the right angle for the Raspberry Pi 400! A simple, solderless, interchangeable way to use breakouts with your Raspberry Pi 400 - just plug up to three Pimoroni breakouts (2 x I2C, 1 x SPI) into the slots and start programming and creating! Breakout Garden plugs into the GPIO pins of your shiny new Pi 400 and allows you to connect up to three of our extensive range of Pimoroni breakouts so they conveniently point towards you and in the right direction. We've got environmental sensors so you can keep an eye on the temperature and humidity in your office, a whole bunch of little screens for important notifications, displays and GIFs, and of course LEDs (the Pi 400 is great, but needs more LEDs, right? ). The three sturdy black slots are edge connectors that connect the breakouts to the pins on your Raspberry Pi. There is one slot for SPI breakouts, and two for I2C breakouts. As I2C is a bus, you can use multiple I2C devices at the same time, provided they don't have the same I2C address (we've made sure all our breakouts have different addresses, and we print them on the back of the breakouts so they're easy to find). Breakout Garden is not only a handy way to add functionality to your Pi 400, but also very useful for prototyping without complicated wiring, soldering or breadboards, and you can expand or change your setup at any time. Please note that the breakouts are sold separately! Features Three robust slots for Pimoroni breakouts 2x I2C slots (5 pins) 1x SPI slot (7 pins) 0.1" pitch, 5 or 7-pin connectors Broken out pins Reverse polarity protection (built into breakouts) Exclusive right-angled format for the Pi 400 Using Breakout Garden Because of the way I2C (the protocol that Breakout Garden uses) works, it doesn't matter which slot of the Breakout Garden you plug your breakout into. Each I2C device has an address (which you can see on the back of the Breakout Garden) that it uses to identify itself to other I2C devices, so it basically tells your Raspberry Pi, "Hey, it's me, Bob!" SPI is a faster, higher throughput protocol for communicating with devices like displays. The Breakout Garden Mini's SPI slot uses Chip Select 1 (BCM 7) and BCM 19 for the GPIO pin (for things like LCD backlighting). We've built reverse polarity protection into our Pimoroni breakouts, which means there's no magic blue smoke if you accidentally plug one in the wrong way round. The correct way to plug them in is to make sure the labels on the pins on your breakout and the labels on each Breakout Garden 400 slot match. We've also broken out a lot of useful pins on the top of the Breakout Garden Mini so you can connect and integrate other devices into your Breakout Garden projects. If you have Pimoroni breakouts that you've already soldered headers to, then you can use this top row of pins to use alongside other breakouts on Breakout Garden Mini. Software As a first port of call, we recommend visiting the shop pages of the breakouts you're using - there you'll find a link to the Python library and installation instructions. corresponding breakouts installed. We also have Alternatively, you can go to the Breakout Garden GitHub repo and try our automatic installer. Just put a few breakouts into Breakout Garden 400, run the installer and SHAZAM! will install the software for the corresponding breakouts. We also have some nice examples to show you what's possible.

This adapter allows you to plug a STEMMA QT / Qwiic I2C breakout into a Breakout Garden slot for ultimate compatibility and easy prototyping. We're building up a collection of interesting Adafruit and Sparkfun breakouts, and we thought it would be really nice if we could connect them to a Raspberry Pi (or Raspberry Pi Pico) via our handy solderless Breakout Garden ecosystem. This adapter allows you to connect a STEMMA QT or Qwiic cable to your Breakout Garden, which you can then connect to a Qwiic or STEMMA QT port using an I2C breakout. It includes reverse polarity protection, so nothing bad can happen to your Breakout Garden if you plug the adapter into the Breakout Garden slot the wrong way round! Qwiic/STEMMA QT cables are available separately. Please note that this adapter makes I2C breakouts from other manufacturers electrically compatible with Breakout Garden, but you will still need a software library that is compatible with your chosen operating system and the breakout in question.

Cultivate your projects in the Breakout Garden. It's the easiest way to use breakouts with your Raspberry Pi. No soldering is required, simply plug up to six Pimoroni breakouts (6x I2C) into the Breakout Garden slots and start programming and creating. Note that this version of Breakout Garden does not support our SPI breakouts! If you want to use Pimoroni SPI breakouts, then you should get the newer version of Breakout Garden HAT. It's ideal for prototyping projects without complicated wiring, soldering or breadboards, and you always have the option to change your setup thanks to the way Breakout Garden works. Breakout Garden's six stable slots are edge connectors that connect the five pins of each Pimoroni breakout to the power and I2C (for data) pins of your Raspberry Pi. Since I2C is a bus, you can use multiple I2C devices at the same time, provided they don't have the same address (we've made sure all our breakouts have different addresses). We've also broken out a lot of useful pins on the top of Breakout Garden so you can connect other devices and integrate them into your Breakout Garden projects. If you have Pimoroni breakouts that you have already soldered headers to, then you can use this top row of pins to use alongside other breakouts on Breakout Garden. Features Six stable edge slots for Pimoroni breakouts 0.1" pitch, 5-pin connectors Breakout pins (1x10 pin header included) Standoffs (M2.5, 10mm height) included to keep your breakout garden secure Reverse polarity protection (built into breakouts) Board in HAT format Using Breakout Garden We recommend using the included standoffs to firmly attach Breakout Garden to your Raspberry Pi. Insert the screws from below through the mounting holes of your Raspberry Pi and then screw the spacers onto the screws. Plug Breakout Garden onto the GPIO pins of your Pi and then screw through each mounting hole into the standoffs to keep everything tight and secure. Because of the way I2C (the protocol that Breakout Garden uses) works, it doesn't matter which slot of Breakout Garden you plug your Pimoroni Breakout into. Each I2C device has an address (you'll find this on the back of each breakout) that it uses to identify itself to other I2C devices, so it basically says to your Raspberry Pi, "Hey, it's me, Bob!" We've built reverse polarity protection into our Pimoroni breakouts, which means there's no magic blue smoke if you accidentally plug one in backwards. The correct way to plug them in is to make sure the labels on the pins on your breakout and the labels on each Breakout Garden slot match. Software Visit the Breakout Garden GitHub repo and try out our automated installer. Just add a few breakouts to Breakout Garden, run the installer and SHAZAM! will install the software for the corresponding breakouts. We also have some nice examples to show you what's possible.

Now with SPI! Expand your projects on Breakout Garden. It's the easiest way to use breakouts with your Raspberry Pi. No soldering is required, just plug up to six Pimoroni breakouts (4xI2C, 2xSPI) into Breakout Garden's slots and start programming and creating. It's ideal for prototyping projects without complicated wiring, soldering or breadboards, and you always have the option to change your setup thanks to the way Breakout Garden works. Breakout Garden's six stable slots are edge connectors that connect Pimoroni breakouts to the pins of your Raspberry Pi. This new version of Breakout Garden has two SPI slots for Pimoroni SPI breakouts like our 0.96"" LCD breakout. It also has four I2C slots for Pimoroni I2C breakouts. Since I2C is a bus, you can use multiple I2C devices at the same time, provided they don't have the same address (we've made sure all our breakouts have different addresses). We've also broken out a lot of useful pins on the top of Breakout Garden so you can connect other devices and integrate them into your Breakout Garden projects. If you have Pimoroni breakouts that you have already soldered headers to, then you can use this top row of pins to use alongside other breakouts on Breakout Garden. Features Six robust slots for Pimoroni breakouts 4x I2C slots (5 pins) 2x SPI slots (7 pins) 0.1" pitch, 5 or 7-pin connectors Broken out pins (1x10 strip pin header included) Standoffs (M2.5, 10mm height) included to keep your breakout garden secure Reverse polarity protection (built into breakouts) Board in HAT format Using Breakout Garden We recommend using the included standoffs to firmly attach Breakout Garden to your Raspberry Pi. Insert the screws from below through the mounting holes of your Raspberry Pi and then screw the spacers onto the screws. Plug Breakout Garden onto the GPIO pins of your Pi and then screw through each mounting hole into the standoffs to keep everything tight and secure. Because of the way I2C (the protocol that Breakout Garden uses) works, it doesn't matter which slot of Breakout Garden you plug your Pimoroni Breakout into. Each I2C device has an address (you'll find this on the back of each breakout) that it uses to identify itself to other I2C devices, so it basically tells your Raspberry Pi, "Hey, it's me, Bob!" SPI is a faster, higher throughput protocol for communicating with devices like displays. The two SPI slots have different chip select (CS) and GPIO pins, which you should change in software depending on which slot you are using. The top/rear slot (closest to the Breakout Garden logo) uses chip select 0 (BCM 8) and BCM 18 for the GPIO pin (e.g. for LCD backlighting).E.g. for LCD backlighting).The bottom/front slot uses Chip Select 1 (BCM 7) and BCM 19 for the GPIO pin. We've built reverse polarity protection into our Pimoroni breakouts, which means there's no magic blue smoke if you accidentally plug one in the wrong way round. However, the correct way to plug it in is to match the labels on the pins on your breakout and the labels on each Breakout Garden slot. Software Visit the Breakout Garden GitHub repo and try out our automated installer. Simply add a few breakouts to Breakout Garden, run the installer, and SHAZAM! will install the software for the corresponding breakouts (this does not work for SPI breakouts). We also have some nice examples to show you what is possible.

Now with SPI! The easiest way to use breakouts with your Raspberry Pi. No soldering required. Simply plug up to three Pimoroni breakouts (2xI2C, 1xSPI) into the slots of the Breakout Garden Mini and start programming and creating. Let your projects grow on Breakout Garden. It's ideal for prototyping projects without complicated wiring, soldering or breadboards, and you always have the option to change your setup thanks to the way Breakout Garden works. Breakout Garden's three stable slots are edge connectors that connect Pimoroni breakouts to the pins on your Raspberry Pi. This new version of Breakout Garden has an SPI slot for Pimoroni SPI breakouts like our 0. 96" LCD breakout or 1.12" SPI OLED breakout. It also has two I2C slots for Pimoroni I2C breakouts. Since I2C is a bus, you can use multiple I2C devices at the same time, provided they don't have the same address (we made sure all our breakouts have different addresses). Features Three stable edge slots for Pimoroni breakouts 2x I2C slots (5 pins) 1x SPI slot (7 pins) 0.1? pitch, 5 or 7-pin connectors Broken out pins (1x10 pin header strips included) Reverse polarity protection (built into the breakouts) Board in PHAT format Compatible with all Raspberry Pi models with 40-pin header Using Breakout Garden Because of the way I2C (the protocol that Breakout Garden uses) works, it doesn't matter which Breakout Garden Mini slot you plug your Pimoroni breakout into. Each I2C device has an address (you'll find this on the back of each Breakout) that it uses to identify itself to other I2C devices, so it effectively tells your Raspberry Pi: "Hey, it's me, Bob!" SPI is a faster, higher throughput protocol for addressing devices such as displays.The Breakout Garden Mini's SPI slot uses Chip Select 1 (BCM 7) and BCM 19 for the GPIO pin (which is used for things like LCD backlights). We've built reverse polarity protection into our Pimoroni breakouts, which means there's no magic blue smoke if you accidentally plug one in the wrong way round. The correct way to plug them in is to make sure the labels on the pins on your breakout and the labels on each Breakout Garden Mini slot match. We've also broken out a lot of useful pins on the top of the Breakout Garden Mini so you can connect and integrate other devices into your Breakout Garden projects. If you have Pimoroni breakouts that you've already soldered headers to, then you can use this top row of pins to use alongside other breakouts on Breakout Garden Mini. Software Visit the Breakout Garden GitHub repo and try out our automated installer. Just drop a few breakouts into Breakout Garden Mini, run the installer, and SHAZAM! will install the software for the corresponding breakouts. We also have some nice examples to show you what's possible.

The easiest way to use breakouts with your Raspberry Pi. No soldering is required. Simply plug up to three Pimoroni breakouts into the slots of the Breakout Garden Mini and start programming and creating. Let your projects grow on Breakout Garden. It's ideal for prototyping projects without complicated wiring, soldering or breadboards, and you always have the option to change your setup thanks to the way Breakout Garden works. The three robust slots of Breakout Garden Mini are edge connectors that connect the five pins of each Pimoroni breakout to the power and I2C (for data) pins of your Raspberry Pi. Since I2C is a bus, you can use multiple I2C devices at the same time, provided they don't have the same address (we made sure all our breakouts have different addresses). Features Three stable edge slots for Pimoroni breakouts 0.1? pitch, 5-pin connectors Broken out pins (1x10 strip pin header included) Reverse polarity protection (built into breakouts) Board in PHAT format Compatible with all Raspberry Pi models with 40-pin header Using Breakout Garden Because of the way I2C (the protocol that Breakout Garden uses) works, it doesn't matter which slot of Breakout Garden Mini you plug your Pimoroni breakout into. Each I2C device has an address (you'll find this on the back of each breakout) that it uses to identify itself to other I2C devices, so it's basically telling your Raspberry Pi, "Hey, it's me, Bob!" We've built reverse polarity protection into our Pimoroni breakouts, which means there's no magic blue smoke if you accidentally plug one in the wrong way round. The correct way to plug them in is to make sure the labels on the pins on your breakout and the labels on each Breakout Garden Mini slot match. We've also broken out a lot of useful pins on the top of the Breakout Garden Mini so you can connect and integrate other devices into your Breakout Garden projects. If you have Pimoroni breakouts that you've already soldered headers to, then you can use this top row of pins to use alongside other breakouts on Breakout Garden Mini. Software Visit the Breakout Garden GitHub repo and try out our automated installer. Just drop a few breakouts into Breakout Garden Mini, run the installer, and SHAZAM! will install the software for the corresponding breakouts. We also have some nice examples to show you what's possible.

The camera module is connected to the camera mount using 4 screws and nuts (supplied).4 different mounting angles possible1/4 inch hole to attach the mount to a tripodNote: The Raspberry Pi, the Raspberry Pi Camera and the PiBow housing are for presentation purposes only and are not included in the scope of delivery!

This DRV2605L haptic driver breakout with linear actuator will really get you buzzing! The powerful haptic buzz is programmable with a range of inbuilt patterns, or you can programme your own. This little haptic driver and actuator is great for adding buzzing feedback to your projects. We've paired it with our trackball breakout to give oldschool haptic feedback to scrolls and clicks(click here to see the sample code). It's compatible with our fancy breakout garden HAT, where using breakouts is as simple as plugging into one of the six slots, creating projects and coding. Features DRV2605L haptic driver chip(data sheet) ELV1411A Linear resonant drive I2C interface (address 0x5A) 3.3V or 5V compatible Reverse polarity protection Compatible with all models of Raspberry Pi and Arduino Python library Kit contains DRV2605L Linear Actuator Haptic Breakout 1x5 pin header 1x5 right angle female header We have designed this breakout board so that you can solder on the piece of right angle female header and plug it directly into the bottom left 5 pins of the GPIO header on your Raspberry Pi (pins 1, 3, 5, 6, 9). Software We have a Python library that you can use to buzzzzzzz your DRV2605L Linear Actuator Haptic Breakout and a simple one-line installer to install everything. Our software does not support Raspbian Wheezy. Notes Dimensions: 19x23,5x5,25mm

An H-bridge DC motor driver with configurable current limit (0.2 or 1A) and up to four different I2C addresses. Ideal for DIY robot building. This small brushed DC motor driver is speed controllable, bidirectional and has a configurable current limit that can be increased to 1A (from 0.2A) by bridging the pads on the bottom of the board. You can use up to four simultaneously and control them independently by changing the I2C address (configurable by cutting one or both address tracks). The DRV8830 breakout has an I2C interface and is 3.3V or 5V compatible. Like our other Pimoroni breakouts, we've designed it so that you can solder on a piece of right-angled header and then plug it directly into the bottom left 5 pins of your Raspberry Pi's GPIO header (pins 1, 3, 5, 6, 9). It's also compatible with our fancy breakout garden, where using breakouts is as simple as plugging it into one of the six slots and starting to grow, build and code your project. Features DRV8830 motor driver(datasheet) Speed, direction and brake control Bright white status LED Configurable current limit (0.2 or 1A) 3.3V or 5V compatible I2C interface (addresses 0x60, 0x61, 0x63, 0x64) Reverse polarity protection Raspberry Pi compatible pin assignment (pins 1, 3, 5, 7, 9) Compatible with all models of Raspberry Pi and Arduino Python library Kit includes DRV8830 breakout 1x5 pin header 1x5 right-angled female header Software We've put together a Python library that lets you control your DRV8830 Breakout, with easy control over speed, direction, braking and a range of other functions. Nice! Notes The text ""I2C: 0x60 to 0x68"" on the bottom of the board is incorrect. The address range is 0x60, 0x61, 0x63, and 0x64. Dimensions: 22x19x12mm

Monitor your world with Enviro + Air Quality for Adafruit Feather Pi! This board contains a whole range of fancy environmental sensors and a beautiful little colour LCD display to show your data. They are the perfect introduction to citizen science and environmental monitoring! Now also available in FeatherWing format for use with Adafruit Feather boards, for example Feather M4 Express or Feather nRF52840 Express. Enviro + Air Quality is designed for environmental monitoring and allows you to measure air quality (pollutant gases and particles), temperature, pressure, humidity, light and noise levels. In combination with a particulate matter sensor, it is ideal for monitoring air quality right outside your home (more information below) and allows you to contribute your data to citizen science efforts to monitor air quality through projects such as air data. Technical data BME280 Temperature, pressure and humidity sensor LTR-559 Light and proximity sensor Analogue gas sensor MICS6814 ADS1015 Analogue-to-digital converter (ADC) MEMS microphone 0.96" colour LCD (160x80) Connection for particulate matter (PM) sensor (sensor not included) In FeatherWing format 2 1x16 pin headers included Soldering required Dimensions: 51x23x6.5mm without pin headers Further links Circuit diagram Python library, to control all parts of the Enviro + FeatherWing. Including documentation and sample applications

Monitor your world with Enviro + Air Quality for Raspberry Pi! These boards contain a whole range of fancy environmental sensors and a beautiful little colour LCD display to show your data. They are the perfect introduction to citizen science and environmental monitoring! Enviro + Air Quality is designed for environmental monitoring and allows you to measure air quality (pollutant gases and particles), temperature, pressure, humidity, light and noise levels. In combination with a particulate matter sensor, it is ideal for monitoring air quality right outside your home (more information below) and allows you to contribute your data to citizen science efforts to monitor air quality through projects such as air data. Technical data BME280 Temperature, pressure and humidity sensor LTR-559 Light and proximity sensor Analogue gas sensor MICS6814 ADS1015 Analogue-to-digital converter (ADC) MEMS microphone 0.96" colour LCD (160x80) Connection for particulate matter (PM) sensor (sensor not included) Pimoroni breakout compatible pin header PHAT format board Fully assembled Compatible with all Raspberry Pi models with 40-pin header Dimensions: 65x30x8.5mm Related links Python library to control all parts of the Enviro + Air Quality. Includes sample applications for each part, their visual representation and a sample application to share the data with air data Detailed tutorial on installing the software, running sample code and using the Python library

A wireless monitoring system that helps you take care of your plants. Monitor moisture levels with the soil sensors or connect pumps to set up an automatic watering system! Enviro Grow comes with three capacitive moisture sensors that allow you to monitor up to three pots or trays of seeds separately. As there are no exposed electrodes, capacitive sensors are much less susceptible to corrosion over time than conventional resistance sensors. There is also a buzzer so it can signal your attention. The built-in sensors can measure temperature, humidity, pressure and light, so you can fine-tune the growing conditions for your plants (you could also use the light sensor to prevent the buzzer from going off at night). On the back of the Enviro Growthere are three more connections that you can use to switch low-current devices with 5 volts such as pumps, motors, valves, solenoid valves or lamps on and off. There is also a Qw/ST port if you want to expand your smart irrigation system and add more I2C sensors. Enviro x Pico W Aboard Our new Enviro range (Pico W Aboard) has been designed with environmental monitoring and logging in mind. We wanted to create a range of Pico/RP2040-powered all-in-one sensor boards that are compact and easy to install and programme.The wireless capability of the Raspberry Pi Pico W allows Enviro to integrate with other systems - so you can feed your data into databases, home automation systems or online science projects - the internet is your lobster! Because the least fun way to add lots of sensors to your environment is to figure out how to power everything without running tonnes of wires, all sensors are designed to work well with a battery. Each Enviro board has an integrated real-time clock (RTC) so it periodically wakes up from deep sleep, takes a reading (and optionally connects to Wi-Fi), and then goes back to sleep - so you can go months without a battery. We've also put together handy accessory kits for our Enviro boards that include the right size AA or AAA battery, a USB cable, and other essentials for each board to get you up and running quickly. Enviro features Raspberry Pi Pico W on board Dual Arm Cortex M0+ runs at up to 133Mhz and 264kB SRAM 2MB QSPI flash with support for XiP Powered and programmable via USB micro-B 2.4GHz wireless Deep sleep/wake-up function with RTC 1 x POKE (user) button Reset button (because we are not monsters) Battery connection (JST-PH connection, 5.5 V maximum voltage) User/activity LED (dimmable via PWM, can only light up when the board is awake) Warning LED (connected to the RTC) Qw/ST connector for connecting breakouts Fully assembled No soldering required. Enviro firmware Circuit diagram (coming soon) Enviro Grow features 3 x JST SH 3P connectors for capacitive humidity sensors 3 x Picoblade 2P compatible connectors with MOSFETs for switching low current 5V devices on and off Piezo buzzer BME280 Temperature, pressure and humidity sensor(data sheet) LTR-559 Light and proximity sensor (data sheet) Waxing + sensors included Enviro Grow 3 x humidity sensor 3 x humidity sensor cable (35cm) Grow + Accessory Kit contains Enviro Grow 3 x humidity sensor 3 x humidity sensor cable (35cm) 3 x mini submersible pumps 1m silicone tubing 3 x AA battery pack 3 x AA batteries USB micro-B cable Velcro strap to attach the battery pack Software Enviro comes with sophisticated software that allows you to easily set it up and connect it to other things, even if it's your first foray into environmental recording/IoT.Switch it on and connect to the network called "Enviro Grow Setup" with your mobile phone, tablet or other Wi-Fi enabled device - your Pico W will guide you through the rest! Getting started guide Connecting breakouts The Qw/ST connectors on the Enviro boards make it super easy to connect I2C Qwiic; or STEMMA QT breakouts. If your breakout has a QW/ST connector on the board, you can connect it directly with a JST-SHto JST-SH cable. Breakout Garden breakouts that do not have a Qw/ST connector can be connected with a JST-SHto JST-SH cable and a Qw/ST to Breakout Garden adapter. Want to use multiple breakouts at the same time? Try this adapter! List of breakouts that are currently compatible with our C++/MicroPython build. Notes Dimensions: 69 x 36 x 10 mm (L x W x H, approx.) Enviro boards can be put into a deep sleep mode in which the Pico W, the sensors on the board and the sensors connected via Qw/ST are completely switched off. The only thing still running on the board is the RTC, which can wake the board up again at a specific date and time or via a timer. You can also wake up the board by pressing the POKE button or by connecting the USB cable (the board will never sleep when powered by USB). The power consumption in sleep mode is 20uA. The RTC can also be used to memorise the time and date (this means we don't have to waste power every time we make a radio call to find out the time and date). The warning LED is connected to the RTC, so it can also light up in deep sleep to inform you of problems. It is limited to three states - on, off or 1hz flashing (it is not possible to control the brightness). If you are using pumps with your Enviro Grow, we recommend a 3 x AA battery pack. If you are only using the humidity sensors, Enviro Grow can be powered by a 2 x AAA battery; which fits neatly behind the board, or any battery pack that can supply between 2V and 5V. 5V - 2 or 3 alkaline AA or AAA cells, 4 rechargeable NiMH cells or a single cell LiPo. If you use a LiPo, remember that the Enviro boards are not equipped with a charger. You will therefore need a separate LiPo charger (e.g. a LiPo Amigo) to charge the battery. About Pico W Aboard Our new Pico W Aboard products come with a built-in Raspberry Pi Pico W. This means you can take full advantage of the RP2040 microcontroller - a fast dual-core ARM processor, a dynamic, growing ecosystem and a wide range of programming methods to experiment with. But the most exciting thing is that the Pico W has wireless connectivity, so your Pico/RP2040 devices can communicate with each other and the internet! Wireless is very new for Pico/RP2040 - be aware that things will change quickly! Software support (wireless examples, tutorials, CircuitPython support etc.) will take a while to catch up. If you're a complete beginner to Pico/RP2040, you may have a better experience with wireless if you wait until things have settled down a bit.

A wireless monitoring system that helps you take care of your plants. Monitor moisture levels with the soil sensors or connect pumps to set up an automatic watering system! Enviro Grow comes with three capacitive moisture sensors that allow you to monitor up to three pots or trays of seeds separately. As there are no exposed electrodes, capacitive sensors are much less susceptible to corrosion over time than conventional resistance sensors. There is also a buzzer so it can signal your attention. The built-in sensors can measure temperature, humidity, pressure and light, so you can fine-tune the growing conditions for your plants (you could also use the light sensor to prevent the buzzer from going off at night). On the back of the Enviro Growthere are three more connections that you can use to switch low-current devices with 5 volts such as pumps, motors, valves, solenoid valves or lamps on and off. There is also a Qw/ST port if you want to expand your smart irrigation system and add more I2C sensors. Enviro x Pico W Aboard Our new Enviro range (Pico W Aboard) has been designed with environmental monitoring and logging in mind. We wanted to create a range of Pico/RP2040-powered all-in-one sensor boards that are compact and easy to install and programme.The wireless capability of the Raspberry Pi Pico W allows Enviro to integrate with other systems - so you can feed your data into databases, home automation systems or online science projects - the internet is your lobster! Because the least fun way to add lots of sensors to your environment is to figure out how to power everything without running tonnes of wires, all sensors are designed to work well with a battery. Each Enviro board has a built-in real-time clock (RTC) so it periodically wakes up from deep sleep, takes a reading (and optionally connects to Wi-Fi), and then goes back to sleep - so you can go months without a battery. We've also put together handy accessory kits for our Enviro boards that include the right size AA or AAA battery, a USB cable, and other essentials for each board to get you up and running quickly. Enviro features Raspberry Pi Pico W on board Dual Arm Cortex M0+ runs at up to 133Mhz and 264kB SRAM 2MB QSPI flash with support for XiP Powered and programmable via USB micro-B 2.4GHz wireless Deep sleep/wake-up function with RTC 1 x POKE (user) button Reset button (because we are not monsters) Battery connection (JST-PH connection, 5.5 V maximum voltage) User/activity LED (dimmable via PWM, can only light up when the board is awake) Warning LED (connected to the RTC) Qw/ST connector for connecting breakouts Fully assembled No soldering required. Enviro firmware Circuit diagram (coming soon) Enviro Grow features 3 x JST SH 3P connectors for capacitive humidity sensors 3 x Picoblade 2P compatible connectors with MOSFETs for switching low current 5V devices on and off Piezo buzzer BME280 Temperature, pressure and humidity sensor(data sheet) LTR-559 Light and proximity sensor (data sheet) Waxing + sensors included Enviro Grow 3 x humidity sensor 3 x humidity sensor cable (35cm) Grow + Accessory Kit contains Enviro Grow 3 x humidity sensor 3 x humidity sensor cable (35cm) 3 x mini submersible pumps 1m silicone tubing 3 x AA battery pack 3 x AA batteries USB micro-B cable Velcro strap to attach the battery pack Software Enviro comes with sophisticated software that allows you to easily set it up and connect it to other things, even if it's your first foray into environmental recording/IoT.Switch it on and connect to the network called "Enviro Grow Setup" with your mobile phone, tablet or other Wi-Fi enabled device - your Pico W will guide you through the rest! Getting started guide Connecting breakouts The Qw/ST connectors on the Enviro boards make it super easy to connect I2C Qwiic; or STEMMA QT breakouts. If your breakout has a QW/ST connector on the board, you can connect it directly with a JST-SHto JST-SH cable. Breakout Garden breakouts that do not have a Qw/ST connector can be connected with a JST-SHto JST-SH cable and a Qw/ST to Breakout Garden adapter. Want to use multiple breakouts at the same time? Try this adapter! List of breakouts that are currently compatible with our C++/MicroPython build. Notes Dimensions: 69 x 36 x 10 mm (L x W x H, approx.) Enviro boards can be put into a deep sleep mode in which the Pico W, the sensors on the board and the sensors connected via Qw/ST are completely switched off. The only thing still running on the board is the RTC, which can wake the board up again at a specific date and time or via a timer. You can also wake up the board by pressing the POKE button or by connecting the USB cable (the board will never sleep when powered by USB). The power consumption in sleep mode is 20uA. The RTC can also be used to memorise the time and date (this means we don't have to waste power every time we make a radio call to find out the time and date). The warning LED is connected to the RTC, so it can also light up in deep sleep to inform you of problems. It is limited to three states - on, off or 1hz flashing (it is not possible to control the brightness). If you are using pumps with your Enviro Grow, we recommend a 3 x AA battery pack. If you are only using the humidity sensors, Enviro Grow can be powered by a 2 x AAA battery; which fits neatly behind the board, or any battery pack that can supply between 2V and 5V. 5V - 2 or 3 alkaline AA or AAA cells, 4 rechargeable NiMH cells or a single cell LiPo. If you use a LiPo, remember that the Enviro boards are not equipped with a charger. You will therefore need a separate LiPo charger (e.g. a LiPo Amigo) to charge the battery. About Pico W Aboard Our new Pico W Aboard products come with a built-in Raspberry Pi Pico W. This means you can take full advantage of the RP2040 microcontroller - a fast dual-core ARM processor, a dynamic, growing ecosystem and a wide range of programming methods to experiment with. But the most exciting thing is that the Pico W has wireless connectivity, so your Pico/RP2040 devices can communicate with each other and the internet! Wireless is very new for Pico/RP2040 - be aware that things will change quickly! Software support (wireless examples, tutorials, CircuitPython support, etc.) will take a while to catch up. If you're a complete beginner to Pico/RP2040, you may have a better experience with wireless if you wait until things have settled down a bit.

A wireless environmental monitoring panel that allows you to monitor the conditions in your home, office or other living spaces. The in-built sensors can measure temperature, humidity, pressure, gas and light. The top of the range BME688 sensor on Enviro Indoor can measure temperature/humidity/pressure with a high degree of accuracy, and the gas scanner will respond to changes in volatile organic compounds (VOCs), volatile sulphur compounds (VSCs) and the presence of carbon monoxide and hydrogen to give an overall measure of air quality. The BH1745 light sensor can tell you the luminance and colour of the light, so you can use it to detect unsettled blue light or adjust the intensity/colour of your lighting depending on the time of day. Want to add more sensors to this board? A CO2 sensor breakout (which plugs into the Qw/ST port) would be a nice addition, allowing you to keep an eye on ventilation and cognitive impairment from carbon dioxide. Enviro x Pico W Aboard Our new Enviro (Pico W Aboard) range has been designed with environmental monitoring and recording in mind. We wanted to create a range of Pico/RP2040-powered all-in-one sensor boards that are compact and easy to install and programme.The wireless capability of the Raspberry Pi Pico W allows Enviro to integrate with other systems - so you can feed your data into databases, home automation systems or online science projects - the internet is your lobster! Because the least fun way to add lots of sensors to your environment is to figure out how to power everything without running tonnes of wires, all sensors are designed to work well with a battery. Each Enviro board has a real-time clock (RTC) on board, so it periodically wakes up from deep sleep, takes a reading (and optionally connects to Wi-Fi), and then goes back to sleep - so you can go months without a battery. We've also put together handy accessory kits for our Enviro boards that include the right size AA or AAA battery, a USB cable, and other essentials for each board to get you up and running quickly. Enviro features Raspberry Pi Pico W on board Dual Arm Cortex M0+ runs at up to 133Mhz and 264kB SRAM 2MB QSPI flash with support for XiP Powered and programmable via USB micro-B 2.4GHz wireless Deep sleep/wake-up function with RTC 1 x POKE (user) button Reset button (because we are not monsters) Battery connection (JST-PH connection, 5.5 V maximum voltage) User/activity LED (dimmable via PWM, can only light up when the board is awake) Warning LED (connected to the RTC) Qw/ST connector for connecting breakouts Fully assembled No soldering required. Enviro firmware Circuit diagram (coming soon) Enviro Indoor features BME688 4-in-1 temperature, pressure, humidity and gas sensor(data sheet) BH1745 Light sensor (luminance and colour) (data sheet) Software Enviro comes with sophisticated software that makes it very easy to set up and connect, even if it's your first foray into environmental recording/IoT.;Switch it on and connect to the network called "Enviro Indoor Setup" with your mobile phone, tablet or other Wi-Fi enabled device - your Pico W will guide you through the rest! Getting started guide Connecting breakouts The Qw/ST connectors on the Enviro boards make it super easy to connect I2C Qwiic; or STEMMA QT breakouts. If your breakout has a QW/ST connector on the board, you can connect it directly with a JST-SHto JST-SH cable. Breakout Garden breakouts that do not have a Qw/ST connector can be connected with a JST-SHto JST-SH cable and a Qw/ST to Breakout Garden adapter. Want to use multiple breakouts at the same time? Try this adapter! List of breakouts that are currently compatible with our C++/MicroPython build. Notes Dimensions: 69 x 36 x 9.9 mm (L x W x H, approx.) Enviro boards can go into a deep sleep mode in which the Pico W, the sensors on the board and the sensors connected via Qw/ST are completely switched off. The only thing still running on the board is the RTC, which can wake the board up again at a specific date and time or via a timer. You can also wake up the board via the POKE button or via the USB cable (the board never sleeps when powered via USB). The RTC can also be used to store the time and date (this means we don't have to waste power by making a wireless call to find out the time and date every time we record a sensor reading). The warning LED is connected to the RTC, so it can light up even when you're in deep sleep to alert you to problems. It is limited to three states - on, off or 1hz flashing (it is not possible to control the brightness). Most Enviro boards can be powered by a 2 x AAA battery pack that fits neatly behind the board. Any battery pack that can supply between 2V and 5.5V will work - 2 or 3 alkaline AA or AAA cells, 4 rechargeable NiMH cells or a single cell LiPo. If you use a LiPo, remember that the Enviro boards are not equipped with a charger. You will therefore need a separate LiPo charger (e.g. a LiPo Amigo) to charge the battery. About Pico W Aboard Our new Pico W Aboard products come with a built-in Raspberry Pi Pico W. This means you can take full advantage of the RP2040 microcontroller - a fast dual-core ARM processor, a dynamic, growing ecosystem and a wide range of programming methods to experiment with. But the most exciting thing is that the Pico W has wireless connectivity, so your Pico/RP2040 devices can communicate with each other and the internet! Wireless is very new for Pico/RP2040 - be aware that things will change quickly! Software support (wireless examples, tutorials, CircuitPython support, etc.) will take a while to catch up. If you're a complete beginner to Pico/RP2040, you may have a better experience with wireless if you wait until things have settled down a bit.