Special Offers

The kit includes our Foundation Plate which attaches to your pi-top [4]. Plug components into the foundation plate and get started right away, following step-by-step tutorials to learn the basics of coding and physical computing. Then continue your learning by progressing into projects in advanced coding, robotics, cybersecurity, and AI.


What's in the box ?

You will need a pi-top [4] or an essentials kit to use our Sensor Foundation Kit.

The Sensor Foundation Kit includes:

1 x     Foundation Plate 1 x     Sound Sensor 1 x     Light Sensor 2 x     Buttons 1 x     Buzzer 2 x     Potentiometers

2 x   Red LEDs 2 x   Green LEDs 2 x   Yellow LEDs 1 x   Ultrasonic Sensor 8 x   LEGO® Connectors Connecting cables

Note: We have tested this unit successfully on Zero and Zero 2.

The ETH/USB HUB HAT (B) is an Ethernet and USB HUB designed for Raspberry Pi, providing 1x RJ45 Ethernet port and 3x USB 2.0 ports. It's pogo pin design is specialized for Zero series, while the onboard normal USB connector can be used to connect with other Raspberry Pi boards through a USB cable.

• 3x extended USB ports, compatible with USB 2.0 / 1.1
• Incorporates RTL8152B Ethernet chip, supports 1x RJ45 Ethernet port, 10/100M auto-negotiation
• Pogo pin design, for direct connecting with Raspberry Pi Zero/Zero W/Zero WH
• USB HUB connector, for connecting with Raspberry Pi 4B/3B /3A /2B through USB cable

What's in the box ?

1 x ETH/USB HUB HAT (B) 
1 x Screws and standoffs pack 


Resources

Wiki: ETH/USB_HUB_HAT_(B)

PGA2040 is a compact RP2040 breakout intended for the most svelte and embeddable of projects. It contains only the components necessary to run the RP2040 (that's the crystal, flash, regulator and essential support circuits) and it has no fripperies like LEDs, buttons and USB connectors - you'll need to attach your own USB connector to be able to program it.

The benefits of all this drastic pruning are a tiny, 21mm square footprint and lots of exposed RP2040 pins to play with! 30 of them can be used as general purpose I/O (that's four more I/O than on a Raspberry Pi Pico) and 4 are ADC-equipped. It also has the cutest little pin labels in the known 'verse, because space is tight on this board.

Header pins are sold separately - you can solder it to standard Pico pin headers (though bear in mind you'll need 48 pins if you want to populate it fully).

Like our other RP2040 boards, PGA2040 is programmable with C , MicroPython or CircuitPython - choose your fighter!


Specifications:

• Powered by RP2040
• Dual ARM Cortex M0 running at up to 133Mhz
• 264kB of SRAM
• 8MB of QSPI flash supporting XiP
• Crystal oscillator
• On-board 3V3 regulator (max regulator current output 300mA)
• 48 pins, arranged with 2.54mm (0.1") spacing in a Pin Grid Array
• 30 multi-function General Purpose IO (4 can be used for ADC)
• 8 GND pins
• Input voltage range 3V - 5.5V (on VB pin only)
• Measurements: approx 21mm x 21mm x 3mm (L x W x H)
• Schematic
• Eagle CAD part

PGA2040 is firmware agnostic! You can program it with C/C or MicroPython in the same way as you would a Raspberry Pi Pico. You can find (lots) more information on how to do that (as well as download links for the firmware/SDK) on the RP2040 landing page.

You can also use CircuitPython on your PGA2040! CircuitPython is an easy to use, well-established ecosystem with lots of example code and drivers for interfacing with different kinds of hardware. Click here to download the CircuitPython firmware for PGA2040 and click here for a getting started guide.

To program PGA2040 via USB you will need to hook wires up to VB, GND, U and U-. Make sure that the 5v only goes to VB on PGA2040, if it ends up elsewhere it will result in a bad time. A USB breakout board is a convenient way of getting at the wires in your USB cable, check out the extras tab for some options!

To get into BOOTSEL mode so you can flash firmware to your PGA2040, connect the BS pin to ground whilst plugging the USB into your computer.

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.

Description:

The MonkMakes Solar Experimenters Kit for micro:bit is a project kit that allows you to experiment with harvesting energy from the sun and other light sources. It consists of a solar panel to harvest the energy, a solar store that stores the harvested energy, and a low energy light bulb and a motor that can be driven with the energy that you harvest.

Specifications:

There are three projects that introduce energy harvesting without the micro:bit, followed by 3 bigger projects that use the micro:bit (not provided) as an intelligent controller. The micro:bit monitors and manages the charging and discharging of the solar store.

With this project kit you will learn all about how tiny amounts of energy can be harvested from the sun and stored for later use, using a practical and experiment-led approach.

What's in the Box ?

1 x 10v Solar Panel 
1 x Solar Store Board 
1 x 3v LED light bulb
1 x Set of alligator clip leads (10 leads)
1 x Small motor with fan
1 x Booklet (A5)

Resources:

- Instructions (PDF)

- Data Sheet (PDF)

Lessons Plans are available here: https://drive.google.com/drive/folders/1o5tRY1PeU4N-NSVctra4NxnCvmP65Huj

The MonkMakes Slider for micro:bit allows you to interact with your micro:bit by sliding a control left and right.

The board uses a 10kΩ linear variable resistor (pot) to output a voltage between 0 and 3V that can be measured in your micro:bit programs using one of the micro:bit connections as an analog input.

The kit includes the Slider for micro:bit itself plus a set of 5 alligator clip leads. 


Specifications




What's in the box ?

1 x 3v Slider 
5 x crocodile clip leads 

You might also need....

 micro:bit not included


Resources

 - Instructions (PDF)
 - Data Sheet (PDF)
 - Lesson Plans (Google file share)












(* micro:bit not included) 

A LiPo battery and charger board that charges automatically while you use your micro:bit! This neat solution to your micro:bit’s power needs comes with an acrylic layer enclosure to protect your micro:bit and the Charger for micro:bit.

Features

• Program your micro:bit and charge at the same time 
• Once charged the Charger for micro:bit can power your micro:bit for up to 20 hours using its rechargeable built-in LiPo battery
•  Acrylic case to protect your micro:bit and Charger for micro:bit
•  On/off switch
• Full charge indicator LED

Specifications


What's in the box?

6 x Acrylic pieces labelled 1 to 6
1 x Charger for micro:bit board with USB adapter fitted
4 x plastic nuts and bolts

Resources

 -  Instructions (PDF)
 -  DataSheet (PDF)

The 7-segment for micro:bit is a four digit 7-segment display for micro:bit. You can use it to display numbers, but it can also display letters and other characters, albeit with the limits imposed by the 7 segments of each digit.

Powered directly from micro:bit pins it can be used to send messages to the display using the micro:bit’s Serial blocks.

Please note that this version of the 7-Segment for micro:bit uses a red LED display rather than the green display of earlier versions.

Specifications:

The 7-segment for micro:bit is a four digit 7-segment display for micro:bit.
You can use it to display numbers, but it can also display letters and other characters, albeit with the limits imposed by the 7 segments of each digit.

• Low power high brightness LEDs
• Serial interface using a single micro:bit pin
• ATTiny816 preloaded firmware







What's in the box ?

1 x 7-Segment for micro:bit



Resources:

Instructions (PDF)
Datasheet (PDF)








(* Micro:bit, Sensor board and jumpers NOT included*)

The MonkMakes Power for micro:bit opens up lots of ways of powering your micro:bit.

The board has a standard DC barrel jack that accepts between 4.5 and 12V and provides a regulated 3V output to the micro:bit via its JST battery connector.

Specifications:



What's in the box ?

1 x power for micro bit board (*Batteries and micro:bit not included)



Resources:

Instructions (PDF)
Datasheet (PDF)

• 400 tie point
• 2 power busses
• Size 8.2x5.5x0.85cm
• Self-adhesive back
• Electrical Characteristic Units Accepts wires and legs 20-29 AWG Maximum voltage AC/DC 50 V Maximum Current 2 A

• Understanding Breadboards

(*Raspberry Pi Pico not included)

The MonkMakes Air Quality Kit for Raspberry Pi is based around the MonkMakes Air Quality Sensor board. This add-on for the Raspberry Pi measures the quality of the air in a room (how stale the air is) as well as the temperature. The board has a display of six LEDs that display the air quality and a buzzer. Temperature and air quality readings can be read by your Raspberry Pi, and the buzzer and LED display can also be controlled from it.

The Air Quality Sensor board, plugs directly into the back of a Raspberry Pi 400, but, can also be used with other models of Raspberry Pi, using the jumper wires and GPIO template included in the kit.

Specifications

This board uses the CCS811 VOC sensor IC and a TMP235 temperature sensor. It also has a rudimentary display and a buzzer.

The board uses a bi-directional UART interface to communicate with the Pi. The board is designed for use with the Raspberry Pi 400, but also works with other models of Raspberry Pi using the jumper wires included in the kit.

- Absolute maximum supply voltage 3.6 V
- Minimum supply voltage 3.0 V
- Typical current consumption 40 mA
- Maximum current consumption 80 mA

- eCO2 minimum reading 400 ppm
- eCO2 maximum reading 4095 ppm
- eCO2 resolution 1 ppm
- eCO2 accuracy unspecified
- Temperature minimum reading -10 deg. C
- Temperature max reading 100 deg. C
- Temperature accuracy /- 2 deg. C

What's in the box?

1 x air quality sensor board
1 x jumper cables
1 x pinout labels board

Resources

Instructions (PDF)
Datasheet (PDF)
















(* Raspberry Pi400 and Raspberry Pi 4 are not included)

Specifications

This kit is an improved and updated version of the now retired Electronics Starter Kit for Raspberry Pi

A 40 page booklet by Simon Monk (author of the Raspberry Pi Cookbook and Programming Raspberry Pi) is free to download and explains how to use the kit and build the projects.


What's in the box ?

1 x Solderless breadboard
1 x Male to male jumper wires
1 x Female to Male Jumper Wires
1 x Raspberry Leaf 
5 x 470Ω resistor (yellow, purple, brown stripes)
2 x 1kΩ resistor (brown, black, red)
1 x 4.7MΩ resistor (yellow, purple and green stripes)
1 x 330nF capacitor
2 x Red LED – the longer lead is the (positive) lead
1x RGB LED – the longest lead is the – (negative) lead
2 x Tactile push switch
1 x Phototransistor
1 x Thermistor
1 x Buzzer

You may also need....

Raspberry Pi is NOT INCLUDED


Resources

Instructions (PDF)

A bright RGB (Red, Green, Blue) LED with built-in resistors and female header leads that can just plug directly onto the GPIO pins of a Raspberry Pi.

What's in the box ?

1 x wired common cathode 10mm RGB LED
2 x wired Momentary Buttons
1 x Raspberry Leaf

Resources

Instructions(PDF)





(* Raspberry Pi NOT included *)

Awesome and fun, for adults and kids, this is a seasonal must if you're into your electronics and gadgets. This circuit is composed of 16 pcs LED (light emitting diode). The 16pcs LED divided into four groups, and each group has different flashing frequencies, when four groups flash together, this item looks like a small Christmas tree. The circuit is powered by a 9V battery.

Specifications

This circuit is simple and practical, low power consumption. It uses integrated circuits for driving: fewer parts, and the line is simple and easy to understand.

External Wiring Kit

With USB plug for easy replacement of parts at any time and conducive circuit debugging. Also allows us to deepen our understanding of the principles of the circuit in the debugging process.

 This project is in the form of an oscillation circuit by the cycle generated by the following principles:

• After the first charge, the capacitor C1 & C4 charging is complete.
• Capacitors C2 & C3 will continue to charge.
• When the transistor Q1 & Q4 is turned on at the same time, it discharges the capacitor C1 & C4.
• Capacitors C2 & C3 is fully charged, the transistor Q1 & Q4 will be closed, while also charging the capacitor C1 & C4 again.
• Transistors Q2 & Q3 is turned on while the capacitor C2 & C3 will be discharged.
• By analogy, the flash of speed is the oscillation frequency, and the frequency is determined by the resistor R & capacitance C values.

What's in the box ?

The below pic shows the parts in this DIY kit

Develop your coding skills with the Kitronik :MOVE Motor for micro:bit, a fun introduction to buggies and robotics.

The Kitronik :MOVE Motor for the BBC micro:bit provides a fun introduction to buggy robotics. More than just a programmable buggy, learning to use all of the included features will give the budding roboteer a solid grounding in robotics as a whole.

Learn about movement, how to utilise light and sound, obstacle detection and avoidance, and how to code :MOVE Motor to follow a line. When used in conjunction with the micro:bit's radio features, the possibilities are endless.

Attached to the chassis are two bi-directional DC motors with variable speed control. The wheels have rubber tyres and are a simple push-fit onto the motor shafts. Slot a BBC micro:bit into the edge connector and you are ready to code. There is no other assembly required and no tools required.

There are built-in battery holders for 4x AA batteries. This provides a regulated voltage supply to power the BBC micro:bit which is fed into the edge connector. There is also a power switch to conserve batteries when the buggy is not in use.

The micro:bit slots into the onboard edge connector. Code the micro:bit, plug it into the buggy, switch the power on, and then play.

CODE IT !

:MOVE Motor can be coded using the Microsoft MakeCode editor. Kitronik has produced a set of custom MakeCode blocks to simplify coding the completed buggy. The booklet that comes with the buggy contains more detailed instructions on using the blocks and writing code. If you are feeling more adventurous or relish a challenge, :MOVE Motor can also be coded with Python.

Also within the booklet (that comes inside the box), are some quick tutorials to get you started. There are also additional online tutorials and step by step guides for extra projects.

Note:

• This kit does not include a micro:bit, a micro:bit can be obtained from here.
• No soldering is required!
• Minimal assembly required.

Specifications

Features

• The Kitronik :MOVE Motor for the BBC micro:bit provides a fun introduction to buggy robotics and coding.
• It is backed up by a range of fun tutorials to introduce you to all of the great features.
• All of the tutorials and resources are free.
• There is no soldering required and assembly is quick and super simple.
• The buggy features two bi-direction DC motors.
• There are ultrasonic distance and line following sensors onboard.
• It also features a Piezo sounder and pen mount.
• There are 4 full-colour programable ZIP LEDs.
• Two pin outputs that are ideal for servo connections (can be used for other inputs and outputs).
• The battery holder is built onto the chassis.
• The buggy is also fitted with a power switch to conserve the batteries.
• There is also an onboard edge connector for the micro:bit, code, plug and play.
• Kitronik has produced custom MakeCode blocks to simplify coding with the MakeCode editor.
• You can also optionally add a pen for drawing or a robot claw 

What's in the box?

1 x :MOVE Motor chassis.
2 x Wheel and tyres.
1 x Booklet

You will also need....

1 x micro:bit
4 x AA batteries
1 x micro USB cable(to program the :MOVE)

Resources

• • Tech Talks Live Replay.
  • 6 Online MakeCode Tutorials.
  • Drawing Robot Tutorial.
  • Lights & Sound Tutorial.
  • Line Following Tutorial.
  • Motor Adjustment Tutorial.
  • Sensor Tutorial.

The FLIRC Raspberry Pi Zero Case is finally here - overly engineered, affordable and adorable!

The FLIRC Zero shares the same genetics as the original FLIRC case with some added features. FLIRC have kept everything that makes the original case great, shrunk it down, and added some nice elements that make this mini PC for every day carry.

The familiar aluminium casing with a core heatsink and smooth top is there, offering silent, passive and efficient cooling combined with great looks.

The SD Card is enclosed inside the case so it won't slip out or get stolen. The case needs to be disassembled before the SD card can be removed. There’s even a pre-installed lanyard included in the box in case you want to take your Zero somewhere other than the home.

Two top covers are included with the FLIRC Zero – allowing you to hide away and protect your GPIO, or leave it exposed for prototyping your projects. You can even add a pHAT without worrying about your Zero’s temperature.

Notes

1. The Raspberry Pi Zero’s LEDs are not visible with this case
2. Lanyard is removable (but fiddly to get back on)
3. Ships with a thermal pad – fit this to the case heatsink core before fitting your Raspberry Pi Zero

Which Pi Zero Models is the case compatible with?

The case will work with any Raspberry Pi Zero model, including the Raspberry Pi Zero 2 W

The Kitronik LAB:bit for the BBC micro:bit offers a super fun way for children to learn about coding in an engaging and hands-on way. It has been specifically designed for the classroom for KS2 computing and is backed by online MakeCode tutorials, simplified custom blocks, and a detailed getting started guide. Supplied in the box are; a battery holder (3 x AA),  a wheel and tyre for the motor, and the detailed easy to follow guide. 

The board is absolutely packed with an impressive array of features and devices for easy delivery of fun and informative lessons. These include; a motor, ultrasonic distance sensor, 2 x large user-assignable tactile buttons (with indicator LEDs), a microphone, speaker (with volume control), 7 programmable ZIP LEDs(in an arc), A user-assignable potentiometer control, 2 x sets of traffic light LEDs, and LEDs arranged in a dice formation (that can also be used for displaying digits).

The board also features; an edge connector for the micro:bit to slot into, a pre-fitted protective acrylic cover, clip-able pads for attaching an additional motor, 2 x clip-able pads for attaching further buttons/switches, Colour changing power indication LEDS, a cutaway for easy reset button access, and pre-fitted anti-slip rubber feet.

This all in one laboratory environment ships with a detailed getting started guide, filled with step by step information that can easily be followed by either teacher or pupil. The guide starts with an introduction to using a micro:bit and the MakeCode editor, with each explained in detail. This is then followed by instructions for fitting the wheel to the motor. Each area of the board is explained in detail, complete with code examples for each. As with the previous sections, this part of the booklet has been designed so that it can be used by teachers and pupils.

Coding is done via the MakeCode blocks editor. Kitronik has produced custom blocks for the editor to ensure that they are suitable for use with pupils aged 7-10. Each area of the board has its own blocks that all slot together in intuitive ways and they have been organised into subdirectories by type. For example, all of the blocks for the motor are in one submenu and blocks for the traffic lights are in another submenu. There is also an 'other' submenu that contains blocks for the more advanced/older students who require an extra level of challenge. Detailed information on how to add these blocks to MakeCode can be found in the Getting start guide that ships with LAB:bit.

Power is provided via the provided 3 x AA battery holder into the DC barrel jack input. The board has been rated for a maximum of 6V and a minimum of 3V, 3V - 4.5V recommended. The onboard power regulation circuit provides power to the board and to the micro:bit, removing the need to power the micro:bit separately. LAB:bit has an inbuilt polarity protection circuit for the DC input. There is a Colour changing power LED to indicate when the battery voltage is getting low.

• No soldering.
• Minimal mechanical assembly required. The wheel needs to have the tyre fitted and then to be fitted to the onboard motor.
• This kit is not supplied with a micro:bit. The micro:bit is available separately here.

• LAB:bit is an all in one educational platform designed for the delivery of KS2 computing in the classroom (7 - 10-year-olds).
• It's packed full of devices, LEDs, switches, sensors, and other programmable features.
• It features an edge connector for the micro:bit to slot into, no tools required.
• LAB:bit is supplied with a pre-fitted protective acrylic cover.
• Additionally, there are clip-able pads for attaching an additional motor, 2 x clip-able pads for attaching further buttons/switches, colour changing power indication LEDs, and a cutaway for easy reset button access.
• There are also pre-fitted anti-slip rubber feet to ensure that LAB:bit stays securely on the desk.
• Code it with blocks in the MakeCode editor.
• Kitronik custom blocks to make coding more intuitive and straightforward.
• Custom blocks are grouped by type to make it easy to go straight to the blocks you need.
• No soldering!
• Minimal mechanical assembly required.
• Supplied in the box are; a battery holder (3 x AA) and a wheel and tyre for the motor.
• Power LAB:bit via the provided 3 x AA battery holder.
• The board is rated for 3V - 6V.
• It has an inbuilt polarity protection circuit for the DC input.
• The onboard power regulation circuit provides power to the board and to the micro:bit, removing the need to power the micro:bit separately.
• LAB:bit is supplied with a fully comprehensive getting started guide. It takes you through everything you need to know and can be followed by both teacher and pupils.

By utilizing the new generation LoRa spread spectrum modulation technology, the communication distance of the module is as long as 5km, also supports auto repeating to transmit longer. Other features include Wake on Radio, wireless config, carrier sensing, communication key, and so on.

Comparing with normal LoRa modules, the SX1262 LoRa HAT achieves longer communication distance, higher rate, lower consumption, better safety and anti-interference. It is suitable for various applications such as industrial control, smart home, data collection, etc.


Features

• Standard Raspberry Pi 40PIN GPIO extension header, supports Raspberry Pi series boards
• Onboard CP2102 USB TO UART converter, for serial debugging
• Brings the UART control interface, for connecting host boards like Arduino/STM32
• 4x LED indicators, easy to check the module status
• LoRa spread spectrum modulation technology, up to 81 available signal channel, longer communication distance, more robust to interference
• Auto multi-level repeating, suit for ultra long range communication, allows multi network on the same region
• Low power consumption features like deep sleeping and Wake on Radio, ideal for battery-powered applications
• Customizable communication key which won't be retrieved, greatly improves the security of user data
• Supports LBT, monitoring the signal channel noise before transmitting, greatly improves the success ratio under extreme environment
• Supports RSSI signal intensity indicating, for evaluating signal quality, tuning the network
• Supports wireless parameter configuration, by sending wireless command/data packet, remotely configure or retrieve the module parameter
• Supports fixed-point transmission, broadcast, signal channel monitor
• Comes with development resources and manual (examples for Raspberry Pi/STM32)

1. SX1262 LoRa module
2. 74HC125V: voltage level translator
3. CP2102: USB TO UART converter
4. Raspberry Pi GPIO connector: for connecting with Raspberry Pi
5. USB TO UART port
6. UART header: for connecting host boards like STM32/Arduino
7. SMA antenna connector
8. IPEX antenna connector
9. Indicators:
   • RXD/TXD: UART RX/TX indicator
   • AUX: auxiliary indicator
   • PWR: power indicator
10. UART selection jumpers
    • A: control the LoRa module through USB TO UART
    • B: control the LoRa module through Raspberry Pi
    • C: access Raspberry Pi through USB TO UART
11. LoRa mode selection jumpers
    • short M0, short M1: transmission mode
    • short M0, open M1: configuration mode
    • open M0, short M1: WOR mode
    • open M0, open M1: deep sleep mode

What's in the box ?

1 x SX1262 868M LoRa HAT
1 x USB type A plug to micro plug cable
1 x 868MHz antenna

This Micro SD Card Bundle for the Raspberry Pi consists of a SanDisk Class 10 UHS-I Micro SD card preloaded with Raspberry Pi OS

Please Note. This Micro SD Card does NOT come with a SD Card Adapter, it is the Micro SD Card ONLY

The SanDisk 64GB Preloaded Micro SD Card Features:

• Superior Random-Access Performance - Perfect for the Raspberry Pi
• Capacity : 64GB
• Weight : Approx 0.2g
• Operating Voltage : 2.7 ~ 3.6V 
• Speed Class 10 A1
• preloaded with Raspberry Pi OS 64bit

What's in the box?

1 x Sandisk 64GB preloaded micro SD card

Resources

Latest image available from the Raspberry Pi Foundation Downloads
Raspberry Pi OS documentation

Version updates

20/10/2023 Bookworm 64bit
10/07/2023 Bullseye