Gadgets & Gift Ideas

With over four times the processing power and eight times as much RAM as the original micro:bit this new model opens up a world of new possibilities! We're especially excited about how well MicroPython will run on the new model where previously the limited RAM was a struggle.

• Upgraded processor (nRF52833)
• 64MHz Arm Cortex-M4 FPU (over 4 times faster!)
• 512KB Flash storage on board
• 128KB RAM
• MEMS Microphone with LED indicator and on-board speaker
• 5x5 LED matrix display
• Touch sensitive logo "button"
• Accelerometer/compass
• Light and temperature sensors
• Sleep/off mode for batteries powered projects (w/ LED indicator)
• Up to 200mA of current for external accessories
• Bluetooth 5.0 radio allowing micro:bits to talk to each other
• Notched edge connector (easier to connect things like crocodile clips and conductive thread)
• Dimensions: 52mm x 42mm x 11.7mm

It's the same shape and size so should be already familiar to countless teachers and learners, and also compatible with the vast majority of add-on boards and accessories.

It's programmed with beginner friendly, drag and drop interface MakeCode with the option to progress into MicroPython later on, opening up even more programming possibilities!

It's packed with inputs, outputs, sensors and radio communication features that can be combined into and endless variety of projects.

Inputs and outputs: An important part of any computer system. As a very small computer, the BBC micro:bit has plenty of inputs and outputs to learn about and use.

LEDs: An LED, or light-emitting diode is an output device that gives off light. Your BBC micro:bit has a display of 25 LEDs for you to program.

Buttons: A very common input device. Your micro:bit has two "clicky" buttons and a touch sensitive button you can program, and a reset button.

Radio: A way of sending and receiving messages and BBC micro:bits can use radio waves to communicate with each other.

Accelerometer: A motion sensor that measures movement. The accelerometer in your BBC micro:bit detects when you tilt it left to right, backwards and forwards and up and down.

Compass: An input sensor that detects magnetic fields. Your BBC micro:bit has an inbuilt compass that can detect the direction in which it is facing.

Light sensor: An input device that measures light levels. Your BBC micro:bit uses the LEDs to sense the levels of light and lets you program your micro:bit as a light sensor.

Temperature sensor: An input device that measures temperature. Your BBC micro:bit has a temperature sensor inside the processor which can give you an approximation of the air temperature.

Pins: On the bottom edge of your BBC micro:bit there are 25 gold strips, called pins. These pins allow you to really get creative. You can create circuits, connect external things like buzzers and motors and make your own fun projects.

Sound: Your BBC micro:bit can be programmed to make a wide variety of sounds - from single notes, tones and beats to your own musical compositions.

• Computer/laptop with Internet access

Resources

• Set up guide
• Using the LEDs and buttons
• Using the sensors
• Radio and Pins
• Project ideas

The micro:bit V2.2 has no less than six sensors onboard to create awesome projects:

• Motion
• Temperature
• Light
• Magnetism
• Sound
• Touch

More Resources

The BBC micro:bit is a pocket-sized computer that introduces you to how software and hardware work together. It has an LED light display, buttons, sensors, a speaker, microphone and many other input/output features that, when programmed, let it interact with you and your world.

Visit What is the micro:bit? to find out more or explore all the features in depth through short videos.

You will need a computer, tablet or phone to write and send code to the micro:bit, but once the code is on the micro:bit it works as a standalone device with just the battery pack. Visit getting started for support taking your first steps with the micro:bit.

The Micro:bit Educational Foundation produces free coding tools and teaching resources to support you as you explore the potential of the micro:bit:

• Choose your perfect programming tool in Let's Code:
  • Run whole class coding sessions easily with micro:bit classroom
  • Teach block-based coding with Microsoft MakeCode or text-based coding with the micro:bit Python Editor
• Explore our free resources for teachers including:
  • Quick projects for beginners and more advanced users
  • Curriculum-linked lessons and units of work
  • Professional development courses and events like webinars and code-alongs
  • Classroom resources such as student handouts, reward certificates and posters

As well as givings students a hands-on approach to coding, the micro:bit is an engaging classroom tool that gives students confidence to try new things and get creative with technology.

• Upgraded processor (nRF52833)
• 64MHz Arm Cortex-M4 FPU (over 4 times faster!)
• 512KB Flash storage on board
• 128KB RAM
• MEMS Microphone with LED indicator and on-board speaker
• 5x5 LED matrix display
• Touch sensitive logo "button"
• Accelerometer/compass
• Light and temperature sensors
• Sleep/off mode for batteries powered projects (w/ LED indicator)
• Up to 200mA of current for external accessories
• Bluetooth 5.0 radio allowing micro:bits to talk to each other
• Notched edge connector (easier to connect things like crocodile clips and conductive thread)
• Dimensions: 52mm x 42mm x 11.7mm

It's the same shape and size so should be already familiar to countless teachers and learners, and also compatible with the vast majority of add-on boards and accessories.

You will find loads of info, lessons, projects and other resources at https://microbit.org/get-started/first-steps/introduction/

Are you a teacher that need assistance or material to improve your classes? Have a look at the free resources for teachers



The BBC micro:bit is a pocket-sized codeable computer with motion detection, a built-in compass, LED display, and Bluetooth technology built in.

It measures 4cm by 5cm, is available in a range of colours, and designed to be fun and easy to use. It can be coded with something simple in seconds – like lighting up its LEDs or displaying a pattern – with no prior knowledge of computing.

It also connects to other devices, sensors, kits and objects, and is a companion to Arduino, Galileo, Kano, littleBits and Raspberry Pi, acting as a spring board to more complex learning.

Each element is completely programmable via easy-to-use software on a dedicated website that can be accessed from a PC, tablet or mobile.

We designed this GPIO PCB to assist you with the MicroPython introduction tutorial found on Raspberry Pi Foundation projects. No soldering required. We will be directing you with links to the different sections of the Raspberry Pi Foundation’s introduction while supplying the code and a few fun projects on our page right here.

• 1.42V 
• 4.2V±0.05V
• 3.65±0.05V
• 4.35±0.05V

• 2000mA*1
• 1000mA*2
• 700mA*3
• 500mA*4

USB Output function

1. 0pen-circuit voltage of USB output : 4.9-5.3V; and the 4th slot is fixed for the USB discharge power source
2. Output current: 1000mAh
3. Open circuit current: <1mAh
4. The corresponding voltage is 4.75-5.25V under 1000mAh current
5. Cut-off voltage for discharge protection: 3.0±0.1V

The first ever Code Club book is here! With it, you'll learn how to code using Scratch, the block-based programming language. In each chapter you’ll find instructions to build cool games, animations, and interactive stories. Your friendly robot guide will aid you step-by-step through each project and give you handy tips along the way.

• Learn to code using Scratch, the block-based language
• Follow step-by-step guides to create games and animations
• Use the magic glasses to reveal secret hints
• The spiral binding allows the book to lay flat 
• Includes 24 exclusive Code Club stickers!

 Specifications

The kit is accompanied by a set of (currently 6) downloadable worksheets (or lesson plans for you educators!) that will take you through a series of exercises and projects, teaching you how to make the most of your kit. Whats best is that there is no soldering required, each high quality component is breadboard friendly!

• 1 x Breadboard
• 1 x Immersible temperature Sensor
• 1 x PIR Sensor
• 1 x LDR
• 1 x Active Buzzer
• 1 x Red 10mm LED
• 1 x Blue 10mm LED
• 1 x 4.7K Resistor
• 2 x 330 Resistor
• 10 x M/F Jumper Wires
• 4 x M/M Jumper Wires
• 1 x Presentation Tin

• Make a burglar alarm for your bedroom.
• Switch on an LED when it gets dark.
• Have an alarm go off when it’s freezing outside.
• Test whether the light really does go off in the fridge when you shut the door.

• "CamJam Edukit 2 Launches at PiWars" - Raspi.tv
• "The CamJam EduKit 2 - Learn How To Use Sensors With The Raspberry Pi" - Average Man vs Raspberry Pi

All you need to do is to add your own chassis, Raspberry Pi (any model) & batteries! Then, follow the worksheets to make your own motorized buggy. Add the included sensors and you will soon be detecting objects in front of your robot and following line courses.

What's in the box?

A custom-designed, pre-soldered motor controller board (with screw terminals)
2 x DC motors (with wires pre-soldered)
2 x custom red wheels (which go extra fast… because they’re red!)
1 x ball castor (used as the ‘third wheel’ to your robot)
1 x small breadboard (to create your circuits)
2 x pieces of strong 3M padded double-sided tape
1 x battery box for 4 AA batteries (batteries not included)
1 x ultrasonic distance sensor (for detecting objects in front of your robot)
1 x line follower sensor (for detecting and following black lines)

Resistors and jumper cables with which to complete your circuits
A strong cardboard box to keep it all in… or to cut into to make your chassis!

Resources

All the worksheets are freely available to download from http://camjam.me/edukit

Got a 3D printer? Daniel Bull has very kindly designed an awesome chassis, available from Thingiverse ..



Alex Eames over at Raspi.TV got his hands on a prototype, here's what he did!
https://youtu.be/LJDEV7rGwaM

And here's a fantastic unboxing video from Average Man vs Raspberry Pi!
https://youtu.be/KPYWNXiItwo

And another review! This time from TheRaspberryPiGuy! Thanks Matt!
https://youtu.be/TMjd0UrH2PY

• Material: Copper plastic.
• Laser shape: dot.
• Outer diameter: 6 mm.
• Wavelength: 650nm.
• Working voltage: 3V.
• Total length: 9cm/3.54inch
• Wavelength: 650nm
• Operating Current: less than 20 mA
• Output Power: 5mW
• Housing material: High quality Copper
• Dimensions: 6.5 x 18mm
• Working temperature: -10 degree-40 degree
• Lens and housing: Plastic
• Wire connection: Red wire connect to Positive, Blue wire connect to Negative

This Starter Kit is based around the Arduino Compatible Uno development board which features the AVR ATmega328 microcontroller. The kit includes a getting started book to guide you throught the process of using your Arduino for the first time. Starting the basics of electronics, to more complex projects, the kit will help you control the physical world around you.

What's in the box?

• UNO R3 MEGA328P ATMEGA16U2 Arduino Compatible board including USB cable
• 9V 1A AC to DC Power Supply for Arduino
• Mini Breadboard - White
• 120Pcs 10cm Breadboard Jumper Cable Kit
•  The GET STARTED WITH ARDUINO book.

Who is it designed for?

The Arduino Uno Starter Kit is suitable for almost all ages. It is designed for those who are new to Arduino and electronics, and is designed to introduce you to the world of code, circuits and breadboards.However, even if you’re an experienced designer, the Arduino Starter Kit is a great way to tinker about with the different functionalities of the Arduino Uno.

The Arduino Community

The Get Started with Arduino Book is there to help but there is also a huge community surrounding Arduino. So, if you are ever stuck or require some guidance with your projects, the Arduino site is full of content to keep you going. Or, if you find you are stuck for ideas to tinker about with, there’s plenty of projects on the site to give you some inspiration

The Get Started with Arduino book features the following projects to get you started:

• Reading digital data on the Arduino
  Hardware: Monumentary push-button, 1 x 10k ohm resistor
• Seven-segment Displays and multidimentional arrays
  Hardware: single-digit 7 segment display, 7 x 220 ohm resistors
• Multiplexing, operators and four seven-segments
  Hardware: 1 x 4 digit 7 segment display, 7 x 330 ohm resistors
• Temperature, humidity and libraries
  Hardware: , 4 digit 7 segment display, 7 x 330 ohm resistors
• Stacks, classes and scrolling displays
  Hardware: DHT11, SSD1306 OLED
• Pointers and linked lists
  Hardware: DHT11, SSD1306 OLED
• Building a games console
  Hardware: Joystick, SSD1306 OLED
• Sound, envelopes and interrupts
  Hardware: Speaker, Monumentary push-button, 10 k resistor, Buzzer
• Copy and send infrared signals
  Hardware: Monumentary push-button, 10k resistor, IR reciever diode IR transmitter photodiode

We do also stock enclosures for the Arduino

MicroPython is a full implementation of the Python 3 programming language that runs directly on embedded hardware like Raspberry Pi Pico. You get an interactive prompt (the REPL) to execute commands immediately via USB Serial, and a built-in filesystem. The Pico port of MicroPython includes modules for accessing low-level chip-specific hardware.

What is Raspberry Pi Pico?

Raspberry Pi Pico, a microcontroller board built on silicon designed here at Raspberry Pi.




Your official guide

 What's in the box?

1 x Pico MicroPython book

1. Most of the students do not have basic knowledge in electronics.



2. They do not understand the circuit diagram at the beginning of the Arduino lesson. They will spend a substantial amount of time just to connect the wires and troubleshoot the connections.

3. It's a mess after every class. The teacher has to sort and make sure nothing is missing. What a tedious job and a waste of time! 

Students can skip the hassle of constructing the basic electronic circuit which is boring and time consuming. Although it is equally important for them to learn about basic electronics, it can always come later after they have experienced how easy it is to create awesome project. Start with fun and excitement. Start coding right away and see your board lights up and plays melody with the press of a button. 



With the conventional Arduino boards, students also face another common problem - difficulty in troubleshooting their circuit. This is because when it doesn't work, we do not know whether the problem is due to wire connection or coding.



With Maker UNO, the problem is solved! Not only do the onboard LEDs work as outputs, they can also act as indicators, clearly showing what's happening on that pin. When the pin is used as input, you can clearly see whether the signal is received by just looking at changes on the LEDs. 

Additional Features

One of the brilliant features of the official Arduino Uno is the label printed on its pin headers. It saves us a lot of time when we want to connect the I/O pins to the external circuit. So, we include a set of these label stickers for pin headers in each of the Maker UNO! (Please note that you need to peel off the stickers and stick them on your Maker UNO by yourself)



Students always get their boards mixed up. With Maker UNO, you can write your name on the board. Problem solved!



Maker UNO uses the common Micro USB cable which is basically everywhere.



Don't throw your box away! There is a small opening on the box for you to plug the USB cable so that you can keep your Maker UNO safely in the original box, no additional casing required.

Specifications

Maker UNO is fully compatible with Arduino. You can share the same library and code. We put in 12x LEDs, 1x piezo buzzer and 1x programmable button on the Maker UNO. We have removed the DC jack power input socket as most of the boards used in classes are powered using USB. We have also replaced the ATmega16u2 with CH340 to bring down the cost.

Documents:

• Maker UNO User's Manual
• Maker UNO Edu Kit Getting Started Module
• Maker-UNO Schematic
• Maker-UNO Fritzing File
• CH341 driver
  • Windows
  • Mac OS
  • Linux (Normally is readily installed)

Tutorials:

• Getting Started with Maker UNO (video)
• Maker UNO Projects

Related links:

• Maker UNO's Default Program
• Arduino IDE Download
• How To Program Arduino (Maker UNO) Using Atmel Studio
  • Introduction Atmel Studio 7 is the integrated development platform (IDP) for developing and debugging all AVR® and SAM microcontroller applications. The Atmel Studio 7 IDP gives you a seamless and easy-to-use environment to write, build and debug your applications written in C/C or assembly code.
• Program Maker UNO using Chromebook

Description

This package offers a year-long robotics course. The course commences with the fundamentals of robotics and coding as well as the importance of simulation.

Once the fundamentals are covered, students take part in a practical project where they’re required to build an automated hand sanitiser. An infra-red sensor will detect a hand and the system will discharge a small amount of soap or sanitiser. The second project in the course is a practical project called the Home Automation System. In this project, students will demonstrate the practical application of servo motors, temperature sensors, infrared sensors, fans, buzzers, lighting and a security system feature in a home automation system.

After completing these two practical projects, the course will introduce students to the world's most popular coding language: Python. Throughout the course, students will learn how to develop several applications such as Tic Tac Toe, Hangman and Pong. They’ll also be introduced to libraries such as Turtle to help grow their understanding of how programming works and how code is read by the computer.

OVERVIEW:

The Resolute Beginner’s Kit is a great way to get started in the world of robotics and coding. It includes all the components required to build projects like the Automated Hand Sanitiser, the Home Automation System and much more. There are also fun challenges to test the students’ understanding of what they’ve learned. This kit gives you access to an online platform where step-by-step video instructions are provided to help you learn and build with ease.

Additional Requirements:

• Internet Connection
• Laptop, PC or Mac
• 1.4 GHz CPU or higher
• Minimum of 10GB free storage on your device
• Recycled Material (such as cardboard)
• An Interest to Learn.

FEATURES:

• Video-based learning for each project, task and concept taught in the course. 
• Plug and play: No soldering required, build your circuit in minutes.

Components:

• Arduino Uno
• Digital Multimeter (9V Battery Banana to crocodile cable included)
• Mini Screwdriver Set
• DC Motor Water Pump
• DC / DC Buck (LM2596)
• Analog Temperature Sensor Module
• Brushless Fan DC 5V
• AC Power Supply
• Reed sensor module (with Mini Magnets)
• Tubing
• Breadboard x 2
• 20cm Male-to-Female Jumper Cable x 2
• 65pcs Male-to-Male Jumper Wires x 2
• MG90S Metal Gear Micro Servo x 2
• Relay (5V 1 Channel Module) x 2
• 9V Battery Button Power Cable x 2
• USB Extension Cable
• Active Buzzer x 2
• Infrared Sensor x 4
• Push-button Pack
• Resistor Pack
• Variable Resistor Pack
• LED Pack
• RGB LED x 2
• Phototransistor
• Extra wires (8 core solid wire) for Breadboard use

ADDITIONAL INFORMATION:

https://youtu.be/rzSd97NkbEY