Due to the global shortage of micro:bit boards we do not have an estimate on when they will be back in stock. If you are looking to get started with micro:bit we highly recommend picking up a SparkFun Inventor’s Kit for micro:bit if you want to get your hands on a board today! The BBC micro:bit is a pocket-sized computer that lets you get creative with digital technology. Each order contains just the micro:bit board. You can code, customize and control your micro:bit from anywhere! You can use your micro:bit for all sorts of unique creations, from robots to musical instruments and more. At half the size of a credit card, you will be surprised at the amount of hardware each board is equipped with, including 25 red LED lights that can flash messages. There are two programmable buttons that can be used to control games or pause and skip songs on a playlist. The micro:bit can even detect motion and tell you which direction you’re heading. It can also use Bluetooth Low Energy (BLE) to interact with other devices and the Internet.
Taking a closer look at the front of the board, we can see the 5x5 LED array that you can use as a light sensor, a tiny screen to draw on, display words, numbers and other information, and the two programmable buttons! On the back of the board you will find the brains of the micro:bit, a 16MHz, 32-bit ARM Cortex-M0 microcontroller with 256KB Flash, 16KB RAM and a built-in temperature sensor. Additionally, the back of the micro:bit is populated by an accelerometer, compass and Bluetooth Smart antenna, as well as a microUSB and two-pin JST connector for different power options. Finally, at the bottom of the board you will find 20 gold-tabbed edge pins and five ring connectors (three for digital/analog I/O, two for power and ground) for hooking up external components. The tabs with larger holes can be easily used with alligator clips to prototype added components quickly.
Micro:bit has even supplied an intuitive mobile app that lets you send your code to your micro:bit over Bluetooth (without using a USB cable) and more. With this app you will be able to interact with your micro:bit on a higher level of accessibility.
The Yellow power LED will not light if the board is connected to battery power only.
If you are looking for a the micro:bit part in Fritzing, you can find one in topShed’s GitHub repository .
If a board needs code or communicates somehow, you're going to need to know how to program or interface with it. The programming skill is all about communication and code.
Skill Level: Rookie - You will need a better fundamental understand of what code is, and how it works. You will be using beginner-level software and development tools like Arduino. You will be dealing directly with code, but numerous examples and libraries are available. Sensors or shields will communicate with serial or TTL.
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If it requires power, you need to know how much, what all the pins do, and how to hook it up. You may need to reference datasheets, schematics, and know the ins and outs of electronics.
Skill Level: Rookie - You may be required to know a bit more about the component, such as orientation, or how to hook it up, in addition to power requirements. You will need to understand polarized components.
See all skill levels
Based on 5 ratings:
2 of 2 found this helpful:
The echo system around the micro:bit is perfect for kids.
My 9 years old is very excited. He is not the “Young Engineer” type, but he loves to draw on the 5x5 LED matrix, print numbers and messages, interact with buttons.
As he loves gardening, the goal is to use the soil moisture detector and print its reading on the microbit.
We are using the Microsoft Block editor, which is just like Scratch, together with Microsoft automatic uploader.
1 of 3 found this helpful:
I was looking forward to getting these for my kids as an intro to programming. I am trying to get familiar with it before I show them. I am using a Google Pixel C (Android 7.1.2) and it has been a absolute pain in the neck pairing and flashing these things.
I have used the “official” Samsung Electronics UK ‘micro:bit’ app and Martin Woolies ‘micro:bit blue’ app.
The Samsung app can pair, but after restarting the micro it sometimes reconnects… and even that is unstable. It frequently disconnects and I have to manually reconnect it. Further, to actually flash with the Samsung app, I have to put it in pairing mode and just “hope” that it succeeds. Putting it in pairing mode to flash it is not even documents anywhere! Also, there is no option to flash a file stored on my tablet. It will only use the ones from the website.
I can’t tell how well the ‘micro:bit blue’ is communicating with the micro:bit, because I have to connect it to our desktop to flash their app to it… which I haven’t done yet. However, the connectivity seems flaky there too. But I admit I haven’t tried much more after finding out that it requires his apps to be installed to do anything at all… and it doesn’t have the ability to flash them to the device itself.
Right now I am struggling to get the micro:bit to re-pair using the Samsung app. I tried to pair just via the table/Android settings, but the app doesn’t recognize it even though the micro:bit shows the pairing was successful by displaying the check mark in the LED grid. Now, if I try via the Android Bluetooth settings, everything is successful, but the Samsung app pops up and says it isn’t ?!?!
… This is so frustrating …
I’m giving it two stars instead of one, because I’m “hoping” there is a solution. I can’t imagine that this would be geared towards kids to get them interested in this stuff. Hopefully it is just my current setup.
Sorry to hear about the issues with the Microbit.
Have you contacted our technical support department @ email@example.com - they’re usually great at helping to get things working, it may be something that they can help to fix.
The block language is ultra simple to learn and easy to use.
I am experiencing a problem when using its ability to measure a pilse width. I need to for example, connect to a Hc-SR04 ultrasonic transducer. However the duration of the echo pulse is read incorrectly yielding about 700 us when the actual period is about 1100us. I tested the microbit’s ability to measure an external pulse width, and it reads very inaccurately. I have logged a call with th help desk, but the info i am reciving rrom them is not helpful yet.
A couple of months back my nephew asked me if I could help him with his Science Project. He saw a few of the project I was working on: small rovers, some kind of clock, and an aquaponics system. He asked if I would help him build a rover. I was excited because it was an opportunity to get a kid into electronics that wasn’t a screen. As he started to explain what he wanted to do, it became clear he wanted to make the Mars Rover. I knew he was young and didn’t know what he didn’t know so to him it was possible in two months. After some discussion, I had him simplify his project down an aspect of robotics. He chose to talk about actuators. As we looked at what we could do with linear actuators his heart became set on an automated xylophone. The scary part for me was choosing a microcontroller or single board computer that would be simple for him to program. I knew he was familiar with Scratch on the Raspberry Pi, but I didn’t want him to have to set up a monitor mouse and keyboard at the fair with his project. As I pondered what could I use I remembered a new product post a while that featured the Micro Bit and the lets code platform. As I rewatched the post I knew I found the controller for his project. I then made the purchase. Not long after it came was he able to start the base programming. Through little coaching and his familiarity with Scratch, he was able to program the micro bit to play 3 songs: Marry Had a Little Lamb, Twinkle Twinkle little star, and Jingle Bells. We connected the micro bit to the xylophone apparatus; which was made of eight homemade solenoids and a children’s toy xylophone. We then connected some of GPIOs to N Channel Mosfet to control the solenoids. The one sang on this was, if the N channel fet was connected to a GPIO that shared the LED matrix the gate was held open. This was the only downside I have found. Here is a video of this project. https://www.youtube.com/watch?v=Ur4LeeBSdQI&feature=share I hope to produce an Instructable for it here shortly.
That is so cool!
Thanks for sharing your project with us. Keep us updated on how it goes, and we can’t wait to see what you and your nephew come up with next!
Your friends at SparkFun. :-)