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Make a paper octopus that retracts its tentacles.

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Curso del profesorado de microbit de escuela 4.0 desde la comunidad de Aragón.

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Escuela 4.0: BBC micro... | Librería CATEDU

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Curso de introducción al uso en las aulas de educación primaria y de educación secundaria obligatori...

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Create AI on your BBC micro:bit using movement and machine learning

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Shared by Chris LOVELL | Secondary School Teacher (11-18)

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Learners create a Space Invaders game on the micro:bit.

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Guía para programar la tarjeta microbit en python

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Guía para programar la tarjeta microbit en python

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The Beginners Guide To The New micro:bit Python Editor

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This morning, Monday 3rd October, saw the release of the new micro:bit Python Editor by the micro:bit Educational Foundation. This guide has been produced to help you get going straight away. This guide also contains a video that walks you through the basics. Find out more…

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micro:bit（マイクロビット）は、教育用に開発された小型のコンピュータボードです。小さな基板には、25個のLEDやボタン、加速度センサーや電子コンパスなどが搭載され、ブロックエディターで簡単にプログラミングすることが出来ます。個人開発で作られたmicro:bit（マイクロビット)の作品例をみていただくと、面白い使い方をしたものもあるので、是非参考にしてみてください。

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“Libby” the Literary Micro:pet - Tinkercad

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Bring learning to life for every grade and every subject with Tinkercad.

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Fourth in the Simple Servo Kit make series is a fun little remote control car! Using the radio functions on the BBC micro:bit you will make the two servos respond to various inputs on a micro:bit being used as a remote control.

Follow Emma's process and make your own simple radio controlled car for the BBC micro:bit.
See the other makes in the Simple Servos Starter Pack series: We Have Used:
Step 1 - Cutting out the car parts:

There is a base to either laser cut from cardboard or print and cut with scissors, so this part is on both a dxf and the pdf. The printable body of the car is on the pdf also, so you can print and cut this.

You can design your own car, and we suggest putting a boot (trunk) on it for easier access to the micro:bit.

Step 2 - Attaching the servos:

Attach two 360-degree servos to the base using zip ties through the small holes at the back of the base, with the output shafts pointing outwards.

Step 3 - Adding the front 'wheel':

Push a ping pong ball into the hole at the front of the chassis.

Step 4 - Adding the :CREATE Simple Servo Board:

Attach the servo leads to the :CREATE Simple Servo Board and make a note of which side is plugged into which numbered servo output. Insert batteries, and then use an elastic band to hold the board against the base.

Step 5 - Wheels and servo setup:

Before you screw the wheels on, simply push them on to the output shafts and make sure your continuous servos are adjusted to go at the same speed. This can be done by adjusting the small screws on the back of the servos, as per this blog.

Step 6 - Decorations:

Once all the hardware is in place, the decorative printed body can be glued to the front and back of the base.

Step 7 - The Code

Code your micro:bits! This make uses two: one as a remote and one to output the signals as motion on the servos.

This code outputs diﬀerent numbers via the radio from the remote micro:bit which the micro:bit in the car receives. This second micro:bit receives the numbers from the remote micro:bit, and depending on the number received the servos will perform a particular action (or the buzzer, in one case).

Once coded, the remote micro:bit can be powered using a small battery cage with a jst connector. You can edit the speeds of the servos to your preference!

Step 8 - Plug in and test:

Plug the car's micro:bit into the edge connector on the Simple Servo Board, turn it on, and start driving!

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How to Make an RC Car with the Simple Servos Starter Pack for BBC micro:bit

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Fourth in the Simple Servo Kit make series is a fun little remote control car! Using the radio functions on the BBC micro:bit you will make the two servos respond to various inputs on a micro:bit being used as a remote control. Follow Emma's process and make your own simple radio controlled car for the BBC micro:bit.

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CONTROL DE MICROBIT CON BLUETOOTH (MÓVIL O TABLET)

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CONTROL DE MICROBIT CON BLUETOOTH (MÓVIL O TABLET)

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Micro:Bit Control App - CARDBOARD ROBOTS

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LOFI Control fo Micro:Bit is a mobile and desktop app that lets you control your Micro:Bit robots via Bluetooth

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micro-bit/maqueen.md at main · astrojc/micro-bit

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Prácticas de programación y robótica con micro:bit.y maqueen - astrojc/micro-bit

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Prácticas de programación y robótica con micro:bit.y maqueen - micro-bit/microbit.md at main · astrojc/micro-bit

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Construye tu Propio Juego de Arcade: Tutorial de Kit Impreso en 3D con MICROBIT

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🎥 “Crea un Escape Room con micro:bit | Proyecto fácil y divertido para el aula o casa

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Introduction: MicroBit Concentration Game

This Instructable will show you how to make a concentration game using a MicroBit. This is going to create a metal shape and wand to have a reaction when the wand touches the metal shape. Inspired by carnival games and wanted to challenge my students.

Supplies

Items needed:
MicroBit - any MicroBit will do. I have sets from FiriaLabs that come with everything you need, but you can also get MicroBits from their website or Amazon. (any option should include the battery pack)

Battery Pack - should be included when you buy MicroBit

Speaker (optional)- if you want it to make a sound when touched. I used the one that FiriaLabs puts in the box.

Alligator Clips - (2-4 needed one should be long) I used 39" long set from amazon. If you want a buzzer you will need 4 alligator clips.

Metal Wire - I used floral wire from the DollarTree any should do, in store you can buy just one for a dollar.

3 D printer for base - I made a base to hold all items in TinkerCad and printed on a MakerBot printer.

Step 1: 1. Make Your Metal Shape

I used floral wire from the Dollar Tree and searched Google to find paperclip shapes, you can also search for silhouettes. While this shape has a nice outline, I only need the outline and would want the start and stop point to be around the foot, so it will stand on my base. Start by bending your metal around your outline to make your shape. You need to have an extra couple inches hanging down from your shape for the beginning and end. This will allow you to connect the alligator clips to the shape. (I find it helpful to print the image and bend wire on a flat surface.

Step 2: 2. Make a Wand

Next you will need to make a wand. I use the same floral wire as in the first step. I just took a long piece of wire and bent in half turning the wire around to make the handle. Make sure to leave the loop large enough to go around the metal figure. You can also just make a loop at the end if you are short on wire.

Step 3: 3. Make the Base to Hold Everything

I used TinkerCad CodeBlocks to make this shape. The STL files are also attached.

You will need to Click on "CodeBlocks" on the left hand side. Then you can use my code, I have made comments where you may need to change the code. I also made a base in regular TinkerCad ("Baker MicroBit Challenge Base") also attached.

Step 4: 4. Program Your MicroBit

I used Firia Lab's CodeSpace to write my code. This program has a free option but lessons and more options come when you purchase your MicroBit from them. This is a Python based code and you can see the code below. The code says to make a big X turning lights on and off. Then start with a smile face, if the wand (Which is attached to port 0) touches the shape (which is attached to port 1) then show X and make a sound.

from microbit import*
import music

big_x = Image( "90009:" "09090:" "00900:" "09090:" "90009:")

def start_alarm(cause): music.play(music.FUNERAL, wait=False, loop=False)

display.scroll(cause, wait=False, loop=True )

def stop_alarm():

music.stop()

display.clear() pin1.set_pull(pin1.PULL_UP) # Make sure pin is "pulled high" normally

while True: if pin1.read_digital() == 0: # Is this pin being "pulled low" by the wand?

start_alarm("Test")

display.show(big_x)

else:

display.show(Image.HAPPY)

Step 5: 5. Connect Everything

The metal shape will fit in the holes on the top of the base. You need to have the wire feed through the hole, connect an alligator clip to port 0 and the other end to the metal shape(there should be some hanging down inside the base). Then connect the wand to the GND (ground), I find it helpful to have a long alligator clip for this, it allows you more flexibility to go around the shape. If you are wanting to add sound, you will need to add a speaker with alligator clips to port 1 on one side and the other side of the speak is also clipped to the GND. The battery pack fits on the shelf in the bottom of the base.

MicroBit will show a Smile until the wand touches the shape. Then you will see an X and if you have the speaker attached it will make a sound.

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MicroBit Concentration Game: This Instructable will show you how to make a concentration game using a MicroBit. This is going to create a metal shape and wand to have a reaction when the wand touches the metal shape. Inspired by carnival games and wanted to challenge my student...

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Creación de robots sencillos de cartón, con instructables.

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Easy Robotics With Cardboard and BBC Micro:Bit

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Easy Robotics With Cardboard and BBC Micro:Bit: Who are cardboard robots for?
CARDBOARD ROBOTS is a set of free robot plans and building techniques easy to replicate worldwide with recycled materials and basic electronic components. Designed to be made at school with students aged from 10 years o…

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ROBOT LUCHADOR CON GLOBO CONTROLADO CON SERVO Y 2 MICROBITS

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ROBOT LUCHADOR CON GLOBO CONTROLADO CON SERVO Y 2 MICROBITS

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Desarrollamos nuestro proyecto: ROBOT LUCHADOR

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Utilizar el movimiento y el aprendizaje automático

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IoT:bit is an expansion board based on IoT for micro:bit. It uses ESP8266 as WIFI expansion board and serial port to communicate with micro:bit. It also has extended all available IO port of the micro:bit which is leaded by GVS and you can extent various 3V E-blocks as LED, photosensitive and servo by using it. At the same time, the IOT:bit with an on-board buzzer for outside sound and an on-board RTC clock for timing without power supply. Let’s creating your own IoT by makecode!

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Explorando a visão robótica!   Turmas de robótica do 8º ano mergulhando na programação com Micro-bit e servo motores. Veja como nossos alunos dão vida aos olhos humanos em seus projetos! #Robótica #Microbit #Inovaç

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Free robot designs for education - CARDBOARD ROBOTS

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CARDBOARD ROBOTS is a set of free robot plans and building techniques easy to replicate worldwide with recycled materials and basic electronic components and BBC Micro:Bit board.

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Micro:bit DIY Smart Watch: This Watch is designed for beginner users or learners of the micro:bit, or those who just want to make a basic smart watch for fun. This is designed with Microsoft’s Makecode, an online graphical programming platform to write programs to customise t…

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Tutorial micro:bit - Juego de reacción - Uso de pines - 1 micro:bit y 2 jugadores - Botón de cartón

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ROBOT DE CARTÓN CON OJOS DE ARTICULADOS DE BOLAS DE PIN PONG CON MICROBIT

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ROBOT DE CARTÓN CON OJOS DE ARTICULADOS DE BOLAS DE PIN PONG CON MICROBIT

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“High-Fivey” the Cardboard Micro:bit Robot : 18 Steps (with Pictures) - Instructables

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“High-Fivey” the Cardboard Micro:bit Robot: Stuck at home but still have a need to high-five someone? We made a friendly little robot with some cardboard and a micro:bit along with the Crazy Circuits Bit Board and all she wants from you is a high-five to keep her love for you alive.
If you li…

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PIEZAS PARA EL JUEGO OPERACIÓN CON MICROBIT

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PIEZAS PARA EL JUEGO OPERACIÓN CON MICROBIT

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Como mis sobrinas tienden a perder piezas, aquí están algunos repuestos del famoso juego “Doctor Maboul” (Operación en inglés). podemos imprimir todo a la vez o cada pieza por separado: -La manzana de Adam -Os de deseos -corazón roto -Os eléctricos -Costillas de risa -Mariposa cosquilleante -El calambre del escritor -Rebanada de bollos -Fiebre de caballo -Agua en la rodilla -Llave al tobillo -(conexión del tobillo a la rodilla (elástica)) También añadí una pieza antigua (que ya no existe hoy en día): Congelación del cerebro. --------- Como mis sobrinas tienden a perder monedas, aquí están los repuestos del famoso juego “Operación”. puedes imprimir todo de una vez o cada pieza por separado: -La Manzana de Adam -Hueso de los deseos -Corazón roto -Hueso divertido -Separar las costillas -Mariposas en el estómago -Calambre del escritor -Rebanada de la cesta de pan -Caballo Charlie -Agua en la rodilla -Tobillo mellado -(hueso del tobillo conectado al hueso de la rodilla (banda elástica)) También añadí una pieza antigua (que ya no existe hoy en día): Congelación del cerebro --------- Hecho con ThinkerCAD: https://www.tinkercad.com/things/gD6NNx0gOGR

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🛏️​ Crea tu propio juego "Operación" con MicroBit | Tutorial paso a paso 🛠️✨

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Micro:bit- LEDs Neopixels: Práctica 08- Arcoíris y luminosidad

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Os presento una nueva práctica de programación de la placa micro:bit con Makecode for micro:bit para el control de una tira o anillo de LED…

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MakeCode for micro:bit - Programmable LEDs

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GitHub - MrL832/mrlovell-microbit-python: A repository for python games on the micro:bit

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A repository for python games on the micro:bit. Contribute to MrL832/mrlovell-microbit-python development by creating an account on GitHub.

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machine learning tool - BBC micro:bit - the next gen

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Use our free machine learning tool as part of BBC micro:bit - the next gen's playground survey investigation. Explore machine learning, by training a computer model with your own data, then testing it to see if it works.

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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For this challenge we are creating a game of Tetris to play on the BBC micro:bit.

The game will be based on the following four shapes:

The game will use the following inputs:

Button A: Move current brick to the left

Button B: Move current brick to the right

Button A and B simultaneously: Rotate current brick clockwise

Video Demo

The game will use the LED screen which consists of a 5×5 grid of 25 LEDs.
Each LED can be on (value: 9 for maximum brightness) or Off (value: 0)
The side/borders of the grid will note be displayed.

The Python code will use 2-dimension arrays (list of lists in Python) to store the main grid (7×5) and the current brick (2×2)

To test this code you will need to use the Python Editor from the micro:bit website.

Python Code

#Store a list of 4 bricks, each brick is a 2x2 grid

#select a brick randomly and position it at the center/top of the grid (y=0,x=3)

#A function to return the maximum of two values

#A function to hide the 2x2 brick on the LED screen

#A function to show the 2x2 brick on the LED screen

#A function to rotate the 2x2 brick

#Check if the rotation is possible

#A function to move/translate the brick

#Check if the move if possible: no collision with other blocks or borders of the grid

#If the move is possible, update x,y coordinates of the brick

#Return True or False to confirm if the move took place

#A function to check for and remove completed lines

#check each line one at a time

#If 5 blocks are filled in (9) then a line is complete (9*5=45)

#Increment the score (10 pts per line)

#Remove the line and make all lines above fall by 1:

#Main Program Loop - iterates every 50ms

#Every 15 frames try to move the brick down

#The move was not possible, the brick stays in position

#The brick has reached the top of the grid - Game Over

#select a new brick randomly

Note: When testing this code, you may want to remove some of the #annotations especially if your micro:bit returns a "memory full" error.
Tagged with: BBC micro:bit

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For this challenge we are creating a game of Tetris to play on the BBC micro:bit. The game will be based on the following four shapes: The game will use the following inputs: Button A: Move current brick to the left Button B: Move current brick to the right Button A and B simultaneously: Rotate current brick clockwise Video Demo The game will use the LED screen which consists of a 5x5 grid of 25 LEDs.

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Welcome to my 'Tin Foil Electronics' block of lessons for the micro:bit. I have chosen some excellent electronics projects from across the micro:bit community and made them as simple and easy as possible to be re-created in the classroom.

I have purposely limited these projects to only use readily available items. You will only need crocodile clips, tin foil and plenty of cardboard/paper. No additional accessories for the micro:bit are required.

These lessons are designed for use for learners in P5-7 but could easily be used with older learners. Each of these contain:

A full lesson plan with links to all the completed code and videos used in the lesson (I suggest reading this first).

A Teacher PowerPoint which includes embedded videos for each lesson, code and question prompts.

A learner's links document including links to code (this could be posted in your Google Classroom/Team/Shared Drive for learners to access during the lesson).

Relevant Worksheets for some lessons.

The suggested timing for these lessons is 1-2hrs depending on your learners and how complex you want to make the projects. You are likely to spend longer on some than others. I've made them progressive but you don't necessarily need to cover them in order.

With all these projects there is scope to increase the complexity such as adding LEDs and servos. There are also many other projects out there that put together the skills learnt in this block to create really amazing creations. Check some of them out on my Ideas and Inspiration Padlet HERE.

If you have completed these lessons with your learners, explore my other resources HERE.

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Welcome to my 'Tin Foil Electronics' block of lessons for the micro:bit. I have chosen some excellent electronics projects from across the micro:bit community and made them as simple and easy as possible to be re-created in the classroom. I have purposely limited these projects to only use readily available items. You will only need...

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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Taller de Microbit

Taller de Microbit

¡Vamos!

Estimula tus sensores

Yeah!

Sobre ruedas

Yeah!

Lectoescritura

Seguridad

Emociones

Lectoescritura y programación en infantil

Yeah!

Brújula

Yeah!

Versión de Ivan

Sorteo de navidad

Versión del común de los mortales

Sorteo de lotería

Yeah!

y...

El micrófono en 3 niveles

Yeah!

¡3!

Ruidómetro programable

Yeah!

Play

¿Algún voluntario?

vaMOS A RELAJARNOS CON UN POCO DE MAGIA

https://makecode.microbit.org/---multi

¡Magia!

Yeah!

Balizas

Yeah!

Maqueen

Yeah!

Buscabombas

Yeah!

Mentorias

Sorteo de navidad

Evidencias

Proyecto tomate

Taller de sigilo

¡Cositas!

Yeah!

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Taller Microbit II Congreso Nacional Tecnología e ingeniería

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¡Vamos! Estimula tus sensores Lectoescritura Seguridad Emociones Sorteo de navidad Play ¿Algún voluntario? vaMOS A RELAJARNOS CON UN POCO DE MAGIA https://makecode.microbit.org/---multi Mentorias Sorteo de navidad Evidencias Proyecto tomate Taller de sigilo

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Prácticas de programación y robótica con micro:bit.y maqueen - micro-bit/microbit.md at main · astrojc/micro-bit

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Colección de prácticas microbit realizadas con Tinkercad.

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A milky-monster like robot built with the micro:bit

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Ficha para docentes

TAREA: Realizamos un programa que nos permite calcular el área del círculo y perímetro de la circunferencia a partir del radio de los mismos. BLOQUES INVOLUCRADOS: Mostrar cadena y número, variables, presionar pin, presionar botón, bloques matemáticos DIFICULTAD: baja TIEMPO DE REALIZACIÓN: 25 minutos

Ficha para docentes

TAREA: Realizar un programa simple para practicar la temática de Probabilidad. BLOQUES INVOLUCRADOS: Básico, Entrada, Matemáticas. DIFICULTAD: Básica. TIEMPO DE REALIZACIÓN: 30 minutos.

Ficha: escritura serial 2

TAREA: Trabajamos con escritura serial y analizamos gráficos con el modo consola del simulador. BLOQUES INVOLUCRADOS: “serial escribir línea” , “temperatura”, “para siempre”, “pausa” DIFICULTAD: Media TIEMPO DE REALIZACIÓN: 30 minutos

Ficha: escritura serial

TAREA: Trabajamos con escritura serial y lo analizamos con el modo consola del simulador. BLOQUES INVOLUCRADOS: “serial escribir línea” , “al presionar botón...” , “establecer...(variables)” DIFICULTAD: Media TIEMPO DE REALIZACIÓN: 35 minutos

Ficha para docentes

TAREA: Realizamos un juego para trabajar con las vocales en distintas palabras. BLOQUES INVOLUCRADOS: Mostrar cadena, variables, escoger al azar, condicional Si...entonces, puntuación, arreglos. DIFICULTAD: alta. TIEMPO DE REALIZACIÓN: 45 minutos

Ficha para docentes

TAREA: Realizar un programa para practicar las Habilidades mentales (¨mental skills¨) relacionadas a la matemática. BLOQUES INVOLUCRADOS: Básico, Entrada, Variables, Matemáticas. DIFICULTAD: Media. TIEMPO DE REALIZACIÓN: 40 minutos.

Ficha para docentes

TAREA: Realizamos un juego para trabajar con el concepto matemático de las fracciones. BLOQUES INVOLUCRADOS: Mostrar cadena, variables, escoger al azar, condicional Si...entonces, puntuación, arreglos. DIFICULTAD: alta. TIEMPO DE REALIZACIÓN: 40 minutos

Ficha para docentes

TAREA: Realizar un programa de clasificación de palabras según su acentuación con tildes. BLOQUES INVOLUCRADOS: Básico, Entrada, Lógica, Arreglos, Matemática, Variables. DIFICULTAD: Media. TIEMPO DE REALIZACIÓN: 35 minutos.

Ficha para docentes

TAREA: Realizamos un juego para trabajar con el concepto matemático de los múltiplos. BLOQUES INVOLUCRADOS: Mostrar cadena, variables, escoger al azar, condicional Si...entonces, resto de ... TIEMPO DE REALIZACIÓN: 30 minutos DIFICULTAD: media

Ficha para docentes

TAREA: Realizar un programa para practicar las Tablas de Multiplicar. BLOQUES INVOLUCRADOS: Básico, Entrada, Variables, Matemáticas. DIFICULTAD: Media. TIEMPO DE REALIZACIÓN: 25 minutos.

Guía paso a paso

Proyecto que articula entre la placa programable micro;bit y la música al crear una guitarra eléctrica de 4 trastes, customizable.

Guía paso a paso

Utilizando 2 micro:bits, algunos sensores y elementos externos, se crea un invernadero pequeño.

Guia paso a paso

Utilizando 2 micro:bits y algunos sensores externos, se crea una estación meteorológica completa.

Ficha para docentes

TAREA: Graficamos el nivel de luz y lo analizamos con el modo consola del simulador. BLOQUES INVOLUCRADOS: Para siempre, Plot bar graph of ... up to ..., Nivel de luz, Modo consola del simulador TIEMPO DE REALIZACIÓN: 25-35 minutos DIFICULTAD: Avanzada

Ficha de trabajo para lengua

TAREA: Realizar un programa de clasificación de palabras según su acentuación con tildes. BLOQUES INVOLUCRADOS: Básico, Entrada, Lógica, Bucles, Variables. DIFICULTAD: Avanzada. TIEMPO DE REALIZACIÓN: 40 minutos.

Ficha de trabajo para matemáticas

TAREA: Realizar un clinómetro y calculadora de proporciones BLOQUES INVOLUCRADOS: Básico, Entrada, Matemática, Variables DIFICULTAD: Avanzada TIEMPO DE REALIZACIÓN: 25 minutos.

Contador circular controlado con botones

TAREA: realización de un contador circular controlado con botones. BLOQUES INVOLUCRADOS: Básico / Entrada / Lógica / Variables. DIFICULTAD: avanzada. TIEMPO DE REALIZACIÓN: 25 minutos.

Ficha de trabajo micro:bit

Descargá este recurso de educación combinada para trabajar tanto en el aula como a distancia y poder plantear actividades a tus estudiantes.

Alarma de pérdida de luz

Actividad completa para descarga. BLOQUES INVOLUCRADOS: Básico / Entrada / Lógica / Música DIFICULTAD: media TIEMPO DE REALIZACIÓN: 20 minutos

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Cómo crear un personaje de candombe con micro:bit

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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Micro:bit is a tiny programmable computer that can be used by students of all ages in a variety of subjects. Its versatility makes it an excellent tool for integrating different subjects, from computer science to mathematics, art, and even music.

With its user-friendly interface, Micro:bit can help students develop skills in coding, critical thinking, problem-solving, and creativity. Its compact size and affordability make it accessible to all, allowing students to explore technology and learn in a fun and engaging way.

It is a versatile and powerful tool that can enhance the learning experience for students of all ages and backgrounds. Its integration with different subjects makes it an indispensable tool for educators looking to engage their students in new and exciting ways.

Micro:Bit V1 Learning Book

Micro:Bit V2 Learning Book

To begin using Micro:Bit, it's important to start with the first step. The activities in the learning book are specifically designed to help learners practice and comprehend how Micro:Bit works, based on its features and functions. I have designed learning books for both versions, V1 and V2. Simply click the link below to download. 👇🏽

In math classes, students in Y9 have been learning about trigonometry and the measurement of angles. As part of their practical work, they used micro:bits to make a clinometer and record the data. They then applied the equations they learned in class and used the data they collected to complete real-life tasks. In particular, they were able to measure the heights of various objects around the school by using the clinometer and applying trigonometric ratios.

Class Activitiy Photo

Based on the features of data logging and accelerometer on Micro:Bit, I have created the instructions to help students make their own clinometers using Micro:Bit and collect data on the angles of objects. The instructions also include steps on how to use trigonometric ratios to calculate the height of the objects being measured.

Activity Instruction Overview

One fun activity that utilizes the Micro:bit is the digital egg drop challenge. In this activity, students use the device's built-in sensors to collect data on the timestamps of free falling objects. The goal is to create a protective device that will prevent an egg from breaking when dropped from a certain height. This activity is used in MYP math classes as a way for students to learn about quadratics and the physics of motion.

By analyzing the data collected from the Micro:bit, students can apply mathematical concepts to design and improve their egg-drop devices.

One exciting project that you can do with it is making an intuitive weighing scale. By using the built-in accelerometer on the Micro:bit, you can measure the force of gravity acting on an object and calculate its weight. This is a fun and straightforward way to learn about the principles of weighing scales.

What's more, this project is a great way to incorporate maker education and technology into your learning. You get to explore the Micro:bit's capabilities, apply math and physics principles, and develop your problem-solving skills. So, if you're interested in learning more about the Micro:bit and want to try your hand at creating your own weighing scale, then this project is perfect for you!

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Micro:bit is a tiny programmable computer that can be used by students of all ages in a variety of subjects. Its versatility makes it an excellent tool for integrating different subjects, from computer science to mathematics, art, and even music. With its user-friendly interface, Micro:bit can help students develop skills in coding, critical thinking, problem-solving, and creativity.

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Test your knowledge of times tables with this BBC micro:bit project.

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Bring learning to life for every grade and every subject with Tinkercad.

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CALCULADORA DE GASTO DE ENERGÍA ELÉCTRICA

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CALCULADORA DE GASTO DE ENERGÍA ELÉCTRICA

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Step 1: Make it

What is it?

The third of three projects to help you gather data about your energy use. Learn how to work out the cost of energy and make a timer that measures how much electric lights cost to run.

This project is part of a series created to offer problem-solving and prototyping activities designed to explore technology as a solution to the challenges of the Global Goals for Sustainable Development.

What you'll learn

How to use mathematics to convert units: watts to kilowatts and minutes to hours

How to calculate energy used in kilowatt hours (kWh) from power measured in watts (W) and time.

How variables can be used to store values for a user to configure a system prior to use.

How to use it

The previous project, the Energy light timer, measured how long a light is switched on. This special version of the same project works in a similar way, but it calculates and displays the cost of the energy used by a light bulb rather than the time.
To use it, you need to know 3 numbers:

The light reading when the light is switched on. This is the number you found using the first project, the Energy light meter and used in the Energy light timer project

What wattage your lighting is. This is usually printed on the lightbulb.

And how much you pay for your electricity, the unit cost per kWh

The program stores these three numbers in variables which you need to edit before using this project.

Use the Light meter project as before to get a number to put in to the LIGHT variable.

Look at the light bulb to find out how many watts it uses. Remember light bulbs can get very hot and are usually connected to mains electricity, so ask an adult to do this for you. Put that number in the WATTS variable.

Finally put in the cost per kWh in the COSTPERKWH variable. You may need to ask an adult to find this number for you, or find out who supplies your energy and research their unit cost online.

Flash this program onto a micro:bit and attach a battery pack. Place this timer near a light source, and the micro:bit will use the information you gave it about light intensity, light bulb wattage and the cost of your electricity combined with readings from its built-in light sensor and the processor's timer to monitor the cost of the electricity used over a period of time.

You can take cost readings at the same time every day or every week by pressing button B. Re-set it by pressing the reset button on the back of the micro:bit and check it's gone back to zero by pressing button B again.

Remember this is just one lightbulb, so consider the cost across a whole building for a year.
Now you have some data about energy use, how would you go about changing people's behaviour to save energy and money, and perhaps help combat climate change?

How it works

The program times how long a light is left switched on using the micro:bit's light sensor.

The amount of energy you use is calculated by multiplying the power of the lightbulb by the time. This is measured in kilowatt hours (kWh). Because a lightbulb's power is usually measured in watts, not kilowatts, the program converts from watts to kilowatts by dividing by 1000:
watts ÷ 1000 = kilowatts
So for example, a 60 watt lightbulb uses 0.06 kilowatts of power:
60 W ÷ 1000 = 0.06 kW

The program also converts the time units. To convert time from seconds to hours divide the time in seconds by 60. So:
600 minutes ÷ 60 = 10 hours

To work out the cost of energy used in a given period of time, the program multiplies the energy use in kilowatt hours by the unit cost per kilowatt hour.

If my energy costs £0.16p per kWh, leaving a 60 watt lightbulb on for 10 hours will cost me ten pence:
0.6 kWh × 16p = 9.6p

What you need

micro:bit

MakeCode or Python editor

battery pack (recommended)

Step 2: Code it

Step 3: Improve it

Use multiple micro:bits to measure costs of lighting in different places.

Use radio to transmit cost data to another micro:bit and reset the timer remotely.

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Calculate the cost of electric light energy use

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https://kitronik.co.uk/blogs/resources/bbc-microbit-kitronik-university

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This Kitronik University course is part of the BBC microbit partnership and covers aspects of the micro:bit including an overview of what it is, what our role is and of course tutorials to let you get started using it within Design & Technology and Science. If you want to learn more about the micro:bit, as a new user or a more experienced one, this is the place to be. The tutorials cover the very basics all the way up to robotics and more. Wearables, physical computing, hacking games for micro:bit control, controlling connected electronics, driving motors and actuators, there is something here for everyone! This course is still being written so check back regularly, or subscribe to our newsletter to be kept informed of updates.

Course Contents:

BBC micro:bit Overview:

microbit Coding Editors:

Getting Started With The BBC microbit:

The new microbit V2:

The new micro:bit V2 is now available and Kitronik is on the case with resource creation.

Mobile Device Apps:

MicroPython Example Code For Kitronik Products:

Teachers Lesson Plans:

Free E-Textiles Sample Packs:

E-Textiles Tutorials:

Using The Expansion Connector With Electronics:

Inventors Kit Experiments:

ZIP LED Add-On Pack For The Inventors Kit:

Noise Pack for Kitronik Inventor's Kit for the BBC micro:bit:

Robots/Buggies & Movement Guides:

Everything Is Better With Bluetooth:

Light It Up:

:GAME ZIP 64 Teaching Resources:

LAB:bit Resources:

:MOVE mini Teaching Resources:

ZIP Halo for microbit Teaching Resources:

Kitronik :CITY Teaching Resources:

Writing microbit Games:

Custom Code:

Hacking Toys For microbit control:

Link Standard:

3D Printing:

Laser Cutting:

Kitronik :City From Bett 2019:

Seasonal microbit Projects:

Finally, make sure you don't miss out on any other new free learning resources by signing up for our newsletter here.

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This Kitronik University course is part of the BBC microbit partnership and covers aspects of the micro:bit including an overview of what it is, what our role is and of course tutorials to let you get started using it within Design & Technology and Science. Learn now!

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COCHE EVITA OBSTÁCULOS MICROBIT +LEGO WOKUNG

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COCHE EVITA OBSTÁCULOS MICROBIT +LEGO WOKUNG

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https://makecode.microbit.org/S42397-04145-05925-59166

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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INSTRUCCIONES DEL KIT DE MONTAJE WONDER BUILDING KIT MICROBIT

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INSTRUCCIONES DEL KIT DE MONTAJE WONDER BUILDING KIT MICROBIT

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https://elecfreaks.com/learn-en/microbitKit/Wonder_Building_Kit/index.html

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38. case 35 build your own microbit security Door

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https://sites.google.com/xtec.cat/ic-microbit/escenaris-de-treball/aula-sostenible

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Hem escollit aquest escenari perquè ...

L'aula és un entorn quotidià en què professorat i alumnat comparteixen experiències educatives molt diverses. Per tant, els projectes relacionats també ho poden ser.

Utilitzar micro:bit com a part integrant d'un objecte/dispositiu físic dissenyat i fet de manera creativa, sense oblidar el seu correcte funcionament segons el repte plantejat.

Jamboard. Clica la imatge

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https://www.youtube.com/watch?v=NkUTxEIU1Oo

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Proyecto micro:bit - Activar mecanismos con gestos

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https://classroom.strawbees.com/resource/construct-drawing-machine-microbit-activity

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Overview

Program the shape of the servo's movement using a tool to hold a marker for sketching waves on paper. When the servo moves from one position to the other, the movement will start slow and then speed up. Experiment with the outcome of the drawing by adding or removing transitions, adjusting the position and the duration of seconds until satisfied with the patterns made in the drawing.

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Construct a Drawing Machine (micro:bit) | Strawbees Classroom

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PROYECTO DE ILUMINACIÓN DE CALLE CON MICROBIT

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PROYECTO DE ILUMINACIÓN DE CALLE CON MICROBIT

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https://www.youtube.com/watch?v=Vtf7YGZa2Gc&t=44s

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https://microbit.org/projects/make-it-code-it/?filters=7fc3b23c-6988-4f38-aaab-165008ffd2f0

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Quick projects and makes for the BBC micro:bit, the pocket-sized computer transforming digital skills learning.

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CURSO DE PYTHON DE PROGRAMACIÓN DE MICROBIT

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CURSO DE PYTHON DE PROGRAMACIÓN DE MICROBIT

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https://microbit.thinkific.com/courses/introducing-python-micro-bit

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Introducing Python & the micro:bit (15 mins)

Introduces our Python Editor that helps learners to write code for the BBC micro:bit. We will highlight all the great features in our editor that support you and your learners to code the micro:bit successfully using Python.

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This is a Professional Development course by the Micro:bit Educational Foundation. This course introduces our Python Editor that helps learners to write code for the BBC micro:bit. We will highlight all the great features that support you and your learners to code the micro:bit successfully using Python.

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https://computacionyroboticalbn.on.drv.tw/web/maqueen/

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Actividades para el uso kit maqueen dentro del programa STEAM de la Junta de Andalucia

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RECOGIDA DE DATOS EN EXCELL DE LA MICROBIT: TUTORIAL

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RECOGIDA DE DATOS EN EXCELL DE LA MICROBIT: TUTORIAL

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https://learn.microsoft.com/es-es/microsoft-365/education/data-streamer/using-microbit-and-makecode

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Introducción

Microsoft Make Code es una herramienta útil para aprender o enseñar a los principiantes de todas las edades cómo codificar con la ventaja agregada de permitirle usar software para controlar dispositivos de hardware.

Este tutorial le enseñará a usar la plataforma Make Code para escribir un programa sencillo que envíe datos en directo desde la bbc micro:bit a Microsoft Excel mediante el complemento Transmisor de datos de Microsoft.

El programa de ejemplo que usamos en este tutorial imprime los datos del acelerómetro micro:bit en Excel. Puede modificar y adaptar el programa básico para trabajar con otros sensores micro:bit o sensores externos.

Lo que necesitará para este proyecto

Hardware

micro:bit microcontrolador

Nota:

Windows 8 y versiones posteriores no necesitan un controlador adicional. Si es la primera vez que programas un micro:bit en Windows 7, tendrás que descargar los controladores mbed del equipo.

Software

Microsoft Excel O365

Complemento de Excel de Data Streamer habilitado
Data Streamer es gratuito con todas las suscripciones a O365

Usar los bloques crear código para imprimir datos en serie
El puerto serie del equipo es la forma en que Transmisor de datos de Microsoft recopila datos de dispositivos externos. En esta sección se muestra cómo usar los bloques Crear código para imprimir datos en el puerto serie.

Conecte el micro:bit y vaya al sitio web Make Code (Crear código ).

Seleccione la opción "micro:bit" y cree un nuevo archivo. Esto le llevará a la interfaz de bloque MakeCode.

Agregue la extensión HackingSTEM Data Streamer.

Vaya a Extensiones, que se encuentra en la parte inferior de los bloques de código, y busque Data Streamer. Haga clic en el complemento HackingSTEM Data Streamer para habilitarlo.

De nuevo en la sección Bloquear de MakeCode, busque y abra los bloques de Data Streamer amarillo/naranja en la sección superior.

Establezca la velocidad en baudios arrastrando el bloque "Establecer velocidad en baudios" en "Al iniciar". Use la configuración predeterminada (9600).

Nota:

Velocidad en baudios es la velocidad a la que se comunican el equipo y el micro:bit.

A continuación, imprima los datos en serie con el bloque de matriz de número de escritura . Arrastre esto al bloque para siempre .

En la matriz de ranuras, inserte los datos que desea imprimir en serie. En este ejemplo, se imprimen los valores de micro:bit accelerometer x, y y z.

Los bloques acelerómetros se encuentran en la sección "Entrada". Recuerde cambiar la variable seleccionada de "x" a y y z en consecuencia.

Imprima una nueva línea después de la matriz para indicar el final del paquete de datos en Data Streamer. Para ello, arrastre el bloque de "línea de escritura" desde la sección Data Streamer.

Opcional: agregue una pausa para ver más fácilmente los datos a medida que se imprimen.

Una vez que tenga el programa de bloque Make Code, estará listo para cargarlo en su micro:bit. Hay dos maneras de hacerlo que se describen a continuación.

Nota:

La opción 1 es más rápida, ya que implica menos pasos. Sin embargo, es posible que algunos equipos no le permitan descargar archivos directamente en micro:bit, por lo que es posible que tenga que usar la opción 2.

Opción 1

Descargue y guarde el archivo de código directamente en la unidad micro:bit.

Opción 2

Descargue y guarde el archivo de código en una carpeta del equipo.

Abra Explorador de archivos, vaya a la carpeta en la que guardó el archivo de código y arrastre el archivo de código a la unidad micro:bit.

Uso de Data Streamer

¡Está listo para usar Data Streamer! Abra Excel y vaya a la pestaña Data Streamer.

Haga clic en "Conectar el dispositivo" para seleccionar el dispositivo USB micro:bit.

[!! NOTA] Si ve más de un dispositivo en la lista, desenchufe el micro:bit y observe cuál desaparece, vuelva a conectarse y seleccione ese dispositivo USB.

Haga clic en "Iniciar datos" en la pestaña Data Streamer y vaya a la hoja Datos en para ver los datos del acelerómetro micro:bit impresos en tres columnas independientes.

Puede trazar los datos para observar más fácilmente los cambios a lo largo del tiempo y realizar análisis de datos con las funciones integradas de Excel.

Más información para explorar

Análisis de datos de Excel

Experimente con diferentes herramientas de visualización de datos y ecuaciones integradas para el análisis de datos. Estas son algunas guías útiles de Excel:

Visualizar Transmisor de datos en Excel

Crear macros para Transmisor de datos

Creación de una tabla de datos

Creación de una tabla de almacenamiento de prueba

Proyectos de HackingSTEM

¿Busca ideas de proyecto? ¡El equipo de Microsoft HackingSTEM tiene un montón de proyectos y planes de estudios de código abierto! A continuación se muestran algunos de los proyectos HackingSTEM que usan micro:bit.

Consulte la biblioteca de actividades completa de HackingSTEM aquí.

Póngase en contacto con nosotros si tiene preguntas, comentarios o ideas. También nos encanta ver lo que la gente crea con nuestros proyectos, así que por favor comparta sus creaciones y etiquete en las redes sociales!

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Tutorial: Uso de micro:bit y creación de código con Data Streamer - Excel Data Streamer

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Microsoft Make Code es una herramienta útil para aprender o enseñar a los principiantes de todas las edades cómo codificar con la ventaja agregada de permitirle usar software para controlar dispositivos de hardware.

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https://learn.browndoggadgets.com/Guide/Rover+Tank+Body/476

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Use LEGO Technic components along with our Bit Board, a micro:bit, and two servos to build and program a small tank.

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https://recursostde.notion.site/recursostde/TDE-ANDALUC-A-06c99754e7914a16bbe6dbd822e58291?p=627556f2137e4c8b92db12c7ef8c610b&pm=c

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A new tool for teams & individuals that blends everyday work apps into one.

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SENSOR DE HUMEDAD Y TEMPERATURA  Y RECOGIDA DE DATOS EN ORDENADOR

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SENSOR DE HUMEDAD Y TEMPERATURA  Y RECOGIDA DE DATOS EN ORDENADOR

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https://makecode.microbit.org/_9eKcdX2Hk2Pw

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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https://kitronik.co.uk/blogs/resources/clap-o-meter-simple-servos-starter-pack-for-bbc-micro-bit

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How to Make a Clap-o-meter with the Simple Servos Starter Pack for BBC micro:bit

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The first in a series of makes for the Simple Servo Kit - a Clap-O-Meter! This simple make reads the sound level using the microphone on the BBC micro:bit V2 and a Kitronik Simple Servos Starter Pack for BBC micro:bit. Find out how…

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programación de sensor de proximidad entre 2 microbits

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programación de sensor de proximidad entre 2 microbits

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https://microbit.org/es-es/projects/make-it-code-it/proximity-beacon/

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Utiliza la función de radio del micro:bit BBC para jugar a la búsqueda del tesoro o detectar cuando alguien se acerque demasiado a ti.

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PARA CONVERTIR LA TARJETA MICROBIT EN UNA PULSERA

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PARA CONVERTIR LA TARJETA MICROBIT EN UNA PULSERA

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http://elecfreaks.com/learn-en/microbitKit/smart_coding_kit/smart_coding_kit.html

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1.1. Introduction

Elecfreaks Smart Coding Kit is a wearable device based on micro:bit button cell extension baord Pro, a DIY micro:bit watch can be easily made with a simple installing method.

Smart Coding Kit is the updated version for the first generation Power Bit Watch Kit, the breakthroughs are:

Simplify the installation without using the acrylic back shroud.

Maintain a simple style with 3-pin ports canceled.

Upgrade the function by adding a switch for the buzzer.

1.2. Products Link
ELECFREAKS micro:bit Smart Coding Watch Kit

1.3. Assembling Diagram

Install two 3V 2025 cells to the battery holder.

Fix the micro:bit to the button cell extension board Pro with screws.

Pass the longer watch strap through the hole in the button panel Pro to install the watch strap.

1.4. List

1 x micro:bit 1 xPower:bit 1 x Nylon watch strap 1 x micro USB wire 5 x M3x5 Inner cross screws 1 x MINI Screwdriver 1 x micro:bit guidebook

1.5. FAQ

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Elecfreaks Smart Coding Kit is a wearable device based on micro:bit button cell extension baord Pro, a DIY micro:bit watch can be easily made with a simple installing method. Smart Coding Kit is the updated version for the first generation Power Bit Watch Kit, the breakthroughs are: Simplify the installation without using the acrylic back shroud.

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PLACA DE EXTENSIÓN DE LA MICROBIT PARA WIFI

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PLACA DE EXTENSIÓN DE LA MICROBIT PARA WIFI

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https://www.electan.com/iotmicrobit-p-10360.html

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Para ver otros productos en esta categoria:

La BBC micro:bit v2 es una computadora de bolsillo con la mitad del tamaño de una tarjeta de crédito que incluye multitud de hardware: matriz de 5x5 LED rojos que pueden mostrar mensajes, dos botones táctiles programables, un logotipo sensible al tacto, sensor de temperatura incorporado.
Además, la parte posterior de la micro:bit está equipada con un acelerómetro, una brújula, un micrófono MEMS, un altavoz y una antena Bluetooth Smart, así como un conector microUSB y JST de dos pines para diferentes opciones de alimentación.
El cerebro de la micro:bit V2 es el microcontrolador ARM Cortex-M4 de 64 MHz con FPU, Flash de 512 KB, RAM de 128 KB.

También puedes usar Bluetooth Low Energy (BLE 5.0) para interactuar con otros dispositivos e Internet. Micro:bit proporciona una aplicación móvil intuitiva que permite enviar el código a la micro:bit a través de Bluetooth sin usar un cable USB. Con esta aplicación podrás interactuar con tu micro:bit de una manera muy fácil.

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iot:bit placa expansión wifi para micro:bit

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IoT:bit Placa Expansión WiFi para micro:bit

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Para ver otros productos en esta categoria: La BBC micro:bit v2 es una computadora de bolsillo con la mitad del tamaño de una tarjeta de crédito que incluye multitud de hardware: matriz de 5x5 LED rojos que pueden mostrar mensajes, dos botones táctiles programables, un logotipo sensible al tacto, sensor de temperatura incorporado.

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PROYECTO: LUCES DE COLORES CON TARJETA DE EXPANSION

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PROYECTO: LUCES DE COLORES CON TARJETA DE EXPANSION

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https://makecode.microbit.org/_K5UPppiFs4mv

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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https://www.youtube.com/@siglabo

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マイクロビット microbit micro:bit 電池ボックス 電子工作 steam教育 3dプリンター

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Sig:laboマイクロビットチャンネル

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「マイクロビットだけで何ができる？」の参考になるプログラムを紹介します。 動画で紹介されるプログラムはダウンロードして実際に自分のマイクロビットで動かすことができます。 プログラミングの勉強のスタートとして、まずはプログラムを使ってみることから始めて「次に自分ならこうする」のきっかけを見つけてください。

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https://learn.browndoggadgets.com/Guide/Robotic+Hand+(micro:bit)/364

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Build a Robotic Hand from cardboard and control it with a micro:bit and our Bit Board.

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RECURSOS EDUCATIVOS DFROBOT CON MICROBIT

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RECURSOS EDUCATIVOS DFROBOT CON MICROBIT

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https://edu.dfrobot.com/

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DFRobot Education- online resources for STEM and maker education

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DFRobot Education is a platform to empower creation for teachers and learners. From projects, tutorials to curriculums, get inspired with quality-assured resources for STEM and maker education, start creating with tools and technologies including Arduino, Python, Scratch, AI and IoT.

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https://www.youtube.com/watch?v=QzWSRXqQBeQ&ab_channel=PinkyPepper

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https://www.instructables.com/CardBoard-Paper-MicroBit-Pinball-Machine/

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Introduction: Cardboard PinBall Machine With Micro:bit LEDs, Motors, and Sounds

PinBox 3000 is a kit that lets you turn ordinary sheets of cardboard into a custom, crafty, and playable pinball machine... and as if that wasn't awesome enough, I decided to add the power of MicroBit: to create a game with interactive lights, sounds, and motion. I also illustrated and constructed obstacles from paper to complete this totally "anyone can do this" tech-craft project. Here's how I made it:

For this project, a video is worth a thousand pictures! In the video above, I show you how I made the game, the story behind it, what electronics I used to supplement the micro:bit, and show the game in action!

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*I've included links to the supplies. As an Amazon Associate, I earn a small commission on purchases made through the links, and that helps me make more tutorials like this. Thanks for your support! :) PinBox 3000 provided me with a kit to make this project, so thanks to them as well!

Step 1: The Story

The story:

My pinball machine tells the story of a group of super-smart penguin astronauts who were fed-up with global warming and left earth to live on "Planet Winter" - where it's winter all the time! The snow, blizzards, icebergs, avalanches, and icy lakes make it the perfect penguin paradise.

Step 2: Playing Up the Drama and Scale

I wanted the game to have depth and multiple levels of interest. I added a large round piece of cardboard to the backplate to create the "planet" and to make a large enough space for the "Planet Winter" game sign. Then, I cut a hole in the playboard to serve as a lake and give depth to the scene.

Step 3: A Big, Bold Sign

My favorite arcade games have large illuminated signs with bold letters, so I wanted to incorporate a big sign into my design. Using my Cricut Maker, I cut out the "bubble" letters from paper and used translucent paper in the center so that I could backlight them with Neopixels. I ran paper around the edges to make them 3D and to give some space between the pixels and the paper so that the letters illuminate evenly! What fun neopixels are - now I could make the sign any color that I wanted, even rainbow!

Step 4: Making Cardboard Ramps for the PinBall to Travel On

I tore one side of the paper off of corrugated cardboard to make it flexible enough to make ramps. I also used the center of a cardboard tube as a shoot around the side.

I added some paper mountains and created the illusion of distance by using lighter grey mountains in the back and darker mountains in the front to play with atmospheric perspective.

Step 5: Making Paper Penguins

I illustrated the penguins on silver paper with a black Sharpie, and added detail back with a silver Sharpie. I used orange paper for the beak and feet, white paint for the eyes, and craft plastic with copper tape to make the penguins their tiny space helmits.

Step 6: Adding the Electronics

I used the MakeCode block coding language and the Neopixel extension. I used 2 micro:bits: one for the gameplay and one for the scoreboard. The gameplay micro:bit received signals from three switches, controlled the lights, and activated two servo motors that pushed the balls around. The scoreboard micro:bit received a signal via radio to display the score, and provided fun sounds that were available in the MakeCode library.

Step 7: Time to Play!

This is how you play:

Do you have plans to combine micro:bit and a PinBall 3000? Let me know what ideas you have!

I hope you enjoy this tutorial. If you want to see more of my work, you can follow me here on Instructables and on Instagram and YouTube - Please Subscribe! You can also buy tech-craft kits designed by me at TechnoChic.net.

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Cardboard PinBall Machine With Micro:bit LEDs, Motors, and Sounds

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Cardboard PinBall Machine With Micro:bit LEDs, Motors, and Sounds: PinBox 3000 is a kit that lets you turn ordinary sheets of cardboard into a custom, crafty, and playable pinball machine... and as if that wasn't awesome enough, I decided to add the power of MicroBit: to create a game with interactive lights, sound...

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https://www.youtube.com/watch?v=N-xYRhL5_3o&ab_channel=TechnoChic%2FNatashaDzurny

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I made a Micro:Bit Powered Cardboard Pinball Machine with PinBox 3000 - "Planet Winter"

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https://www.youtube.com/watch?v=iRArVIilwuM&ab_channel=NapoleonRoca

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https://www.youtube.com/watch?v=mSVJdqWjAf4&ab_channel=Matem%C3%A1ticasconPalacios

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JUEGO DE CREAR LETRAS: PROGRAMADO EN JAPONÉS

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JUEGO DE CREAR LETRAS: PROGRAMADO EN JAPONÉS

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https://makecode.microbit.org/_hKr2kJ4d33YY

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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https://classroom.strawbees.com/resource/solar-energy-sensing-microbit-lesson

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Lesson Structure

When students go through this lesson in each section, the objectives they will learn are:

Warm-up - Recognize that the sun is the primary and secondary source of energy on Earth.

Imagine - Study the process of harnessing solar energy and weigh its use against fossil fuel use.

Create - Create a light measuring device measuring light while moving a servo.

Build - Create a slow-moving panel changing the angle following the sun's position as the micro:bit reads sunlight.

Reflect - Reflect on the projects, understanding of solar energy, and its conversion to usable energy.

Challenges - Expand and combine solar panel designs into larger, more complex configurations and make new solar and light-related designs.

After this lesson students will be able to:

Understand that light transfers energy from place to place.

Investigate solar energy as a possible solution for fossil fuel dependence.

Explore transformation of energy from one form to another.

Recognize that energies and fuels come from natural sources and these affect our environment.

Compare types of energy solutions and describe how some energies are renewable and some are limited.

Create a model of a solar panel with Strawbees and a micro:bit with light-sensing input to explore different outputs.

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Solar Energy Sensing (micro:bit) | Strawbees Classroom

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Lesson Structure When students go through this lesson in each section, the objectives they will learn are: Warm-up - Recognize that the sun is the primary and secondary source of energy on Earth. Imagine - Study the process of harnessing solar energy and weigh its use against fossil fuel use.

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https://www.youtube.com/watch?v=rblNAhoWuvs

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🛏️​ Crea tu propio juego "Operación" con MicroBit | Tutorial paso a paso 🛠️✨

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https://www.youtube.com/watch?v=HNYG-hVMT8c

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Cómo programar la micro:bit desde una tableta Android vía Bluetooth

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https://makecode.microbit.org/_Rtji0dJATYhD

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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https://makecode.microbit.org/_eJwJRyCAzKDb

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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https://makecode.microbit.org/_5H930hX2kXRU

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ESTACIÓN METEREOLÓGICA CON MICROBIT BASE

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Hecho con ❤️ en Microsoft MakeCode for micro:bit.

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MODELO DE PRUEBA DE ROBÓTICA CON MICROBIT

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MODELO DE PRUEBA DE ROBÓTICA CON MICROBIT

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https://makecode.com/multi#

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PROTECTOR DE MICROBIT CON LA IMPRESORA 3D

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PROTECTOR DE MICROBIT CON LA IMPRESORA 3D

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https://cults3d.com/es/modelo-3d/artilugios/microbit-case-v-2

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Microbit Case para V.2 Versión modificada que deja una apertura para el altavoz, el micrófono y el touch del logo. Sin necesidad de tornillería.

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https://github.com/pedroruizf/microbit/tree/master/makecode

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You can't perform that action at this time. You signed in with another tab or window. You signed out in another tab or window. Reload to refresh your session. Reload to refresh your session.

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https://sketchfab.com/3d-models/microbit-3d-115e78b4f2b44f798da727888a0ecc6c

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Modelo de Microbit en 3d para uso educativo. CC-BY-NC-SA @GmedranoTIC - Microbit 3d - 3D model by GmedranoTIC

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https://www.youtube.com/watch?v=l7Jw-Eps_Hs

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Digital Moment (formerly Kids Code Jeunesse)

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How to measure wind & water with micro:bits • KCJ