Gravity IoT Starter Kit for micro:bit

Advanced high school and college students can now create their own connected devices - known as the Internet of Things - quickly and easily. They’ll learn how to build Internet-connected objects with easy-access getting started activities and 10 sustainability projects, supported by technical and theoretical lessons. Each of these projects allows students to investigate and solve a real-world challenge linked to one of the UN’s Sustainable Development Goals. Students learn design thinking methods that help them develop their own unique solutions to challenges such as urban farming, health monitoring, and water and waste conservation. Empower your students with future technologies, design methodologies, and an in-depth understanding of real-world issues to build a sustainable future with the Arduino Explore IoT Kit Rev2. Learning outcomes The Arduino Explore IoT Kit Rev2 has been created to provide a comprehensive understanding of the Internet of Things, as well as to encourage students to think about solving global sustainability challenges, according to the UN’s Sustainable Development Goals. After looking into current academic and industrial standards, we have identified important concepts this kit should touch upon for students to learn how devices communicate and the tools used to facilitate communication, data management, analysis, and computational thinking  by using real-world sensors to capture meaningful data from the environment and modify it by remotely controlling actuators such as LEDs, buzzers, displays, through the Cloud. The kit includes: Arduino MKR WiFi 1010 Arduino MKR IoT Carrier Rev2 designed for this kit, includes: Two 24V relays SD card holder Five Tactile buttons  Plug and play Grove connectors for different external sensors Temperature sensor Humidity sensor Pressure sensor Gas sensor (VOC) Ambient light sensor RGB color sensor Gesture sensor Accelerometer  RGB 1.20” rounded display 18650 Li-Ion rechargeable battery holder Five RGB LEDs Buzzer Micro USB cable Moisture sensor PIR sensor Plug-and-play cables for the external sensors Plastic enclosure to attach and protect the hardware Access to the demo version of Arduino Cloud for Education, which includes a complete IoT getting started experience and three introductory activities and lessons.  For a more comprehensive educational journey into the Internet of Things, access to 10 more step-by-step, hands-on projects, each linked to the UN’s Sustainable Development Goals and covering the fundamentals of IoT, and to connect with Google Classroom, educators can subscribe to  the Arduino Cloud for Education School Plan. Each of the 10 projects takes between 15-25 hours to complete, and can be completed over the course of a couple of weeks or a whole term or year. Each project contains five modules which can be completed in an order that makes sense for your classroom. To complete a project, students ideally need good programming skills and to have worked with sensor technologies.  However, if your students are at more of a basic level, the kit also includes additional technical activities and lessons for beginners.

The PicoBoard allows you to create interactions with various sensors. Using the Scratch programming language, you can easily create simple interactive programs based on the input from sensors. The PicoBoard incorporates a light sensor, sound sensor, a button and a slider, as well as 4 additional inputs that can sense electrical resistance via included cables. Designed for educators and beginners, the PicoBoard is a good way to get into the very basics of programming and reading sensors. A PicoBoard also comes with a USB cable and four sets of alligator clips that measure the electrical resistance in a circuit. You can use the alligator clips to build all kinds of custom sensors. For example, if you attach the clips to a pair of home-made bracelets, you can detect when your wrists touch.

Get more from the BBC micro:bit with Kitronik's incredible Inventor's kit! The simple way to learn about creating circuits and code. Please Note: BBC micro:bit is NOT included. The Kitronik Inventor's Kit for the BBC micro:bit is a great way to get started with programming and hardware interaction with the BBC micro:bit. This Inventor's Kit contains everything you need to complete 10 experiments including using LEDs, motors, LDRs and capacitors. To get you off to a flying start, Kitronik have included an easy to follow tutorial book which guides you through everything you will need to know about programming the BBC micro:bit. You don't need any experience with programming as the tutorial book will guide you every step of the way. You'll be programming and creating circuits in no time! The Kitronik Inventor's Kit for the BBC micro:bit provides a fantastic way of learning how to construct and control electronic circuits. The BBC micro:bit has a selection of pins that are located on the bottom edge of its PCB (see datasheet below for details). By using the specially designed Edge Connector Board for the BBC micro:bit in conjunction with the breadboard (see below), it is easy to use these pins to connect additional components to the BBC micro:bit. No soldering is required and you can build your first circuit in minutes! Note: This kit requires assembly. Features: No soldering required - build your first circuit in minutes! Make 10 experiments included in the provided step-by-step tutorial book. All parts are included to conduct the 10 experiments (listed below). Breaks out 21 accessible pins from the BBC micro:bit using the Edge Connector Board for the BBC micro:bit (included). Small Prototype Breadboard included for fast prototyping. All of the experiments included in this booklet (listed below) are based on the Microsoft BlockEditor and Microsoft TouchDevelop editor software. Experiments included in the tutorial book: Experiment One: Say 'Hello' to the BBC micro:bit. Experiment Two: Using an LDR & analog inputs. Experiment Three: Dimming an LED using a potentiometer. Experiment Four: Using a transistor to drive a motor. Experiment Five: Using the accelerometer to control motor speed. Experiment Six: Setting the tone with a piezo buzzer. Experiment Seven: Wind power. Experiment Eight: Making a game using the compass. Experiment Nine: Capacitor charge circuit. Experiment Ten: Using an RGB LED. Contents: 1 x Perspex Mounting Plate. 1 x Potentiometer & Finger Adjust Spindle. 2 x Plastic Spacer 10mm. 1 x Sticky Fixer for Battery Pack. 1 x Small Prototype Breadboard. 1 x Terminal Connector. 4 x Push Switch. 1 x Motor. 1 x Transistor. 2 x Red 5mm LED. 2 x Orange 5mm LED. 2 x Yellow 5mm LED. 2 x Green 5mm LED. 1 x RGB 5mm LED. 1 x Fan Blade. 5 x 2.2KΩ Resistor. 5 x 10KΩ Resistor. 5 x 47Ω Resistor. 1 x Edge Connector Breakout Board for BBC micro:bit. 1 x Miniature LDR. 10 x Male to Male Jumper Wires. 10 x Male to Female Jumper Wires. 4 x Self-adhesive Rubber Feet. 1 x 470uF Electrolytic Capacitor. 1 x Piezo Element Buzzer. 4 x Pan Head M3 Machine Screw. Requires: 1 x BBC micro:bit. 1 x Phillips Screwdriver. 1 x Terminal Block Screwdriver. 1 x Micro USB Cable.

Der Oxocard I2C Hub ist ein kleiner Bausatz, um der Oxocard relativ einfach das Anschliessen von beliebigen I2C-Grove- Komponenten zu ermöglichen.  Mit diesen I2C-Hub kannst du die Oxocard mit zusätzlichen GROVE-kompatiblen Sensoren und Aktoren erweitern. Aktuell unterstützen wir die Funktionen nur über unsere Python-Programmierumgebung. Detaillierte Beispiele findest du hier: http://www.tigerjython4kids.ch/iot Hier kannst du direkt die Bauanleitung runterladen    

  Makes STEM Education fun! Start out easy with a banana piano. First setup takes seconds. Then make game controllers, musical instruments, and inventions. Advance to female headers and multi-key remapping up to 18 keys. Ages 8 to infinity....