Stem Discovery Week at Kareas High School in Greece

Slides:



Advertisements
Similar presentations
Sensing and Control.
Advertisements

Electricity & Electronics
Microprocessor Motor Control Spring Introduction  Stamp projects Robots  Sensors  Motor control  Logic Rocketry  Reading acceleration (“g”
FIRST COURSE Essential Computer Concepts. New Perspectives on Microsoft Office 2007: Windows XP Edition 2 Objectives Compare the types of computers Describe.
Basic Circuits – Lab 2 Arduino and Sensors Xmedia Spring 2011.
Engineering 1040: Mechanisms & Electric Circuits Fall 2011 Introduction to Embedded Systems.
Microprocessor Block Diagram
Image of Arduino. Arduino discussion Address issues with circuit walk-through – Electricity, Programming, Arduino Concepts Work on BeatTable (next week)
BY VENUS BRIGHT Input Output. What is a input An input is something simple that connects into the computer. Such as the most common input is a keyboard.
Lesson 2 Electricity and Magnetism. Vocabulary Conductor Insulator.
CSCI1600: Embedded and Real Time Software Lecture 4: Introduction to the Arduino Steven Reiss, Fall 2015.
POR:NATALIA RESTREPO BUSTAMANTE. hardware refers to all physical parts of a computer system; its components are: electrical, electronic, electromechanical.
Microcontroller Hands-on Workshop #2 Ahmad Manshad New Mexico State University Institute of Electrical and Electronics Engineers October 31, 2009.
Microcontrollers, Microcomputers, and Microprocessors
An introduction to PIC’s for KS3 and KS4. Mr Rooks Hetton School.
Having fun with code, using Arduino in a middle school CS classroom
Prototyping Home Automation Concepts
Embedded Systems Programming (What they do and when / how to use them)
Part 1- Computer Systems Part 2 – Computer Architecture Mr Belony
Starter What is BBC micro:bit?
Scrolling LCD using Arduino.
Home automation using Arduino & ‘PIR sensor’
ABSTRACT The controller continuously polls the temperature with certain regular time intervals and displays over the 7_segment display The temperature.
Personal Health Check BBC micro:bit Heart Rate Monitor
Starter Activity Instructions: Complete the starter sheet Planner
SUBMITTED BY EDGEFX TEAM
Technology Literacy Hardware.
Using the BBC micro:bit to Create a Flood Warning System
DIGITAL CALCULATOR USING 8051
‘SONAR’ using Arduino & ultrasonic distance sensor
Computers Logic Gates.
AQA GCSE 6 Systems approach to designing Design and Technology 8552
Saving Lighting Energy with the BBC micro:bit
DT-Assessment Frame Work Term2
BBC Microbit.
BBC Microbit.
Logic Gates Practical Objective: to develop an understanding of logic circuits and truth tables.
All very logical I think!
Resistance Year 9 Science.
Amy Nicholson Technical Evangelist, Microsoft
Computer Systems INPUT PROCESS OUTPUT.
BBC Microbit.
BBC Microbit.
CSCI1600: Embedded and Real Time Software
Objective of the lesson
Game Controller Lesson Two.
Getting Started with Physical Computing
Input > Process > Output
CSCI1600: Embedded and Real Time Software
Prototyping with Micro-controllers, Sensors, and Materials
Systems and Control.
Prototyping with Micro-controllers, Sensors, and Materials
How electronic systems work using the Systems approach.
UNIT 9 Relays.
Prototyping with Micro-controllers, Sensors, and Materials
Task 1 You are going to use the Makey Makey arrow inputs to create a joystick / games controller. Step 1: Connect Makey.
Prototyping with Micro-controllers, Sensors, and Materials
Lesson 1 – using the LED lights
UNIT 9 Relays.
Electronic systems 7.
Lesson 5 – Coding a temperature gauge
Systems and Control.
Objective of the lesson
Ocean health monitor.
Ocean health monitor.
Ocean health monitor.
Micro:bit.
Ocean health monitor.
Ocean health monitor.
Presentation transcript:

Stem Discovery Week at Kareas High School in Greece Vasiliki Servou Activity1: fruit keyboard and more with the micro:bit. The BBC micro:bit is a simple affordable versatile programmable microcontroller with motion detection, compass, LED display & sensors, and Bluetooth, that can be coded, customized and controlled to bring your digital ideas, games and apps to life. With 25 C class students (aged 15 years), we constructed an electric circuit with the micro: bit, using fruits and other conductors of electricity, to light up and change the brightness of LEDs and play notes on a buzzer or headphones. From computer science, we studied the concepts of input, output, repetition, variables and event-oriented programming. From physics, we studied the concepts of open and closed electric circuits, electric power source, electric current, earthing, electric conductors and insulators, and parallel and serial connection. We also studied ‘Ohm’s Law’. We connected a LED with a resistor. As the resistance increased, the LED became less bright and vice versa. In a similar way, we studied serial and parallel connection. Each of the micro:bit elements is completely programmable via easy-to-use software on a dedicated website microbit.org, that can be accessed from a PC, tablet or mobile. If you hold the ‘GND’ pin with one hand, you can program the BBC microbit to detect yourself touching the 0,1 or 2 pins with your other hand, giving you three more buttons to experiment with (you just used your body to complete an electrical circuit).

a model for a temperature alarm for egg hatcheries with the micro:bit. Activity 2: a model for a temperature alarm for egg hatcheries with the micro:bit. 112 students from A & B classes (aged 12-14) took part in another activity. We used the temperature “sensor” of the micro:bit to sound an alarm and flash a light if the temperature was not appropriate for the eggs to hatch. Concepts studied from physics included temperature measurement, open and closed electronic circuits, electric power, electric current and earthing, while from programming we studied selection structure, logical operators “and/or”, event-oriented programming and input and output. More specifically using the Microsoft MakeCode block editor for the BBC micro:bit, we wrote a program that monitors the temperature. If it was less than 37o C or more than 38o C, it played the note C (4 beats long) on a loop as an alarm, and scrolled the temperature on the display. Micro:bit thermometer https://www.microbit.co.uk/functions/temperature While it lacks a heat sensor, you can configure it to display the temperature of, say, a CPU, which is pretty handy for PC builders. The BBC micro:bit does not have a dedicated temperature sensor. Instead, the temperature provided is actually the temperature of the silicon chip on the main cpu. As the processor runs cold though (it is a high efficiency ARM core), the temperature is a good approximation of the ambient temperature. Otherwise, if the temperature was safe, it stopped playing the alarm and displayed a happy face. We set the temperature in the simulator (by dragging the arrow), to test our program. Then we connected a buzzer using crocodile clips, explained the open and closed electric circuit and earthing and we tried a colourful LED as another output. This is the principle used by a thermostat to control the central heating in a home, or the climate control in many modern cars.

Feedback and Recommendations. All my students were engaged in the activities, completed the tasks in time and understood the relevant material. There was enough time for feedback. In Greek High Schools (ages 12-15) the ICT lesson occupies 1 hour a week of the timetable. Activities using the micro:bit can be completed in an hour and students are inspired to think of further activities and relevant projects. In addition, the ease of use of the micro:bit allows me to use it with all my students in class, not just the ones who are taking part in a competition or a project. Therefore, no student is left behind. . Thank you for your time.