This follows on from the Thursday workshop and later, follow-up feedback/question from teachers interested in implementing an integrated STEAM 'Visual Arts' project at school.
Links to curriculum (including 'Living World' and other outcomes/content) coming soon (last updated 12 June 2018)
“Isn't it enough to see that a garden is beautiful without having to believe that there are fairies at the bottom of it too?” ― Douglas Adams, The Hitchhiker's Guide to the Galaxy
Here is an idea/thought-crime for a Visual Arts Event (Design Project) focused on promotion and community engagement with the school Secret Life of Plants & Animals project.
Teachers + kids collaborate on an authentic, cross-grades, Visual Arts, STEAM experience (design project), to help promote community engagement and involvement with the school garden and chooks.
This to be done by re-directing normal classroom learning activities rather than additional load for teachers or students. Volunteers will be sought from members of local community who are prepared to donate appropriate enthusiasm/expertise/resources.
A Visual Arts experience.
Cardboard (or similar) cut-outs of chickens and plants that have been decorated by the kids are placed in a prominent location in the school grounds. The cutouts of the plants and animals are edge-lit using strings of low-voltage Christmas lights. The lights are activated/animated by using sequences that have been programmed by kids using a simple app. Additional elements such as mirror-ball(s), music may be added depending on ideas created by students/teachers.
The event would run each night after dark - probably for one week (science, education week or vivid). Best time would be June/July. This event could be accessed/live-streamed via Internet.
Kids make and decorate life-size or larger chickens, flowers and related representations of plants/animals. These should be simple cardboard cut-outs, wire-frame or similar construction. They need to be made minimally weather-proof.
Students design an inter-active pathway using touch switch technology. Students set up a table in the hall, where they explain the science and demonstrate how they designed, built and programmed their exhibit.
Most of the activities should be do-able within the context of normal classroom activities. This should not involve extra duties/administration for teachers. Costs for Christmas lights and control systems are minimal (using Christmas lights provides cheap, off-the-shelf lights/electronics which come pre-approved for safe outdoor use).
The visual aesthetic is determined mostly by how the representational plants and animals are arranged and by the associated lighting effects - the quality of workmanship for plants and animals need only be very agricultural/crude.
The use of SOUND is extremely important in creating an emotional audience experience.
Lots of other possibilities depending on the creativity/interest of teachers/students/community. The ideas to be student-directed as much as possible, with big people focusing on the practicalities.
It would be great to find funding/sponsorship for lights/materials.
With projector on ground/floor, the WIN10 display or the projector image may need to be flipped.
Optionally, enable 'Allow the screen to auto-rotate' option under 'Adjust screen resolution'. Then try pressing CTRL + ALT + Up Arrow. You can use other arrow keys with same CTRL + ALT key combination for rotating the screen.
Once you done with this, press Windows Logo key + X, and select Control Panel. Under 'Appearance and Personalization' select 'Adjust screen resolution'. Now see if 'Allow the screen to auto-rotate' option is enabled there. If not try to click the check box 'Allow the screen to auto-rotate' and then click 'Apply/OK'. Now check if everything works fine.
A chase or chaser is an electrical application where strings of adjacent lights cycle on and off frequently to give the illusion of lights moving along the string. Several separate circuits of lights (called channels) are needed to create a chase effect which is a simulation of motion achieved by turning these circuits ON and OFF in sequence. The standard is 3 or 4 channels. For 4 channels the lights are wired with one common and 4 different feeds. Light #1 is wired with lights #5 & 9 & 13, etc. (+4); Light #2 is wired with lights #6 & 10 & 14, etc. (+4); Light #3 is wired with lights #7 & 11 & 15, etc. (+4); Light #4 is wired with lights #8 & 12 & 16, etc. (+4).
There are lots of opportunities for the use of coding and control of the interactive lights and effects. For those with minimal experience, the Raspberry Pi offers a quick and effective path to remote-control Nirvana. For example
Trinket is a browser-based, an all-in-one coding environment designed for education. Teachers and students use trinket to code during class.
Trinket Sense-Hat Emulator provides every student with a virtual Raspberry Pi, complete with sensors and programmable LED pixel display. Students access their own, personal Trinket Sense-Hat Emulator that allows them to write and test their code just like the real thing. Students may create a free account on the Trinket website to save their code/work to enable 24/7 access from anywhere. There's even a Sense HAT orbiting the earth in the International Space Station!
In case you cannot or do not want to use an Internet browser-based emulator, there is an optional free version to download and run on your computer desktop.
Code written in the emulator is directly portable to a physical Raspberry Pi and Sense HAT without modification. This means students can now develop and test programs using the movement sensors from any internet-connected computer, anywhere in the world.
To scroll some text, copy this code into trinket:
from sense_hat import SenseHat sense = SenseHat() sense.show_message("Hello world")
To display message, temperature and humidity:
from sense_hat import SenseHat sense = SenseHat() sense.clear() temp = str(sense.get_temperature()) humi = sense.get_humidity() sense.show_message("See temp + humidity in box below") print("Temperature:" + str(temp)) print("Humidity:" + str(humi))
More advanced example…
from sense_hat import SenseHat sense = SenseHat() sense.clear() temp = str(sense.get_temperature()) humi = sense.get_humidity() # Display a scrolled message on the screen... sense.show_message("See temp + humidity in box below") # Print the values in the box below the sense-hat image... print("Temperature:" + str(temp)) print("Humidity:" + str(humi)) # Change pixel text & background colour... blue = (0, 0, 255) yellow =(255, 255, 0) sense.show_message("See Temp + Humidity in box below", text_colour=yellow,back_colour=blue)
The LightshowPi software automates the creation of a lightshow using the frequency spectrum of the song that is playing back. There are also many add ons - such as SMS control (e.g. change the volume via sms, or allow your neighbors to vote for the next song in the show), pre show lighting configuration, and many others in development.
KY-001 Temperature sensor module KY-002 Vibration switch module KY-003 Hall magnetic sensor module KY-004 Key switch module KY-005 Infrared emission sensor module KY-006 Small passive buzzer module KY-008 Laser sensor module KY-009 3-color full-color LED SMD modules KY-010 Optical broken module KY-011 2-color LED module KY-012 Active buzzer module KY-013 Temperature sensor module KY-015 Temperature and humidity sensor module KY-016 3-color LED module KY-017 Mercury open optical module KY-018 Photo resistor module KY-019 5V relay module KY-020 Tilt switch module KY-021 Mini magnetic reed modules KY-022 Infrared sensor receiver module KY-023 XY-axis joystick module KY-024 Linear magnetic Hall sensors KY-025 Reed module KY-026 Flame sensor module KY-027 Magic light cup module KY-028 Temperature sensor module KY-029 Yin Yi 2-color LED module 3MM KY-031 Knock Sensor module KY-032 Obstacle avoidance sensor module KY-033 Hunt sensor module KY-034 Automatic flashing colorful LED module KY-035 Class Bihor magnetic sensor KY-036 Metal touch sensor module KY-037 Sensitive microphone sensor module KY-038 Microphone sound sensor module KY-039 Detect the heartbeat module KY-040 Rotary encoder module
More detail required (last updated 12 June 2018)