Source:
Washington Green Schools
Published:
2021
Last Updated:
2021
Intended Grade Level:
3-5,
MS
Description:

Washington Green Schools guides and supports students and school communities to be leaders for a healthy environment. As part of their efforts to promote sustainable schools, they have developed a series of games and activities to help students understand energy use in their school and engage in conversations about how to reduce their energy use and clean up their sources of energy.

Arduino Angler Design

Illuminate Me: Merging Conductive Sewing, Technology, and Solar Power

Grades:
7-12
Description:

Light up your clothing using solar power! For this unit, students will attach thin, flexible solar modules to a bike helmet and recharge NiMH rechargeable batteries for a renewable energy battery pack. The rechargeable batteries will be used to light up...

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Learning Goal(s):
1. Students will design and sew a wearable circuit using conductive thread. 2. Students will program a wearable microcontroller to light up garment with bright LEDs. 3. Students will incorporate solar power into a wearable garment project by recharging NiMH batteries for a renewable energy battery pack. 4. Students will apply knowledge of circuitry and energy transfer to maximize design.
Author:
Kristy Schneider
Estimated Activity Length:
10 hours
Source:
Hukseflux Thermal Sensors
Published:
2020
Last Updated:
2020
Intended Grade Level:
MS,
HS,
Post Secondary
Description:

A free iPhone app that allows you to take data on irradiance (in Watts/area), to be able to compare electrical output from solar photovoltaic panels to the irradiance they receive. 

Location:
Energy Content:
Solar Mini House

Mini Solar Houses Unit

Grades:
4-6
Description:

In Lesson 1, the lesson focuses on understanding how the angle and orientation affect the amount of energy that is generated through use of a solar cell. Paper azimuth finders, Keva Planks, and multimeters will be used in order for students to draw...

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Learning Goal(s):
1. Students will understand how to use an Azimuth finder to determine the direction and altitude that solar modules will face. 2. Students will learn how to describe why a solar module is pitched at a particular angle. 3. Students will understand how to measure the voltage and current for an electrical energy source. 4. Students will learn how to build a circuit that will light a light bulb with a switch and without a switch. 5. Students will understand that the electricity flows through a circuit from an energy source to a load. 6. Students will understand the difference between open and closed circuits. 7. Students will understand the similarities and differences between solar cells and batteries as an energy source. 8. Students will understand how electricity flows through a circuit (from energy sources to loads) with more than one source and more than one load. 9. Students will understand how to build series and parallel circuit and the characteristics of each. 10. Students will learn to power both a light and a fan. 11. Students will learn how to find a fault in a circuit. 12. Students will understand that the electricity flows through a circuit from an energy source to a load. 13. Students will understand the difference between open and closed circuits. 14. Students will identify the causes and solutions to various complications that arise in the construction of circuits. 15. Students will use the design process to create a roof to hold an adequate number of solar modules to power an LED and a fan. 16. Students will understand how to make a geometric net (a 2D drawing that when folded creates a 3D shape) for designing a roof.
Author:
Beverly Satterwhite
Estimated Activity Length:
8 hours
Source:
KidWind
Published:
2020
Last Updated:
2020
Intended Grade Level:
3-5,
MS,
HS,
OST
Description:

Two really fantastic and engaging engineering challenges held both nationally and online for grades 4-12: Wind Engineering and Solar Structures. Educators and students are provided with scaffolded lessons for engaging in the fundmanetal content of the challenge, as well as guidance for how to prepare and structure the challenge. Challenges can be run at the class, school, district, or regional level and the in-person challenge includes regional and national competitions. Kidwind also provide professional development opportunities for educators.

Location:
Constructing Solar Panels

Solar Panel Construction, Orientation and Use Unit

Grades:
9-12
Description:

For this extended task, students will track the sun's altitude and Azimuth to determine the best position for their hand-built solar panel, learn solar cell operation basics, solar panel construction, series and parallel circuitry and basic array sizing...

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Source:
University of Illinois-Cyber Resilient Energy Delivery Consortium
Published:
2019
Last Updated:
2020
Intended Grade Level:
3-5,
MS
Description:

CREDC is a wealth of interactives and curricula for K-12 educators. There are six interactives for engaging in how to manage various sources of energy and their costs in relationship to energy usage, as well as curricula such as paper circuits, and resources and ideas for integrating coding, Minecraft, and other computer applications in energy and circuitry explanations.

Location:
NGSS Disciplinary Core Idea:
Lead Acid Battery

Solar Battery Charging

Grades:
7-12
Description:

Students will become familiar with circuits, cells, batteries, and photovoltaic cells, then plan, build, test, modify, and re-test a small solar battery charger designed to maintain batteries from a particular device.

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More Details Less Details
Learning Goal(s):
Students will build series, parallel, and parallel series circuits from a schematic diagram. Students will master the basic concept of battery charging. Students will be able to plan and build solar battery chargers for a given battery system. Intermediate students will calculate time to charge a depleted battery to its full capacity given specifications of a solar module. Students will be able to explain how a solar cell works with diagrams and words. Students will use a digital multi-meter to measure voltage, current, resistance, and diode polarity.
Author:
Luke Robbins
Estimated Activity Length:
9 hours

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