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Climate Kids

Tangible Interaction Design / Education

Climate Kids

How could we best teach young children about climate change?

 
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Tangible Interaction Design / Education

Despite the on-going news circulation in the media, many find themselves unable to relate to the real-life manifestations of these changes. Fewer still feel the personal efficacy to defend against climate change in their day-to-day lives, or imagine future threats if they are currently unaffected. These barriers compound for kindergarten-aged children, for whom it may be very difficult to comprehend technical scientific research. By fostering such an understanding, and, more importantly, a sense of personal responsibility, we hope to see a new generation of climate change leaders.

This is the first version of our prototype. View the second version here.

My Role

Researcher, Interaction Designer, Prototyping Engineer

Skills

Guerrilla Research, User Interviews, Literature Review, Ideation, Sketching, Electronics, Physical Prototyping, Laser Cutting, Arduino Development, Visual Design

Recognition & Awards

Climate Kids was awarded the Ignite Grant by Jacobs Institute of Design, UC Berkeley. 

Find out more here.

 
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The Problem

For young children, it is almost impossible to grasp complicated feedback loops regarding climate change in a way that relates to daily life inside the classroom.

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Our Solution

We designed an interactive ecosystem to make climate change easy to understand and to help children develop their personal investment in these issues by demonstrating the cause and effect cycle of energy usage.

Our prototype takes the form of an enclosed village ecosystem, situated inside a kindergarten classroom. Children interact with the ecosystem, which changes the amount of “energy” in the ecosystem, and leads to good or bad things to happen.

 
 
The Ecosystem   We envisioned an interactive environment functioning through a mapping between the energy reading of an ecosystem, and the Arduino. The entire systems' state is measured by the variable labeled "Energy". The layout consists of multiple outputs through a singular ecosystem, which produces negative or positive environmental effects.

The Ecosystem

We envisioned an interactive environment functioning through a mapping between the energy reading of an ecosystem, and the Arduino. The entire systems' state is measured by the variable labeled "Energy". The layout consists of multiple outputs through a singular ecosystem, which produces negative or positive environmental effects.

Energy Use   There are two inputs which control the “Energy” in the ecosystem: the lighting system, and the crank. While the ecosystem is running, Energy depletes (eg when lights are on). Too much energy depletion leads to negative effects within the ecosystem, such as lights shutting off and smog. However, balance can be achieved once again my regenerating energy using the crank.

Energy Use

There are two inputs which control the “Energy” in the ecosystem: the lighting system, and the crank. While the ecosystem is running, Energy depletes (eg when lights are on). Too much energy depletion leads to negative effects within the ecosystem, such as lights shutting off and smog. However, balance can be achieved once again my regenerating energy using the crank.

Phase 1: Exploration

We first explored related work in interfaces related to climate change.

  • InterANTARCTICA is an installation designed and led by Caitilin de Berigny and created by a team of artists and students from The University of Sydney. Uses a tangible interactive installation environment with physical models to visualize an evolving landscape. 

  • Reefs on the Edge similarly employs physical objects to act as interactive controls atop a screen display. Auditory and visual art is also often used to bring climate change to life, such as the soundscapes of sound-designer Michael Bates.

  • While such displays may now exist in museum spaces, schools also are beginning to integrate environmental education into the classroom setting. For instance, the Environmental Education Resource Pack by UNICEF provides a modular lesson plan for incorporating this content into the daily lives of young children. This resource was especially appropriate for our understanding of the complexity of environmental concepts as compared to age. 

We then explored how children already learning in their natural environment. We realized that children in this age-group often learn through tangible objects, particularly by animating dolls and robots, or constructing mini-cities. These playful interactions have in common the fact that they allow for the co-construction of an immersive universe. Hence, our solution could follow a route involved movements. All these things point to how we should take advantage of interactive learning.

Interactive education puts climate change at fingertips
— Reference to Psychologist Shephard in Installation InterANTARCTICA

Phase 2: Conceptualization and System Design

All of our research point to how we should take advantage of interactive learning. With the problem and user group in perspective, we sought to:

  • Make a sensory, visually exciting, and interactive display

  • Allow kids to see themselves in climate change, and feel personally affected by these issues

  • Understand cause and effect through play

 
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Overview

In a kindergarten class, each student is provided a 3D printed or wooden house as their avatar with an LED inside

  • They personalize it through decoration: paint, glitter, stickers, objects etc

  • Once they are done, all avatars go inside the ‘park’ which represents their ecosystem— our TUI interactive system: the houses

  • When the ecosystem is running, “energy” is being depleted. If too much energy is depleted, the ecosystem will display negative effects. To make the park nice again and protect their houses, they have to regenerate the energy they lost

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When energy is generated, positive effects slowly restore the park to health:

  • Smoke goes away — pollution begins to heal itself with the kids’ “clean energy”

  • Lights turn on — now there is enough energy to go around for everyone

  • Birds start to sing — humans aren’t the only species being affected

  • Visualization of bright sun with LEDs — turbulent weather patterns calm

  • Visualization of rainbow with LEDs — pleasant weather

When energy is wasted, negative effects snowball on a condensed timeline:

  • House lights begin to go off — there is not enough energy left to keep everyone’s home cozy; waste creates externalities for others

  • Water lights begin to go off — overconsumption of energy causes degradation in aquatic life

  • Fog starts to pile up — pollution and smog is created through excess energy production, especially when those energies are not yet clean

  • Sounds of natural disasters — small actions accumulate to create huge effects

 
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Phase 3: Technical Implementation

  • Each house is connected to an LED mounted to the park, with circuitry underneath

  • Neopixel LEDs to display calmer and pleasant weather

  • Speakers control positive and negative weather patterns

  • Processing for visual feedback display of energy consumption

“Smog” Implementation

“Smog” Implementation

Technical Challenges

Using Dry Ice would require extensive care, both around people and the heavy circuitry surrounding this project. Hence, early on we diverged from this idea. We needed to find alternative means of smog creation. To produce impersonated smog safely, we created a device that would automatically trigger the release of the smog when the energy levels in the program had depleted. 

In order to do so, we used an ordinary vaporizer to create the smog and used the casing to enclose the smog. To trigger the release of the vape, we attached a servo which when moved an angle by the Arduino, would put the button the vaporizer. 

“Energy” Generation

Since the Arduino runs on asynchronous programming, this posed a challenge as we needed to ensure that the turns on the crank does lead to an “energy” increase in the ecosystem without delay. Since the crank required recording of rotary encoder data, it needed to be measured every time it was used. We found the solution in the interrupt function, which pauses all other functions to focus on the rotary encoder.

 

Phase 4: Evaluation: Tangible User Interface Showcase

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Our team with our professor,  Kimiko Ryokai , and PhD student Noura Howell

Our team with our professor, Kimiko Ryokai, and PhD student Noura Howell