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WaveMaker

An interactive installation talks about microplastic environmental protection

Project Overview

This interactive installation is designed to raise people’s awareness of protecting the ocean. Microplastics have become a severe problem in today’s society and if human beings keep polluting the environment with plastics, nature will finally punish us.

Project

Interaction Design

My role

Interaction Designer

Timeline

16 weeks

Tool Used

Arduino

Solidworks

Background

Distribution of litter types in different

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15 million marine organisms die each year because of plastic waste

Fishing nets are likely to entangle in marine lives,  such as turtles and fish

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About 40 million tons of heavy mercury are classified into the ocean each year

Data visualization

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Global composition of marine litter

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Aquatic life affected by litter

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Types of entounters

Microplastic (PM2.5) in Ocean

Microplastics are tiny plastic particles that result from both commercial product development and the breakdown of larger plastics. As a pollutant, microplastics can be harmful to the environment and animal health.

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Where do the Ocean's Microplastics come from?

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Case Study

Case1: Great Pacific garbage patch

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Case2: High levels of microplastics found in Northwest Atlantic 

Typically living at depths of 200-1,000 meters, these fish could spread microplastic pollution throughout the marine ecosystem, by carrying microplastics from the surface down to deeper waters. They are also prey for fish eaten by humans, meaning that microplastics could indirectly contaminate our food supply.

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A new study finds 73 percent of mesopelagic fish caught in the Northwest Atlantic had microplastics in their stomachs -- one of the highest levels globally. 

Microplastics have, so far, been found in 114 different marine species.

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Analyze

MoodBoard

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Core function

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Prototype

Movement Imitate

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Using various materials prototyping to imitate the wave movement.

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Sketch

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Connection

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Arduino Hardware

A0 pin of L298N motor driver board

A1 pin of L298N motor driver board

A2 pin of L298N motor driver board

A3 pin of L298N motor driver board

 

10 pin of automatic fans

Out1 + Out2 of stepper motor coil A Out3 + Out4 of stepper motor coil B

 

2 Trig pin of ultrasonic sensor

3 Echo pin of ultrasonic sensor

5v VCC pin of ultrasonic sensor

Final Design

Flowchart

When people approach the installation, the receptor will report to Arduino. Then fans will turn faster, making the plastic pellets more active.

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Distance receptor

Arduino

Motors

Wavemaker

Hands

Fans

01

When a person approaches the distance sensor, Arduino detects and increases the speed of the fan to cause strong winds to blow away the plastic pellets.

When there is no disturbance, the motor keeps rotating at a constant speed and the fan keeps rotating at a low speed. 

02

Final work

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