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Clearwater Innovation, a nonprofit dedicated to raising awareness about the global water crisis, is empowering the next generation of environmental problem-solvers, often starting right from their own homes. Through its unique “garage lab research” model, the program supports first-time researchers who work with everyday materials and accessible technology to tackle some of the world’s most urgent environmental challenges. 


“Science research doesn’t have to be expensive. Young students can begin addressing challenges at an early age,” said Kyle Tianshi, co-founder of Clearwater Innovation. “Getting students to start a research project is not easy. Often, it takes a lot of time just to figure out which problems need to be solved. Through our summer research program, students read scientific papers and explore topics such as climate change, water contamination, air pollution, biodiversity, and ecosystems. From there, they identify a specific problem that interests them and develop a plan to address it.”


Collaborating with the Torrey Pines Docent Society, this year’s student summer research showcase was opened to the Society team and the public. The students highlighted a wide range of projects addressing environmental concerns, both local and global. Three projects were recognized as top entries for their in-depth paper reviews and innovative ideas.

Valerie Combs, a student at The Bishop’s School, presented her project, Sustainable Caffeine Removal from Wastewater Using Electrochemically Regenerated Activated Carbon Derived from Spent Coffee Grounds. Valerie Combs proposed a creative, sustainable method for treating wastewater. Working with recycled coffee grounds, she is working on activated carbon capable of removing caffeine, a contaminant often present in waterways due to beverage production and disposal. “I was shocked to find out that coffee grinds, normally considered trash, could be used to filter out contaminants,” Valerie said. Her work not only aims to improve water quality but also explores how waste materials could potentially be transformed into valuable resources — a promising example of resourceful 'garage lab research' in progress.


Lucy Shi, a student at Harvard-Westlake School, is conducting a research project titled “Microplastics and Nanoplastics Size Distributions in Commercial Containers and Their Potential Effects on the Human Body.” In this work, she is examining the types and sizes of micro- and nanoplastics released from common plastic containers and comparing them to those found in human tissues. Her research aims to better understand how everyday packaging may contribute to human microplastic exposure — a growing public health concern that may begin with the simplest objects in our kitchens.


“If you are passionate about a topic, you don’t need a whole team or a science lab,” Lucy said. “Spreading awareness and coming up with new innovative ideas will contribute to scientific findings.”


Zhenzhen, a student at The Bishop’s School, is pursuing a research project titled “Optimizing Ship Propellers to Minimize Cavitation Noise and Its Effects on Marine Animals,” addressing the often-overlooked issue of underwater noise pollution. Cavitation — the formation and collapse of bubbles around ship propellers — produces powerful sounds that can interfere with marine mammals’ communication and navigation. She is currently exploring design modifications and planning performance analyses to investigate whether these changes could significantly reduce cavitation noise.


“I was excited to share my findings with people because the majority of the population does not know about noise pollution and the damaging effects that follow,” she said. She wanted to start doing some meaningful marine conservation work from home.


"I was very impressed with the students’ proposed projects,” Dr. Wayne Kornreich said. “They showed that they did a very thorough and extensive literature search involving their chosen topic. Many Torrey Pine docents came up to me and stated that they thought that the students and their projects were very impressive."


Beyond the student recognition, Clearwater Innovation’s “garage lab research” approach underscores the idea that scientific breakthroughs don’t have to begin in high-tech facilities. Students gain hands-on experience in designing experiments, analyzing results, and communicating their findings, often using tools and spaces available to them at home or in their communities.


As climate change, pollution, and biodiversity loss intensify, organizations like Clearwater Innovation are showing that young researchers can make real contributions to global solutions. By fostering curiosity, resilience, and creativity, the program ensures that the next generation of scientists can start anywhere, even in their garages, and still change the world.


Student Poster Presentations at Environmental Innovation Showcase
Student Poster Presentations at Environmental Innovation Showcase

“I strongly agree that each preventable death is one death too many.” [1] This quote, said by Christy Turlington rang loudly in my ear as I read about the crisis of ghost fishing. Unbeknownst to most, every year, millions of ghost fishing nets enter the oceans, and up to 65,000 marine animals are killed by them. This includes not only fish, but also seals, turtles, dolphins, and even whales. [2] As humanity’s impact on Earth grows ever stronger, small things that didn’t seem like such a big deal in the past are the largest problems we face today. 


Derelict fishing gear, most commonly called ‘ghost gear,’ is fishing gear that is left abandoned in the marine environment. [3] The act of “ghost fishing” is when the derelict fishing gear continues to catch and kill marine life. Since its discovery in the 1960s, research regarding the matter has only increased. [4] Though countries try their best to learn more about the problem and remove these harmful traps, gathering data on the lost gear is no easy task. While trash in the ocean sometimes remains in nearby waters, it can be transported anywhere by winds and waves. [5] With no tracking devices on the gear, finding, studying, and disposing of them poses a difficult challenge. 


So, what can we do? With numbers reaching millions, increased deaths, seemingly no efficient way to get rid of the gear, solving this problem doesn’t seem possible. However, what we need to do might not be to solve the problem, but prevent it from becoming worse. The World Wildlife Fund provides a good guide to how we can achieve this. Governments should make better policies surrounding the disposal of fishing gear. Fishing gear companies could work to research ways to make more eco-friendly products. Fishers should use their fishing gear more carefully. And lastly, we as civilians should spread awareness and report any ghost fishing sightings that we see. [6]


Though we can do nothing to revive the countless innocent lives of marine animals harmed by our own human carelessness, we can do our best to prevent more deaths from occurring. We must take action, raise awareness, and stop ghost fishing before it escalates even further. Perhaps what you do might not seem like anything at all. But whatever you do, no matter how small, can prevent the death of one more fish, one more turtle, one more whale. 


Because each preventable death is one death too many. And you can change that.



Right now, as you read this online, you are utilizing the great benefits of rare earth elements. This also goes for when you use your phone, watch TV, drive an electric car, or just sit in a room lit by fluorescent light bulbs. Rare earth elements are non-negotiables to modern living as they are essential to functioning electronics—but what are rare earth elements, anyways? 


Rare earth elements (REE) are 17 metallic elements, including all the lanthanides on the periodic table, that have properties which make them essential parts in many electronics. From their name, you would think that they are hard to find in nature, given that they’re “rare.” However, they aren’t actually that rare in terms of abundance on the Earth’s crust (some are even more common than lead!). They’re called “rare” because of the difficulty in extracting and refining them, because they are found in nature as compounds with other elements (1). There are about 150 rare earth elements mines in the world, each going through a similarly complicated process to extract the minerals (2): First, REE are taken out of the earth, often by blasting. They are transported to a process plant and broken into smaller pieces and coated in chemicals to free the pure rare earth elements in a froth flotation process. Finally, they undergo further treatment and processing to be used in products while the other minerals they were found with are disposed of (3). 


Evidently, the REE mining process is quite an ordeal. Not only that, the process is susceptible to other risks with significant impacts on the environment. The explosions used to extract REE from the earth remove the topsoil and expose the earth to radioactive chemicals, disrupting natural ecosystems, causing erosion, and contaminating waters. All the blasting sites and refining plants burn fossil fuels, emitting loads of carbon and contributing to climate change. Between 2010 and 2020, the mining process for REE resulted in 32 billion tons of greenhouse gas emissions, and the demand for REE in electronics will only continue to increase (4). 


But the irony of this whole process is that mining rare earth elements is ultimately for the purpose of helping the environment. REE are crucial for technology that reduces gas emissions, including permanent magnets used in wind turbines and electric vehicles. Six times more REE are required to make an electric car than a gas car, and nine times more for a wind plant than a gas-powered one, and here lies the trade-off (5). On the front end of producing REE, tons of carbon are emitted, but in the end, it creates a more environmentally friendly product. The natural question, then, is to mine or not to mine? Mine REE and cause climate change? Don’t mine REE and cause climate change? 


It’s not a matter of whether we should keep supplying REE or not. We will almost definitely continue to make more and more products that utilize this resource. However, a solution may exist in how we supply the rare earth minerals. There are many current investigations into how emissions can be reduced in the mining process, whether by using a cleaner extraction method or by foregoing mining altogether and instead recycling coal waste or REE from old electronics (6). So, although we currently live with a paradox of green technology from environmentally unfriendly methods, efforts are being made to keep the best of both worlds and promote a better environment.



Clearwater Innovation

A program of We Impact Corp, a 501(c)(3) non-profit company 

A student-run environmental advocacy program founded by Emily Tianshi and Kyle Tianshi, Clearwater Innovation seeks to raise awareness about the global water crisis, encourage garage lab research, and increase student environmental public policy engagement. 

© 2018 by We Impact Corp

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