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Sustainable Energy Engineering Undergraduates
Sustainable Energy Engineering program offers an interdisciplinary learning environment that empowers you to become a global leader in clean technology.
SEE Project Showcase
Welcome to the School of Sustainable Energy Engineering's project showcase. Learn more about the innovative projects that our students are working on to tackle real-world problems and promote sustainable practices. Explore the projects from our undergraduate students below.
Water Filtration Device
Team members: Shawn, Ben, Jasmina, Tessa, Serena
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This project, called “Sea Spray,” demonstrates water filtration. By using an interactive hand pump, water is forced through a series of filters including a reverse osmosis filter to purify it.
Rotary Generator
Team members: Ario, Nick, Jacob, Sebastian
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The team developed a portable system that generates energy to charge an electronic device. The user pulls on the belt, generating mechanical energy through gears which is used to charge a battery. This project demonstrates how motion can be converted into electricity.
Hand Crank Generator/Battery
Team members: Annie, Ian, Emeric, Simrin
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This project demonstrates how electricity can be produced by using a hand crank. By turning the crank, rotational energy is used to generate power and light up the lightbulb.
Solar Powered Remote-Controlled Car
Team members: Sebastian, Tara, Rafia, Sarah
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This project uses solar power to produce electrical energy. By placing solar panels on top of a remote-controlled car, light is absorbed to power the toy.
Gravity Battery
Team members: Evan, Arjun, Jeffer, Diego, Murat
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The team developed a model of an electrical storage device that stores potential gravitational energy. When the weight is dropped, it spins the turbine and generates energy which is stored in a battery.
Smarthome
Team members: Sammy Sukhdeep, Vinhara, Ajayi
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This project illustrates how hydropower could be used to generate electricity to power a house. Rainwater is collected in a tank on top of the house, and when it is released, it produces a current which spins a turbine to create electricity.
Vertical Garden
Team members: Braidyn, Chenuka, Justin, Mikhail
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The team developed a gardening system that demonstrates vertical farming and could be used for an individual. Unlike traditional gardens, this project illustrates how plants can grow in water without soil. This project also aims to address food scarcity concerns.
Piezoelectric Insole
Team members: Zachary, Matteo, Jack, Leo, Lucas
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This project demonstrates how electrical energy is generated by mechanical stress. By applying pressure on the shoe insole, electricity is produced and displayed on a multi-meter.
2023
Hydroelectricity Education
Team members: Adrienne, Calla, Landon, Nolan and Prashant
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This project focuses on sustainable energy generation. As hydroelectricity is the leading source of sustainable power in B.C., the team wanted to develop a prototype to help educate students on the significance of producing energy through hydropower. They used a tank of water and gravitational force to make a water turbine spin which generated electricity.
Wave Energy Generation
Team members: James, Andrew, Ryan and Jimena
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This project aims to develop a mechanical system that converts wave motion into electrical energy. The linear motion of the waves moves a magnet inside a solenoid to generate power. The goal of this project is to demonstrate the various types of natural resources that are capable of generating clean energy.
Hydroponic Solution for All
Team members: Avry, Esther, Gripen, Quin and Relena
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The team developed a system for in-door gardening that allows individuals to grow food in their own home. This project strives to bring awareness to the impact of agriculture and deforestation as well as decentralize global systems.
Ultrasonic Acoustic Wave Filtering
Team members: Mark, Matthew, Yayha, Sofia and Alexander
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This project aims to tackle concerns regarding microplastic in our environment. The team created an apparatus that can collect and filter microplastics from the ocean by using sound waves.
Steps for Sustainability: Piezoelectric Platform
Team members: Gavin, Aidan, Mahdi, Jacob and Paul
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This project focuses on the conversion of mechanical energy into electrical energy. By stepping on the platform, the crystalline materials used in the prototype are deformed which produces an electrical voltage. The project aims to help reduce the reliance on fossil fuels.
Chargeable Crank Flashlight
Team members: Ahmed, Delraj, Ella, Rawad and Tavleen
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The team developed a rechargeable flashlight that converts mechanical energy into electrical energy. By turning a hand crank, energy is produced and stored in a capacitor which recharges the light’s battery.
Sun Tracking Solar Panel
Team members: Jaiden, James, Omar and Sam
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This project aims to convert sunlight into electrical energy through the photovoltaic effect. By using photoresistors to analyze light intensity and a duo access rotation panel, the solar panels have the ability to move toward the best source of light.
In-Pipe Hydroelectric Generator
Team members: Aisha, Cameron, Clover, Kaidan and Sonia
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This project focuses on producing hydropower through the flow of water. Gravitational force can increase the velocity of water in pipelines in order to spin the turbines used to produce electricity.
Water Quality Sensor
Team members: Claudia, Ana, Kabir, Vedder and Justin
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This project strives to improve the accessibility of clean drinking water around the world. As current methods are complex and expensive, this portable device aims to simplify water purity testing by assessing the pH and temperature of water.
2022
Solar-Charger
Team members: Alexandra Szilagyi, Amy Drysdale, Justin Ocampo and Scott McCormick
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This project focuses on the development of an off-grid sustainable solar charger. Its design was based off the most recent iteration of the iPhone charger. As the name of the project indicates, the charger uses the sun to supply power. As grid-based power is not always available and uses unsustainable materials, off-grid solar power offers a solution to this issue as an alternative power source.
Electric Household Composter
Team members: Ashir Waseem, Joshua Yau, Michael Chen, Nathaniel King and Tianna Sequeira
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This project aims to convert food waste into compost that can re-enter the earth’s soil as opposed to a landfill. Food scrap disposal is time consuming and leads to food waste. A substantial amount of British Columbia’s landfill waste is made up of food that does not get composted. Therefore, this project aims to make a household system that streamlines the composting process for end.
Power Preserver
Team members: Ani Beaubien, Anna Lamontagne, Nalyssa Runge, Jay Vyas and Rowan Arkell
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The aim of this project is to develop a household voltage sensing device to reduce unnecessary consumption of power. Have you ever left you phone in the charger beyond one hundred percent? People often leave their electronics plugged into electrical outlets sapping up power that goes to waste. These instances add unnecessary costs to people’s electric bill and wastes energy. To mitigate this, the project aims to switch off the current of energy that devices receive when it detects a certain voltage.
Personal Vertical Farm Design
Team members: Annelise Jenson, DJ Cuthbert, Keira Lai, Victor Muresan and Yan Ning Tang
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The aim of this project is to provide homeowners a product in their homes that facilitates sustainable living by allowing people to farm and grow their own food. Due to bulk purchasing of food products, a large amount of food does not get consumed and goes to waste. This project seeks to transcend traditional outdoor farms through its ease of use, convenience and control which helps to promote sustainable living and reduces food waste through making farming more accessible.
Hydro-Turbo
Team members: Amrit Brar, Clara Park, Elliot Roy, George Pavlov and Yeji Kang
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The aim of this project is to generate electricity using a renewable hydro energy source. Other sources of renewable power generation can be inconsistent such as solar and wind. Since British Columbia has an abundance of water, a small-scale hydro turbine can generate a consistent source of clean energy on a small scale. This project is portable, lightweight, durable and inexpensive to make. The idea is to provide a small scale, personal hydro energy source for outdoor enthusiasts and remote locations.
E-Bike Kit
Team members: Andrew Nathan, Ethan Stiller, Gabriel Rubio, Jordan Takama and, Stephen Tran
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The aim of this project is to develop a budget friendly and reliable electric bike converter kit. In Canada, the transportation sector makes up a substantial portion of greenhouse gas emissions. This project showcases how a sustainable transportation option like electric bikes can massively contribute to reducing gas, power and energy usage required to operate most cars, trucks and buses.
Automated Garbage Sorting and Disposal System
Team members: Ken Chisholm, Marlon Buchanan, Mohammed Niamul Haq and Obayda Tayeh
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This project addresses the buildup of organic waste in landfills. This phenomenon leads to greenhouse gas pollution and land destruction. Furthermore, landfills make up a substantial amount of emissions. Improper disposal and sorting of organic waste exacerbate this issue. This project sorts garbage into the right bin for proper recycling or disposal.
Water Filtration Device
Team members: Shawn, Ben, Jasmina, Tessa, Serena
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The aim of this project is to develop an app that is integrated with the transit system to help minimize the environmental impact of public transportation by removing the need for a physical plastic Compass Cards. Considering that these cards are not recyclable due to the chip contained in them, this app offers a more environmentally sustainable solution. The Scoot app manages users’ Compass Cards and contains bus and SkyTrain schedules. The app is convenient and reduces plastic waste.
2021
Automated Irrigation Monitoring (AIM) System
Team members: Mackenzie Calder, Paula Themmen, Erfan Ferdosian, Jacob Erickson, Harleen Dhillon, Rajat Agrawal
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The AIM system is a feedback control system that continuously monitors agricultural soil conditions through the use of a sensor unit, and a user interface. The sensor unit built using a micro-controller equipped with a capacitive moisture sensor relays soil moisture data to a computer application-based user interface. The interface, designed in Excel for the prototype, reads the soil moisture data and notifies an operator when irrigation of the cropland is required. The interface can then control an irrigation system, supplying water until a desired soil moisture level is detected by the system.
SynthaSift Laundry Microplastic Filter
Team members: Elizabeth Salvosa, Braden Harding, Changle Yu, Cyrus Urbanowicz, Daisy Chen, Mishak Taggart
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Laundry systems are leading sources of synthetic material introduced into our biosphere. To help mitigate plastic pollution, we designed the SynthaSift, an inline laundry microplastic filter. Our inspiration draws from existing products, including Lint Luv-R and Filtrol. By enhancing Filtrol's filter range, SynthaSift filters particles approximately ten times finer, while maintaining a competitive sale price. The prototype was 3D printed using biodegradable polylactic acid (PLA), to minimize the environmental impact at each stage of our design. As SEE students, we acknowledge that water is a valuable resource, and it is our responsibility to make positive environmental impacts.
SustainInk
Team members: Eddy Sanderson, Alia Gola, Erin Flood, Dana Kadoura, Ryan Cordoni, Aiden Rudy, Akash Bains
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Our team created a biodegradable conversion kit for home printers that turns a traditional ink cartridge printer into a reusable, refillable ink reservoir. By creating a refillable system, home printers become more affordable and sustainable by cutting down on plastic waste, and the use of expensive often unrecyclable cartridges. We created our design to model reservoir printers, which are an expensive printing option that is often inaccessible for students and low-income working professionals. By adapting a system that is already in use, we have created a fully integrated system that works on any home printer that uses a cartridge system.
Energy Demand of Electrified Residential and Personal Transportation Sectors in Surrey, B.C.
Team: Hannah Chan, Emma Hannaford, Clara (Yoonsoo) Park
As Surrey moves towards electrifying its residential and personal transportation sectors, the electric grid may require changes to accommodate rising demands. This project models electricity demand after electrification of townhouses, condominiums, single-family homes, and personal vehicles. An eQUEST model is generated to forecast electricity demands by simulating annual building operations. A spreadsheet is used to combine the building and home electric vehicle charging profiles. The results show large increases in electricity demand when comparing the baseline and electrified scenarios, especially throughout winter. The demand profiles can be used to address grid development. However, policy-making and city planning requires further research.
Comparison Between Conventional and Passive House Certified Apartment Buildings in Metro Vancouver
Team: Danielle Arciaga, Kaylee Meschke, Isaac Yoon
The eQUEST building energy modelling software was used to model a five-story apartment building constructed between 1980 and 1990 in Metro Vancouver, and a Passive House certified retrofit of the same building. Comparisons of electricity and gas consumption showed that retrofitting the building led to an increase in electricity consumption and a decrease in gas consumption. Discovering these results is important because of the increase in population and the COVID-19 pandemic. With more people staying home, the energy consumption of the residential sector will increase and could impede the 2050 net-zero emission target in place within Metro Vancouver.
Investigating the Energy Consumption, Carbon Emissions and Cost Savings of Retrofitting a Multi-Unit Low-Rise Residential Building in Surrey, B.C.
Team: Taryn Chang, Simran Pandher, Tayme Stewart
In line with the City of Surrey’s climate action plan, our project investigated changes in energy usage, emissions and costs of retrofitting and electrifying a 1990 low-rise multi-unit residential building. By comparing ‘original’ and ‘retrofitted’ models, we found that electrifying building systems and improving the building envelope can reduce energy consumption and greenhouse gas emissions. However, the building envelope upgrade is acheived at a relatively high cost. Finally, our analysis on installing electric vehicle charging stations may help promote the technology in retrofitted buildings. Expanding the steps to meet newer building energy standards is essential to support retrofitting and electrification.
SFU students to develop zero-emissions retrofit for Stanley Park Train
With the goal of a more sustainable future and an openness for collaboration to bring innovative problem-solving projects to fruition, Sustainable Energy Engineering students, CityStudio Vancouver and the City of Vancouver are working together to electrify the Stanley Park Train. The student team made up of Mackenzie Calder, Thomas Hruby, Felipe Patarroyo Singh and Pamela Subia are applying their engineering skills to retrofit a gasoline engine to an emissions-free power unit as part of this goal.