Wind power projects are high impact entry points into renewable energy and engineering concepts. Students can approach wind energy projects from numerous angles including materials, biomimesis, aerodynamics, or even energy cost per kilowatt-hour. Some projects, such as Regeneron International Science & Engineering Fair (ISEF) 2024 Grand Award winner Yash Dagade’s SkyWindFarm, combine complementary ideas into a single proof of concept for an entire wind power system.
Below, we discuss the reasons to explore wind power through science fair projects and offer three ready-to-go, customizable wind energy project ideas. We also discuss data collection and analysis techniques, as well as expert tips to make your project stand out on the day of the fair.
Why Explore Wind Power in Science Projects
Wind power is highly relevant to global energy challenges. In the United States, about 60% of energy is currently produced by burning fossil fuels, which releases carbon dioxide into the atmosphere. Wind power, which accounts for only 10% of American energy, creates no CO2 per kilowatt-hour of electricity. By the year 2050, wind power is predicted to jump to 35% of total energy production in the U.S.
Wind power science fair projects offer students the opportunity to gain hands-on experience with engineering and design. They can also be leveraged to demonstrate students’ interdisciplinary learning, creative problem solving skills, and potential for innovation. (Regeneron ISEF awards 20% of the total available points for Creativity & Potential Impact, according to their scoring criteria.) This makes wind power projects ideal for building and showcasing academic depth in the context of real-world challenges.
Wind Power Science Fair Project Ideas
Investigating the Effect of Blade Twist Distribution on Wind Turbine Power
This project idea is inspired by Gavin Kuronya’s ISEF finalist project, “Optimizing Wind Turbine Blade Angle.” Gavin tested the effect of uniform blade angles on the amount of power generated in watts. However, most commercial turbine blades are actually twisted by about 10 to 20 degrees along their lengths. This allows each point of the edge to meet the wind at the optimal angle according to its speed, since the tips of the blades are moving much faster than the points closer to the center of the axis of rotation (the “hub”).
This project will test multiple twist distributions in three blade designs:
no twist
a gentle linear twist of 5 degrees
a steeper, 15-degree gradient twist concentrated near the hub
Each design will be tested in a controlled environment. Power output will be calculated from multimeter readings, and the results will be compared across the various blades.
Improving Wind Turbine Efficiency through Biomimetic Blade Edges
This next project is inspired by ISEF finalist Akshara Srinivas’ project, titled “Hammerhead-Inspired Wind Energy Generation.” Instead of taking inspiration from sharks, you will replicate the comb-like serrations found on owl feathers and integrate them into a wind turbine design. The goal will be to determine whether or not these serrations a) improve wind energy generation, and b) reduce the noise produced by active turbines, which is one of the most frequently cited oppositions to wind farms.
You’ll start by modeling initial designs using OnShape, and then test them using a fluid dynamics analysis in SimScale. The best-performing designs will be 3D-printed on a small scale for testing under controlled conditions in a wind tunnel. You’ll measure both the amount of power generated and the amplitude of noise in decibels.
Your serrated design will be compared against a base model, which will serve as a control.
A Computer Model for Optimal Wind Farm Placement
Inspired by this project by Zelda Anesko, a finalist at ISEF 2025, this third project aims to develop a simulation-style video game allowing users to model the efficiency of onshore wind farms in locations across the United States. The Python-based game will integrate wind power density data from the Global Wind Atlas, which will also serve as the background for the game’s interface. Additionally, the game will integrate croplands data from the USGS, allowing users to determine the potential impact of a proposed windfarm in agricultural areas.
The goal of the project is to develop a proof of concept that can be scaled and refined for use in education and real-world applications.
Want more project ideas? Check out our Project Idea Generator!
Building Your Wind Power Project
When building your wind energy project, it is essential to have a basic understanding of the physics behind wind power. The Massachusetts Institute of Technology provides a helpful guide on wind power fundamentals; the University of Leipzig also has a webpage dedicated to the physics of wind turbines.
It’s not necessary to understand all of the physics behind wind power generation. However, it is important to understand the fundamental relationships. For example, you should know that wind power is cubically proportional to wind speed, rather than being related linearly as many students guess. The volume and mass of the air also affect the amount of power that can be extracted.
In addition, before starting a project, we recommend familiarizing yourself with broader engineering and design principles. The standard engineering process includes the following steps:
Define the problem
Conduct preliminary research
Decide on constraints and criteria for success
Identify a possible solution
Develop a prototype
Test and iterate on the design
Present the results
Collecting and Analyzing Data
You can use a variety of techniques to collect and analyze data for your power science fair project. Many successful student projects utilize a combination of computational Fluid Dynamics (CDF) simulations, wind tunnel power measurements, and stability analyses with scale models. For example, students working on novel wind turbine designs can measure dependent variables such as voltage, watts, and/or rotations per minute in both clean and turbulent air flows to gather useful data about the efficiency of their prototypes.
Once you’ve collected your data, you can apply statistics and data analysis techniques such as those learned in Polygence Pods. These technical skills are important for interpreting trends and extracting meaningful insights about how your design performs against the control.
Making Your Project Stand Out
Standing out from the crowd is not easy. Here are three tips to help your project rise to the top:
Highlight innovation and real world impact. Explicitly state the key innovation(s) that your project proposes, and how your solution could open up new perspectives and potential benefits for the world (i.e. in technology, for the economy, for the environment, or for society).
Clearly explain engineering principles and results. The judges in science and engineering fairs want to see research outcomes and rigorous design analyses across several trials. Ensure your methods are strong and well-documented through photos and notebooks.
Present your work in a clear and structured way. The Society for Science recommends that judges reserve 35% of available points for the presentation. Your visual poster should be logically organized with easy-to-read graphics and supporting documents; the interview with the judges should reflect the depth of your understanding through concise responses and thoughtful ideas for additional research.
How Mentorship Strengthens Engineering Projects
Working with a research program mentor gives students the key tools to elevate their wind power projects as well as future engineering projects. Strong mentors can connect students to essential resources, teach them to use professional-level software, offer theoretical and technical guidance, and provide expert feedback on design prototypes. Furthermore, they can support students with fundamental data analysis concepts and techniques. Finally, mentors can help students effectively prepare for competitions and showcases through poster design ideas and mock interviews.
Wind power projects bridge creative innovation with technical and analytical rigour. Polygence connects students with PhD-level mentors through our renowned research mentorship program or through our industry-connected Work Lab, depending on their goals.
Apply to Polygence to power your engineering project with depth, distinction, and academic excellence!