12 Physics Passion Project Ideas For High School Students

Physics, often described as the science that reveals the mysteries of the universe, can be especially interesting for those who are curious about the world around them. Physics has an incredible range of applications, from the smallest subatomic particles to the vast cosmic expanses, from the intricate mechanics of a clock to the power of a black hole. As a result, knowledge of physics can help with careers in engineering, astronomy, environmental science, and even finance.

In this article, we’ll discuss ideas for different physics research and physics projects high school students can take on and different ways to showcase your project.

How Can I Find My Physics Passion Project Focus?

There are many different directions you can take with your physics passion project, so take some time to think through what specific topics within physics you’re interested in. Maybe you’re more interested in physics’ applications for space exploration, or perhaps you’re more intrigued by the movements of humans or animals or the aerodynamics of specific objects. If you find yourself in a position where you have a direction that interests you, great! You can then begin to dive deeper and conduct science experiments.

Keep in mind that some physics passion projects may require more technical skills like coding or measurement of data, whereas others may just explore theoretical concepts. The route you take is totally up to you and what you feel comfortable with, but don’t be afraid to pursue a high school physics science project if you don’t currently have the technical skills for it! You can view it as an opportunity to learn new skills as a high school student while also exploring a topic you’re excited about. If you need some help putting together your interests, our Project Ideas Generator uses the power of AI to find a project tailored just to you.

What are Some Physics Research and Passion Project Ideas?

1. Lasers

Learn the basics of how lasers work! After studying the basics of optical resonators, you can learn more about a particular type of laser (such as a semiconductor or helium-neon laser) and explain what makes it tick, and what its particular advantages and disadvantages are.

Idea by physics research mentor Christian

2. Knot theory and topology

Knot theory is a branch of mathematics that studies knots. There is a rich mathematical structure involving knots. It turns out that you cannot deform any particular knot into another knot (some knots are permanently tangled) - this is called a "topological obstruction." In this project, you would learn about topology in the context of knot theory. No formal knowledge of math is required to study knot theory!

Idea by physics research mentor Adam

3. Hijacking physics to do math for us

We use math to do a lot of things, like run computers or make predictions. We also use math to describe physical behaviors in the world. In a sense, the world around us is constantly doing "calculations" with physics. In this project, we'll figure out a way to get the world to do our math for us, either in simulation or a simple physical system. Pick an example task (e.g., measure vibration/seismic activity over time, sense changes in shape, detect humidity), and figure out how to make a reliable test without using a computer. Think about experimental design, dealing with the noisiness of the real world, and critical data analysis.

Idea by physics research mentor Sam

4. Physics of dance 

Do you love dance and physics? How can you describe the art form through physics concepts? For example, how can you investigate and explain the "physics of a pirouette"?

Idea by physics research mentor Calli

5. Wait, it flies as well? 

Snakes, Spiders, Squid! What do all these animals have in common? All of these animals "fly" in the loosest sense. There are species of snakes that glide, species of spiders that balloon and squid can jet out of the water! This project would look at existing literature to determine how these animals are able to "fly" and what about them makes them different from their air/land restricted siblings.

Idea by physics research mentor Theodore

6. Determining optimal manufacturing methods for airplanes 

Airplane wings are made from all types of materials, but how can engineers determine the optimal material for their specific design? In order to determine the answer, we need to figure out what the connection is between the aerodynamics of the wing and the strength of the materials. In this project, students will ideally experimentally build and test multiple wing design prototypes to determine an optimal manufacturing method. This project is perfect for you if you’re interested in more hands-on work!

Idea by physics research mentor George

7. Analysis of low-thrust trajectories for space exploration

In this project, your goal would be to investigate the trade-off between thrust and specific impulse (e.g., fuel efficiency) for propulsion on different space missions. You can first perform a literature review of the relevant types and key physics of spacecraft propulsion. This work could then consider the benefits and drawbacks of various space power systems, including solar and nuclear power. Your final project outcome could include analysis of the trade-offs between required fuel mass, travel time, and other relevant factors.

Idea by physics research mentor Parker

8. Why are geckos' feet special? 

Walking on walls and ceilings isn't just a superpower from Spider-Man – geckos and even houseflies are able to go where no human can. Through experimentation and literature studies, this project investigates the nano-physical concept of "adhesion" to demonstrate why geckos have these unique abilities.

Idea by physics research mentor Parker

9. How is the James Webb Space Telescope changing astronomy? 

The James Webb Space Telescope (Webb) is a infrared space telescope, launched at the end of 2021, that is currently providing us with a massive amount of new information about our galaxy thanks to its high-resolution and high-sensitivity instruments. This project would take a deep dive into the kinds of data we are getting back from the telescope and what scientists are doing with that data - leading us to discover how Webb is shifting current astronomical studies and what that means for the future of astronomy.

Idea by physics research mentor Madeline

10. Rigid body dynamics 

Rigid body dynamics studies how rigid objects behave as they are acted on by forces, such as when they collide with each other. This was one of the first things Pixar had to simulate when making Toy Story and it is actually an active field of research at Disney today. In this project, you will explore the mathematical methods of rigid body dynamics and develop your own program to simulate balls bouncing off a plane. This resource from Khan Academy is a great place to start exploring rigid body systems.

Idea by physics research mentor Ina

11. Characterizing gait types of household pets 

At what point does a dog's movement transition from a walk to a run? What stride length and frequency do they use when walking vs. when running? For what portion of a single gait cycle are just two limbs on the ground? Questions like these could be explored with household pets or insects from your backyard using your phone's camera, some motion tracking software, and some basic coding.

Idea by physics research mentor Brooke

12. Mountains from another dimension 

Mountain ranges tend to have "fractal" surfaces; you can sometimes see these "finger-like" ridge lines splitting away from a peak and descending down. Fractals can famously have dimensions in between the usual 2 or 3 dimensions we are used to. You could use publicly available elevation data to measure the "fractal dimension" of a mountain range. Does the fractal dimension tell us something about the topography or geology of the mountain range?

Idea by physics research mentor Anoop

How Can I Showcase My Physics Passion Project?

After you’ve done the hard work of researching and learning physics concepts, it’s also equally important to decide how you want to showcase your project. You can see that in many of the project ideas above, there is a clear topic, but how you want to present the project is open-ended. You could try to publish a research paper, create a podcast or infographic, join a conference for physics science fair projects, or even create a visual representation of your concept. You’ll find that although many project ideas may feel like they should just be summarized in a paper, many actually can be showcased creatively in another way!

Have any Polygence Students Completed Physics Passion Projects?

There are several examples of amazing physics passion projects completed by Polygence students. We encourage you to explore them for inspiration; we’ll highlight a list below:

• Arif’s project was a research paper on nuclear fission reactor moderators, where he looked to find the best and most feasible compounds to achieve a chain reaction with maximum efficiency.

• Carl’s project was creating an online physics calculator that solves physics equations and shows the steps to arrive at the solution. The calculator is on a website where physics students can learn about complex equations and learn step by step.

These projects are more than just computations or experiments; they're a symphony of creativity and scientific curiosity. From unraveling the secrets of nuclear science to exploring the potential of Boron Neutron Capture Therapy for cancer research, each endeavor is an adventure that sparks curiosity and imagination. 

The lineup of the projects we’ll discuss more in depth are: 

1. Taya’s Project: Nuclear Science Experiments and Outreach

2. Arif’s Project: Modeling and Simulation of BNCT for Cancer Treatment 

3. Vikram’s Project: Computational Physics Modeling Nuclear Reactors 

4. Sai Pranav’s Project: Comprehensive Analysis of the Properties of Rubber Bands

Diving Deeper on Each of these Ideas 

Tayas Project: Nuclear Science Experiments and Outreach

Taya's initiative takes us into the captivating realm of nuclear science experiments. Taya conducted a series of experiments that not only showcases her scientific prowess but contributes to the broader understanding of nuclear phenomena. She’s conducted the following experiments and showcases them on her blog:

#1 Alpha Radiation Detection

Using a condenser microphone, Taya engages in hands-on experiments to detect alpha radiation, transforming abstract concepts into tangible experiences.

#2 Gamma-Ray Spectroscopy Collaboration

Gamma-ray spectroscopy is a technique used to analyze the energy spectrum of gamma rays emitted by a radioactive substance. This method allows scientists to identify the types of radioactive isotopes present in a sample and quantify their concentrations. The energy spectrum of gamma rays emitted during radioactive decay is unique to each isotope, serving as a kind of "fingerprint" that helps in the identification process.

In practical terms, gamma-ray spectroscopy involves the use of detectors to measure the energy levels of gamma rays emitted by a radioactive material. The resulting spectrum provides information about the specific isotopes and their abundance in the sample. This technique finds extensive use in fields such as nuclear physics, environmental monitoring, and medical imaging, contributing to a better understanding of radioactive materials and their applications.
Collaborating with the Nuclear Engineering department at a local university, Taya is bringing invaluable insights and resources from academic experts, adding an exciting and enriched layer to her exploration of gamma-ray spectroscopy.

#3 The Most Bombed Country in the World

Taya delved into an often overlooked and somber chapter of history, shedding light on the plight of Laos as the "most heavily bombed country in the world." In her blog, she addressed the misconception that such a grim title might be associated with an instigative or problematic nation, dispelling the assumption prevalent in the West. Taya highlighted the lack of documentation and awareness in the U.S. about Laos, emphasizing that standard world history textbooks provide minimal information beyond the country's name and location.

Unearthing a tragic period from 1964 to 1973, she outlined how Laos became a victim of intense U.S. bombing during "Operation Barrel Roll" and "Operation Steel Tiger." The staggering statistic of 260 million bombs dropped, surpassing the combined total of bombs in WWII, underscored the magnitude of this historical tragedy, making Taya's blog article a poignant exploration of a forgotten narrative.

Taya's projects span the realms of nuclear science experiments, social media science education, and historical awareness. From conducting hands-on experiments detecting alpha radiation to collaborating with others, Taya showcases a multifaceted approach to scientific exploration. Additionally, her engagement in social media platforms to simplify nuclear physics concepts and her insightful blog article on Laos's history as the most heavily bombed country underscore her commitment to diverse and impactful projects.

Arif's Project: Physics Modeling and Simulations 

Arif, showcasing his advanced academic prowess, engaged in two Polygence projects!  The first project explores the optimization of moderator compounds for nuclear reactors. Arif's project focuses on identifying effective and economical moderators for nuclear fission reactors. Emphasizing criteria such as efficient thermalization of neutrons, neutron absorption rates, and cost-effectiveness of the materials used, Arif explores the potential of different types of moderators used in nuclear fission reactors. 

In his second research project, Arif delves into the realm of physics modeling and simulations using Python, specifically focusing on the intriguing concept of Boron Neutron Capture Therapy (BNCT). This therapeutic technique utilizes the distinctive properties of boron to selectively target and destroy malignant tumors, particularly in the case of brain tumors. Arif's multifaceted exploration showcases his dedication to diverse and impactful scientific pursuits.

Vikram's Project: Computational Physics Modeling Nuclear Reactors

Figure 1. Examples of Tokamak Fusion Reactors from the Paramak Python package.

Vikram takes on the challenge of computational physics by modeling nuclear reactors, with a specific focus on a tokamak, a device central to nuclear fusion research. Through Monte Carlo modeling, Vikram explores the intricacies of nuclear fusion and reactor dynamics, shedding light on the potential future of sustainable energy. Vikram's exceptional dedication and research acumen earned him the prestigious CREST Gold Award for his research project, titled “Optimization of Tritium Breeding Ratio in a Submersion Tokamak Fusion Reactor”. 

Sai Pranav's Project: A Comprehensive Analysis of the Properties of Rubber Bands

Sai Pranav's project takes a fascinating turn into the everyday yet mysterious world of rubber bands. Through a series of experiments and analyses, Pranav investigates the complex behaviors of rubber bands, addressing questions related to color, size, and responses to external forces. His comprehensive study provides valuable insights into the material properties of rubber bands, paving the way for potential advancements in their design and application. Pranav's remarkable research efforts also earned him the prestigious CREST Gold Award for his award-winning study, titled "A Comprehensive Analysis of the Properties of Rubber Bands.”

These graphs are just teasers from Pranav’s research paper, which you can find here.

Reflecting on the projects undertaken with my students has been a rewarding experience. Their curiosity and dedication have brought these endeavors to life. Witnessing their exploration of science and technology has been a pleasure, and offering solutions to real-world challenges has been a pleasure. To my current students, your hard work and passion for science and engineering is commendable! For those considering joining the journey, I welcome new students with open arms. Let's continue making learning both dynamic and enriching.

How Can I Get Started With My Physics Project?

In this article, we covered how to find the right physics project for you, shared a dozen ideas for physics passion projects, and discussed how to showcase your project.

If you have a passion or even just a curiosity about physics and you’re interested in pursuing a passion project, Polygence’s programs are a great place to start. You’ll be able to meet virtually one-on-one with a physics research mentor who can help you learn new concepts and brainstorm with you on ways to showcase your passion project.

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