Resource Guide
Research Project Ideas in Physics for High School Students
Specific, answerable questions across mechanics, astrophysics, quantum and particle physics, thermodynamics, and computation, with guidance on choosing one.
How to Use This List
Physics offers a rare gift to the student researcher: much of its deepest work can be done with mathematics, a model, and careful reasoning rather than apparatus. The trap is reaching for the largest questions, the origin of the universe, the theory of everything, when a focused, tractable question demonstrates far more.
Use the questions below as starting points to sharpen. A strong physics project usually centres on a model: building one, exploring what it predicts, and comparing that to observation or to a more complete theory. Our guide to writing a research question helps with the narrowing.
Choose a Method Before a Topic
The choice that decides whether a project is feasible is the method, not the topic. Every question below is tagged with one of these four routes.
Home experiment
Physics is the subject where you can still measure something real with equipment you own. A pendulum, a phone accelerometer, a lens, a thermometer. The bar is not apparatus, it is error analysis: state your uncertainties and your project outranks most.
Household equipment, a phone, and honest error bars.
Computational model
Simulate a system that is hard to observe. Orbital mechanics, heat diffusion and wave interference are all tractable in Python with no libraries beyond the basics. Shows physics and programming at once.
Python and a system you can write the equations for.
Open data
Professional physics data is public: NASA exoplanet archives, LIGO strain data and CERN open data are all downloadable. You will not run the detector, you will analyse what it produced.
A dataset and the patience to understand its format.
Literature review
For questions where you cannot measure or simulate, particularly in quantum foundations, read the primary literature and lay out how the positions actually differ. Conceptual clarity is a real contribution.
Primary papers, not just textbooks.
Ideas by Sub-Field
Mechanics & astrophysics
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What can a simple model predict about an orbital or projectile system, and how well does it match observation?
Computational model Intermediate
Output: A simulation with predictions compared against measured or published values
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How do astronomers infer the existence of dark matter, and how strong is the evidence?
Literature review Intermediate
Output: A review of the evidence lines, with the strength of each assessed
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What does the physics of a chosen everyday system, such as a bicycle or a bridge, actually involve?
Home experiment Accessible
Output: A quantitative analysis with your own measurements and error bars
Quantum & particle physics
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What does quantum entanglement really claim, and what experiments support it?
Literature review Advanced
Output: An account of Bell tests and what they do and do not rule out
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How does the Standard Model organise the fundamental particles, and what does it leave unexplained?
Literature review Advanced
Output: A structured account of the model and its acknowledged gaps
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What conceptual problems does quantum measurement raise, and how do the main interpretations differ?
Literature review Advanced
Output: A comparison of interpretations on what each actually commits you to
Thermodynamics & energy
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What does the second law of thermodynamics imply for the efficiency limits of an engine or process?
Home experiment Intermediate
Output: A calculation of theoretical limits set against a real measured process
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How do the physics of different energy-storage methods compare?
Open data Intermediate
Output: A comparison on energy density and efficiency using published figures
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What does the physics of heat transfer reveal about how buildings could be made more efficient?
Home experiment Accessible
Output: Thermal measurements from a real space with recommendations that follow
Applied & computational physics
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What can a simulation reveal about a physical system that is hard to study directly?
Computational model Advanced
Output: A working simulation, validated against a known analytic case
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How well does a simple physical model explain a pattern in open scientific data?
Open data Intermediate
Output: A model fitted to real data, with the residuals discussed honestly
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What physics governs a chosen modern technology, and where are its fundamental limits?
Literature review Intermediate
Output: An analysis identifying the fundamental rather than engineering limits
The Power of a Simple Model
Some of the most impressive physics projects take a deliberately simple model and push it as far as it will go: what it captures, where it breaks, and what its failure reveals. This is how physics actually advances, and a student who works this way demonstrates real physical intuition rather than memorised results.
A mentor helps a student choose a model at the right level, do the mathematics honestly, and interpret the result, including knowing when a discrepancy between model and reality is the interesting part, not an error to hide.
Taking a Question Further
Physics underpins engineering, mathematics, and much of computing. For the wider context, see our Technology, AI & Engineering field page, our companion guides to mathematics and engineering, and our broader research project ideas across all six fields. When you are ready to turn a question into a finished project with a mentor who works in the field, the Research Scholar programme is built for exactly that.
Frequently Asked Questions
Can I do a physics research project without specialist equipment?
Yes. A great deal of strong pre-university physics is theoretical or computational: deriving and exploring a model, simulating a system, or analysing open data from observatories and experiments. Many superb projects need only mathematics and a laptop.
Do I need very advanced mathematics?
It depends on the question. Some projects lean heavily on mathematics; others are more conceptual. A mentor helps a student choose a question whose mathematics is within reach, and builds the specific tools it needs along the way.
What is the difference between a physics project and a maths project?
Physics projects use mathematics to explain something about the physical world; maths projects investigate mathematical structures for their own sake. Many projects sit on the border, which is often where the most interesting questions live.
How do I keep a physics question focused?
Tie it to a specific phenomenon or model. "How does the universe work" is not a project; "what does a simple model predict about the orbit of a body under a given force, and how does that compare to observation" is something you can actually pursue.
Free PDF
Take the 50 strongest ideas with you
A free PDF with fifty of these questions tagged by method and difficulty, the output each should produce, and the feasibility checklist we apply before recommending any project. We email it to you, along with occasional guidance worth having. No obligation, and your details are not passed to anyone.
Now placing students for the October start. Places in each field are limited by mentor availability. We review applications on a rolling basis.
ScholarBridge matches students with doctoral-level or equivalent research mentors across six academic fields. Every project is student-led and completed to a standard the student can stand behind in any university interview.
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