Florida Polytechnic University

What you'll study

The programme combines advanced physics with core engineering and mathematics to give students a solid theoretical foundation alongside practical, hands-on experience. Early study focuses on calculus, linear algebra, classical mechanics, electromagnetism and introductory circuits. Progression courses introduce quantum mechanics, statistical mechanics, thermodynamics, solid-state physics and materials science.

• Mathematics and computation: multivariable calculus, differential equations, numerical methods and scientific computing for modelling physical systems.
• Physics fundamentals: classical mechanics, electromagnetism, quantum mechanics, statistical physics and modern physics topics.
• Engineering and applied topics: electronic circuits, signals and systems, control theory, materials engineering, micro/nano fabrication principles and optics/photonic systems.
• Laboratory and project work: experimental physics labs, instrumentation, measurement techniques and team-based engineering design projects culminating in a senior capstone or research project.
• Electives and specialisation: options typically allow focus in areas such as semiconductor devices, photonics and optics, computational physics, renewable energy systems or aerospace applications.

Throughout the degree students engage with laboratory coursework, simulation and design-build-test cycles. The curriculum emphasises problem solving, data analysis, experimental methods and the ability to translate theoretical models into engineered systems.

Entry requirements

Successful applicants typically demonstrate strong performance in secondary-school mathematics and physics. Admissions look for a rigorous STEM background — for example higher-level courses in calculus, physics and chemistry where available — and readiness for a quantitatively focussed university curriculum.

• Academic preparation: competitive grades in mathematics and physics courses from secondary education or equivalent; preparatory coursework in calculus is especially important.
• Standardised tests and transcripts: applicants supply official academic transcripts; standardised test requirements vary and applicants should consult the university for current policies.
• International students: equivalent secondary qualifications and proof of English language proficiency (such as recognised English tests) if required by the university.
• Other elements: personal statement, letters of recommendation and evidence of hands-on or extracurricular STEM experience can strengthen an application.

Career prospects

Graduates with a degree in Engineering Physics are equipped for roles that bridge pure science and engineering practice. Career paths include positions in:

• semiconductor and microelectronics design and fabrication
• photonics, optical systems and laser engineering
• materials development and characterization
• aerospace and defence systems engineering
• instrumentation, sensors and measurement technology
• data analysis, modelling and computational engineering roles

Many graduates also pursue graduate study in applied physics, materials science, electrical engineering or related disciplines, or enter research and development roles in industry and national laboratories. Internship and co‑op experiences help bridge academic learning and employer expectations.

Why study at Florida Polytechnic University

Florida Poly is a STEM-focused institution with a curriculum designed around experiential, project-based learning and strong emphasis on technology and engineering. The university offers small class sizes and frequent access to faculty, enabling close mentorship and collaborative projects.

• Applied learning: extensive laboratory facilities, maker spaces and hands-on courses that let students build and test systems relevant to engineering physics.
• Industry engagement: partnerships with local and national technology companies provide internship opportunities and applied research collaborations.
• Capstone and research: senior design projects and opportunities to work on faculty-led research let students demonstrate real-world problem solving.
• Career support: dedicated career services and employer recruitment on campus help students transition into jobs or graduate programmes.

The programme is well suited to motivated students seeking a rigorous, application-oriented physics education that prepares them for technical engineering roles or further study in science and engineering fields.