Arkansas Tech University

What you'll study

The Engineering Physics degree combines core physics fundamentals with engineering principles to prepare students for applied research and technical problem-solving. The curriculum typically includes a progression of mathematics (calculus, differential equations, linear algebra), classical mechanics, electromagnetism, thermodynamics and statistical mechanics, and modern physics topics such as quantum mechanics and solid-state physics.

On the engineering side, students encounter foundational electrical and mechanical topics: circuit analysis, electronics, materials science, measurements and instrumentation, control systems and applied computational methods. Laboratory coursework is an essential component, with hands-on experiments in electronics, optics, materials characterization and advanced physics labs that develop measurement technique, data analysis and experimental design skills.

The degree normally spans four years and combines general education, core major requirements, laboratory classes, technical electives and a senior capstone experience. Typical modules and subjects you can expect include:

• Calculus I–III and Differential Equations
• Introductory and Advanced Physics (Mechanics, Electromagnetism, Modern Physics)
• Experimental Physics Labs and Instrumentation
• Materials Science and Solid State Physics
• Circuits and Electronics
• Computational Physics and Numerical Methods
• Control Systems and Signal Processing
• Senior Design/Capstone Project or Undergraduate Research
• Technical electives in areas such as optics, nanotechnology, renewable energy or applied robotics

Entry requirements

Applicants should hold a high-school diploma or equivalent with a strong foundation in mathematics and science. Successful candidates usually have completed courses in algebra, precalculus or calculus, and introductory physics with laboratory experience. Competence in problem-solving and mathematical reasoning is important.

Arkansas Tech considers academic preparation, transcripts and supporting materials; standardised test scores may be requested or considered according to university policy. Transfer students should provide college transcripts and any technical coursework; prior calculus and physics credit will typically be required for direct entry into upper-level major courses. Prospective students are encouraged to contact the admissions office or the department for specific advising on prerequisites and placement.

Career prospects

Graduates with a degree in Engineering Physics have a versatile skill set valued by employers in technology and industry. Typical career paths include roles in research and development, instrumentation and measurement, applied materials and semiconductor industries, energy and power systems, and systems engineering. Graduates often work as electronics engineers, test engineers, applications engineers, or in technical roles that bridge scientific research and engineering implementation.

The programme also prepares students for continued study: many alumni pursue graduate degrees in physics, engineering disciplines (electrical, mechanical, materials) or interdisciplinary fields such as applied physics and engineering management. Other common outcomes include positions in technical consulting, product development, scientific sales, and roles in national laboratories or government research organisations.

Why study at Arkansas Tech University

Arkansas Tech offers a learning environment that emphasises hands-on experience and close interaction with faculty. Small to medium class sizes allow for personalised mentoring and accessible laboratory supervision, which benefits students developing experimental and design skills. The university supports undergraduate research opportunities and encourages participation in capstone projects that partner with local industry and regional employers.

Students benefit from campus academic support services, career advising and connections to internships through university-industry relationships in the region. The programme’s balance of physics fundamentals and practical engineering practice makes it suitable for students who want a broad technical foundation with the flexibility to enter industry or continue to graduate study.