Tarleton State University

What you'll study

The Engineering Physics curriculum builds a solid core in classical and modern physics, advanced mathematics and foundational engineering topics. Courses typically include calculus sequence, differential equations and linear algebra, followed by core physics subjects such as classical mechanics, electromagnetism, quantum mechanics and statistical/thermal physics. Engineering and applied modules commonly cover circuits and electronics, materials science, signals and systems, control principles and instrumentation.

Practical, laboratory‑based learning is an integral component: students take multiple physics and engineering labs that develop experimental technique, data analysis and scientific communication. Computational methods and programming for scientists and engineers are emphasised, with coursework often including numerical modelling, simulation and use of engineering software. The programme culminates in a senior capstone or research project where students apply theory to an applied design, research investigation or industry problem.

• Foundation mathematics and physics
• Electronics and circuits
• Materials and solid‑state physics
• Computational physics and numerical methods
• Laboratory courses and instrumentation
• Technical electives and a senior capstone/research project

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics and science. Successful candidates typically have studied calculus‑level mathematics and high school physics; courses in chemistry are also beneficial. Admissions decisions consider overall academic record and the rigor of prior coursework.

Tarleton may request supporting materials such as transcripts and, where applicable, documentation of English proficiency for international students. Transfer applicants will need to supply college transcripts; previous completion of calculus and introductory physics at the college level will ease progression into upper‑division Engineering Physics courses. Specific GPA thresholds and testing expectations are set by the university and can vary, so prospective students should consult Tarleton’s admissions office for current guidance.

Career prospects

Graduates with a degree in Engineering Physics are prepared for roles that require strong analytical, experimental and computational skills. Typical career paths include:

• Research and development positions in aerospace, energy, semiconductor and materials industries
• Instrumentation, sensors and electronics engineering roles
• Systems engineering, controls and automation
• Data science and technical modelling roles that leverage physics‑based simulation
• Further study at graduate or professional school (master’s or PhD in physics or engineering, or professional degrees)
• Careers in technical consulting, patent law (with additional qualifications), and education

Because the programme emphasises both theory and hands‑on skills, graduates are competitive for positions in industry as well as for advanced academic study.

Why study at Tarleton State University

Tarleton State offers an Engineering Physics pathway with a focus on undergraduate teaching, accessible faculty mentoring and opportunities for hands‑on research and internships. As a member of a larger state university system, Tarleton provides connections to regional industry and research networks, while maintaining smaller class sizes that support direct interaction with instructors.

Students benefit from laboratory facilities, computing resources and student organisations related to physics and engineering that provide professional development and networking. The programme’s applied orientation and local industry links make it well suited to students who want a strong theoretical grounding with clear routes into technical careers or graduate study.