Eastern Michigan University

What you'll study

The Engineering Physics degree combines foundational courses in physics and mathematics with applied engineering topics and laboratory practice. In the early years you take core calculus and physics sequences (mechanics, electromagnetism) alongside introductory engineering and computing courses. Progressing through the programme, typical modules include:

• Advanced classical mechanics and electrodynamics — vector methods, boundary-value problems and field theory.
• Modern physics and quantum mechanics — principles of quantum theory, atomic structure and applications.
• Thermodynamics and statistical mechanics — energy, entropy, and ensemble ideas relevant to materials and devices.
• Electronic circuits and instrumentation — analogue and digital circuits, sensors and measurement techniques.
• Materials science for engineers — structure and properties of metals, semiconductors and composites with emphasis on device applications.
• Computational methods and numerical modelling — programming for physics and engineering problems, simulation and data analysis.
• Optics and photonics — wave optics, lasers and optical systems where offered as an elective.
• Senior design or capstone project — a team-based applied project integrating physics, modelling and engineering design, often with experimental validation.

Throughout the programme you will undertake laboratory courses that emphasise measurement, data analysis and experimental design, and you will have options for electives, independent study or supervised undergraduate research. General education requirements ensure breadth across humanities and communication skills.

Entry requirements

Applicants should hold a secondary school diploma or equivalent with strong preparation in mathematics and science. Typical preparation includes:

• A high level of achievement in mathematics (calculus or pre-calculus) and physics courses where available.
• Good grades in related science subjects such as chemistry are recommended.
• Demonstrated quantitative problem-solving ability; some programmes consider standardised test scores if provided but many use a holistic review.
• Supporting materials such as a personal statement outlining interest in engineering physics and at least one academic reference strengthen an application.

Students transferring from community colleges or other universities should have completed calculus and introductory physics sequences; course-by-course evaluation determines transfer credit. Prospective students uncertain about preparedness are encouraged to contact departmental advisors about bridge courses or first-year planning.

Career prospects

Graduates of Engineering Physics are equipped for roles that require both deep physical understanding and practical engineering skills. Typical career pathways include:

• Research and development positions in industries such as aerospace, automotive technology, electronics and photonics.
• Design and test engineering roles involving instrumentation, sensors and measurement systems.
• Technical positions in semiconductor, materials, renewable energy and medical device firms.
• Data science, computational modelling and software development where strong quantitative skills are required.
• Continued study at graduate level in applied physics, mechanical or electrical engineering, materials science or related disciplines; some graduates also pursue professional degrees (e.g. engineering, medical physics).
• Teaching and outreach in STEM subjects, particularly after obtaining appropriate certification or further qualifications.

Internships, undergraduate research and the senior capstone project help students build practical experience and employer connections prior to graduation.

Why study at Eastern Michigan University

Eastern Michigan University provides a supportive environment for undergraduates pursuing interdisciplinary STEM programmes. Small to medium-sized classes enable close interaction with faculty, and the campus offers modern laboratories and computing resources for experimental and computational work. The department encourages undergraduate research and collaborative projects, giving students opportunities to work alongside faculty on applied problems.

Located in the region around Detroit, students benefit from proximity to a diverse industrial base—particularly in transportation, manufacturing and technology—supporting internship and cooperative education possibilities. The university's advising and career services help students plan academic pathways, secure internships and prepare for graduate study or professional employment.