Kansas Wesleyan University

What you'll study

The Engineering Physics curriculum blends classical and modern physics with applied mathematics and engineering topics, delivering both theoretical understanding and hands-on laboratory experience. Core areas include mechanics, electromagnetism, thermodynamics, quantum mechanics and optics, supported by extensive coursework in calculus, differential equations and statistics.

• Foundations: Classical mechanics, electricity and magnetism, laboratory methods and mathematical methods for physicists.
• Advanced physics: Modern physics and quantum mechanics, statistical mechanics, and advanced laboratory or instrumentation courses.
• Engineering & applied topics: Electronics and circuits, materials science, computational methods, numerical modelling and systems engineering.
• Mathematics & computing: Multivariable calculus, linear algebra, differential equations and programming for scientific applications.
• Capstone & research: A senior capstone project or independent research project that integrates physics theory with an applied engineering challenge, often involving experimental design, data analysis and prototype development.
• General education: Liberal-arts courses in communication, ethics and the humanities to develop communication skills and contextual understanding of technology in society.

Entry requirements

Admission to the programme typically requires a high-school diploma or equivalent with a strong record in mathematics and science. Recommended preparation includes courses in algebra, geometry, trigonometry or pre-calculus, calculus (where available), and physics.

• Academic background: Solid grades in mathematics and physics. Coursework in chemistry and computer science is advantageous.
• Standardised tests: Kansas Wesleyan’s admissions practice regarding standardised tests may be flexible—check the current admissions guidance for whether ACT/SAT scores are required or optional.
• Application materials: Official transcripts, a personal statement or essay describing interest in the interdisciplinary field, and contact details for a teacher or counsellor recommendation.
• Additional considerations: Evidence of laboratory experience, programming, participation in STEM clubs or competitions, and an interview or portfolio for transfer or mature students can strengthen an application.

Career prospects

Graduates of Engineering Physics are well-positioned for a range of careers that require both deep physical insight and practical engineering skills. Typical career paths include roles in research and development, instrumentation and controls, product design, test engineering and technical consulting. The programme’s analytical and computational training also translates to careers in data science, software development and quantitative analysis.

• Laboratory scientist or research technician in industrial or academic settings
• Test or design engineer in sectors such as manufacturing, electronics, energy or aerospace
• Instrumentation and controls specialist, working on sensors, measurement systems or embedded electronics
• Software engineer or computational modeller focusing on simulation and data analysis
• Graduate study in physics, engineering, materials science or applied mathematics; professional pathways such as engineering licensure or technical management
• Teaching or outreach roles at secondary or community-college levels (with appropriate certification)

Why study at Kansas Wesleyan University

Kansas Wesleyan offers a personalised, student-centred learning environment with small class sizes and close faculty mentoring, which benefits students in a technically demanding field. The university emphasises undergraduate research and hands-on projects, so Engineering Physics students get opportunities to conduct experiments, build prototypes and present work at regional conferences.

• Faculty mentoring: Close guidance from faculty with experience in teaching, research and applied physics.
• Hands-on learning: Access to laboratory and electronics facilities, project-based courses and a capstone sequence that emphasises real-world problem solving.
• Interdisciplinary approach: A curriculum that bridges liberal-arts education with technical training, developing communication and critical-thinking skills alongside technical competence.
• Career support: Internship coordination and career services that help connect students with regional employers, research placements and graduate-school preparation.