University of Massachusetts Boston

What you'll study

The Engineering Physics degree blends core physics and mathematics with engineering-oriented courses and hands-on laboratory work. You will build a strong foundation in classical mechanics, electrodynamics, thermodynamics, quantum mechanics and statistical physics, alongside multi-term calculus, differential equations and linear algebra.

• Core physics modules: classical mechanics, electricity and magnetism, modern physics/quantum mechanics, statistical and thermal physics.
• Mathematics and computation: calculus sequence, differential equations, linear algebra, numerical methods and scientific computing using languages and tools common to engineering and physics.
• Engineering and applied topics: electronics and instrumentation, materials science, fluid mechanics, control systems or solid-state devices depending on elective choices.
• Laboratory and design work: multi-term physics labs, electronics labs, instrumentation projects and a capstone or senior design project that requires experimental, computational or design deliverables.
• Electives and interdisciplinary options: opportunities to take electives in computer science, electrical engineering, renewable energy, optics or applied mathematics to tailor the degree toward specific interests.
• Research and experiential learning: options to participate in faculty-led research, independent study, internships or cooperative placements with local industry and research institutions in the Boston area.

The programme emphasises problem solving, mathematical modelling, experimental technique and computational practice. Typical progression moves from foundational courses in the first two years to specialised electives and a culminating senior project in the final year.

Entry requirements

Admission typically requires a strong academic record in high school, with particular emphasis on mathematics and physics. Recommended preparation includes:

• High school mathematics through calculus (or equivalent) and high school physics; chemistry is recommended but not always mandatory.
• A competitive overall GPA in secondary school; specific thresholds vary by applicant pool and are assessed at admission.
• For international applicants, proof of English language proficiency is required if your prior instruction was not in English; accepted tests and minimum scores vary by university policy.
• Standardised test requirements (such as SAT/ACT) follow the university’s current admissions policy; check the admissions office for whether tests are optional or required.

Applicants transferring from community college should have completed calculus and introductory physics sequences; transfer credit evaluations are performed by the registrar and department. Strong applicants demonstrate quantitative ability, laboratory experience where available, and motivation for the interdisciplinary nature of the programme.

Career prospects

Graduates of Engineering Physics are well positioned for a range of careers that require quantitative and problem-solving skills. Common pathways include:

• Research and development roles in industries such as instrumentation, electronics, materials, photonics, energy and aerospace.
• Technical engineering roles where deep physics knowledge is an asset—experimentalist positions, systems engineering, test and measurement, and device development.
• Computational and data-driven roles—software development, modeling and simulation, quantitative analysis in finance or tech.
• Further study—many students progress to graduate programmes in physics, applied physics, electrical or mechanical engineering, materials science or related fields.
• Education and outreach—secondary and post-secondary teaching, museum or laboratory education roles, and science communication.

Because the degree emphasises both theoretical understanding and practical skills, graduates are adaptable and sought by employers across academia, industry and the public sector. Internship and research experience acquired during the programme substantially improve employment and graduate-study prospects.

Why study at University of Massachusetts Boston

UMass Boston offers an urban research university experience with access to Boston’s extensive technology, biotech and research ecosystem. The Department of Physics provides small-class instruction, opportunities for close faculty mentoring and access to experimental and computational laboratory facilities appropriate for undergraduate training.

• Research opportunities: students can join faculty research projects in areas such as materials, optics, environmental physics and applied instrumentation.
• Experiential learning: the university’s location supports internships and collaborations with nearby companies, research labs and government agencies.
• Supportive environment: services for advising, career development and undergraduate research help students plan pathways to jobs or graduate study.
• Interdisciplinary connections: easy access to complementary departments and programmes—computer science, engineering-focused courses, mathematics and environmental sciences—so you can tailor your degree to specific career goals.

The combination of rigorous coursework, applied laboratory training and opportunities for internships and research makes UMass Boston a practical choice for students seeking a versatile Engineering Physics degree grounded in both theory and real-world application.