Northeastern University

Overview

The Biomedical Physics program at Northeastern University offers an interdisciplinary approach that merges core physics with biological systems and medical technology. This bachelor's degree equips students with essential quantitative and laboratory skills, enabling them to understand and apply physical principles in the realms of diagnosis, imaging, and therapeutic devices.

What you'll study

Core learning areas

• Foundations of physics, including Modern Physics, Electricity & Magnetism, and Thermodynamics & Statistical Mechanics
• Biological systems and their interaction with physics, through courses like General Biology and Biological Physics
• Applications of medical physics in healthcare, featuring Medical Physics and Medical Physics Seminars
• Hands-on training in practical and quantitative methods, such as Advanced Physics Laboratory and Experimental Physics
• Mathematical and computational techniques relevant to physics

Typical progression

• Year 1: Establish a solid foundation in physics and biology while developing essential laboratory and problem-solving skills.
• Year 2: Delve into intermediate physics topics and enhance quantitative methods, integrating biology-focused studies.
• Year 3: Concentrate on biological and medical physics, participating in seminar-style learning and advanced experimental work.
• Year 4: Synthesize knowledge through advanced laboratory components and comprehensive assessments, if applicable by the curriculum plan.

Note: Module titles, credit requirements, and availability may vary by campus and academic year. Students should consult the university for the latest curriculum details.

Entry requirements

Admission to the Biomedical Physics program does not specify GRE or GMAT requirements. Instead, it relies on an evaluation of the applicant's academic background and application materials.

Career prospects

Graduates of the Biomedical Physics program can pursue a variety of career paths in healthcare, research, and technology. Potential opportunities include roles in medical imaging, diagnostics, and the development of therapeutic devices. The interdisciplinary nature of this degree also positions graduates well for advanced studies in medical physics, biomedical engineering, or related fields.