Florida International University

What you'll study

The master's programme combines core engineering fundamentals with specialised biomedical topics. Students typically choose between course-only, project or thesis tracks and follow a curriculum that balances theory, laboratory practice and design.

• Core topics: biomechanics, biomaterials, biomedical signal and image processing, physiological systems modelling and biomedical instrumentation.
• Advanced and elective modules: tissue engineering, medical imaging modalities, biosensors and microfluidics, biomolecular engineering, neural engineering and computational methods for bioengineering.
• Laboratory and practical work: hands-on laboratory courses, design projects and use of wet-lab or instrumentation facilities to develop prototyping, measurement and data-analysis skills.
• Research and capstone options: a research thesis supervised by faculty for students pursuing deeper research experience, or a team-based capstone project/industrial practicum for those focusing on applied development and industry readiness.
• Interdisciplinary opportunities: electives and collaborations with departments such as computer science, electrical engineering, chemistry, and the health sciences to support work in areas like medical imaging, machine learning for healthcare and regulatory aspects of medical devices.

Typical structure

Students usually complete a set of required courses, a selection of electives, and a culminating element (thesis, project or comprehensive exam). The programme can be completed full time in around two years, with part-time study options available for working professionals.

Entry requirements

Applicants should hold a recognised bachelor’s degree in biomedical engineering, another engineering discipline, the physical sciences, mathematics or a closely related field. Successful candidates typically demonstrate solid foundations in calculus, linear algebra, differential equations, and basic engineering or physical science coursework.

• Academic transcripts: official transcripts showing an undergraduate degree from an accredited institution.
• GPA/academic standing: competitive academic performance in prior study; specific GPA requirements vary and are assessed at application.
• Supporting documents: statement of purpose outlining academic and professional goals, a current CV or résumé, and letters of recommendation (usually two or three) from academic or professional referees.
• Research or professional experience: relevant laboratory, design or industry experience strengthens an application—particularly for research or project tracks.
• English language proficiency: for applicants whose first language is not English, evidence of proficiency is required in line with university policy.
• Additional assessments: some applicants may be asked to provide GRE scores or to meet with faculty for evaluation; requirements can vary by admission cycle and applicant background.

Career prospects

Graduates move into a variety of technical and professional roles across the biomedical and healthcare industries, as well as academia and research institutions.

• Design and development roles in medical device and diagnostics companies (product development, R&D, testing and validation).
• Positions in biomedical imaging, signal processing, and data analysis within hospitals, imaging centres and research labs.
• Opportunities in regulatory affairs, quality assurance and clinical engineering supporting device approval and post-market surveillance.
• Roles in biotechnology and pharmaceutical companies involving biomaterials, tissue engineering and bioinstrumentation.
• Careers in consulting, systems integration, and health-technology startups that combine engineering and clinical workflows.
• Progression to doctoral study and research careers for those pursuing academic or high-level research roles.

Why study at Florida International University

Florida International University offers the programme within its engineering college, providing access to faculty with expertise across biomedical engineering subfields and active research programmes. The university’s location in Miami supports industry engagement and partnerships with regional hospitals, medical centres and a growing health-technology ecosystem.

• Research and facilities: students benefit from laboratory resources and opportunities to work on translational projects that bridge engineering and clinical needs.
• Interdisciplinary collaboration: FIU’s connections across engineering, computer science and health-related schools make it straightforward to pursue interdisciplinary electives and joint research.
• Industry links and internships: proximity to medical-device companies, biotech firms and healthcare providers enables internships, capstone projects and networking that help launch careers.
• Support for professional development: career services, student chapters of professional societies and events connect students with employers and research mentors.