Biomedical engineering programs equip students with the skills and knowledge to develop innovative solutions for healthcare challenges, integrating principles of engineering and biology. Graduates can pursue various roles in the biomedical industry, including biomedical engineer, medical device designer, or research scientist. According to the U.S. Bureau of Labor Statistics, a biomedical engineer makes a median salary of $99,550 a year, with the top ten percent earning more than $159,130.
Typically, completing a master’s in biomedical engineering takes about 1.5 to two years of full-time study, covering advanced coursework and potentially with a thesis or research project. The average cost of these programs can vary widely depending on factors like program reputation, location, and format, but it generally ranges between $12,000 and $30,000.
How to Choose a Master’s in Biomedical Engineering Program
Choose your area of study
Choosing your area of study in biomedical engineering involves identifying your interests, career goals, and strengths. Research different specializations within the field, such as medical imaging, tissue engineering, or biomechanics, to determine which best aligns with your passions and objectives. Consider your undergraduate coursework, relevant experiences, and long-term aspirations when selecting a focus area. You may also want to explore the demand and growth potential for various specializations in the biomedical engineering field to ensure alignment with your career objectives.
Research schools and programs
Researching schools and programs helps you find the best fit for your academic and career aspirations. Look for accredited institutions with strong biomedical engineering departments, faculty expertise, research opportunities, and industry partnerships. Explore program curriculum, class sizes, facilities, and alumni outcomes to make an informed decision. Avoid programs from schools that are not accredited by a national or regional accrediting organization.
Prepare for tests and applications
Begin by familiarizing yourself with the admission requirements of each program you’re interested in, including prerequisites, standardized test scores (such as the GRE), and application deadlines. Allocate sufficient time to study for required exams, utilizing resources like review books, practice tests, and online study materials. Gather strong letters of recommendation and prepare a compelling personal statement highlighting your academic achievements, research experience, and career aspirations. Lastly, ensure that all application materials are submitted accurately and on time to maximize your chances of admission to your desired program.
Select your program
Start by researching various programs to identify those that align with your academic interests, career goals, and preferred learning environment (online or on-campus). Consider factors such as faculty expertise, research opportunities, internship placements, and alumni outcomes. Evaluate the program’s curriculum, course offerings, and specializations to ensure they match your academic and professional aspirations. You may also want to assess factors like program accreditation, reputation, and location to make an informed decision that best suits your needs and preferences in biomedical engineering education.
Determine how you’ll pay for your degree
Understanding the cost of tuition, fees, and living expenses is crucial for planning your finances. Explore scholarship, fellowship, and assistantship opportunities offered by schools, as well as federal financial aid options like loans and grants. Fill out the Free Application for Federal Student Aid, which many schools use to determine financial aid packages. Consider your budget, potential income during school, and long-term financial goals when determining how to finance your biomedical engineering degree.
Best 50 Accredited Master’s in Biomedical Engineering Degree Programs
Discover More Options
How we rank schools
Our research covers master’s programs in biomedical engineering. The programs on this list teach the engineering principles needed to create new medical equipment and develop medical software. Students can choose from in-person, online, and hybrid learning formats. Degree types offered include Master of Science in biomedical engineering, Master of Engineering in biomedical engineering, and Master of Applied Science in pharmaceutical engineering.
All of the schools featured on this list are regionally accredited institutions, which makes it easier to access financial aid and transfer credits to other schools. Many of these options also have programmatic accreditation from the Accreditation Board of Engineering and Technology (ABET). Graduates from ABET-accredited programs have a leg up in securing jobs in science, technology, engineering, and math (STEM).We evaluated each program on the basis of flexibility, faculty, course strength, cost, and reputation. Then, we calculated the Intelligent Score for each program on a scale from 0 to 100. For a more extensive explanation, check out Our Ranking Methodology.
What Can You Expect From a Master’s in Biomedical Engineering Degree Program?
A master’s degree program in biomedical engineering equips students with advanced skills essential for careers in the interdisciplinary field of biomedical engineering. Prospective students can expect to delve into a diverse range of subjects, such as biomaterials, biomechanics, medical imaging, tissue engineering, and biomedical instrumentation. The curriculum often includes coursework, laboratory experiments, and research projects aimed at solving real-world healthcare challenges.
Typically, completing a master’s in biomedical engineering takes 1.5 to two years for full-time students, although this may vary based on factors like program structure and individual pacing. Some programs may offer thesis or non-thesis options, allowing students to choose between conducting independent research or completing additional coursework and projects.Students may have opportunities to engage in internships, co-op experiences, or clinical rotations to gain practical experience and industry exposure. Many programs also emphasize collaboration with healthcare professionals and industry partners to foster innovation and address contemporary healthcare needs. Some programs may have specific prerequisites or recommend prior coursework in mathematics, biology, chemistry, or engineering, depending on the program’s focus areas and admission requirements.
Potential courses you’ll take in a master’s in biomedical engineering degree program
- Biomaterials. This course covers the properties, fabrication methods, and applications of materials used in medical devices and implants. Students learn about biocompatibility, tissue-material interactions, and the design principles behind biomaterial selection for specific biomedical applications.
- Biomechanics. Students explore topics such as stress and strain analysis in tissues, mechanical properties of bones and soft tissues, and the biomechanics of human movement. They may also learn how to use computational tools to model and analyze biomechanical systems.
- Medical Imaging. Students study various medical imaging modalities such as X-ray, MRI, CT, and ultrasound. They learn about the principles of image formation, image processing techniques, and diagnostic applications of medical imaging technologies in healthcare.
- Biomedical Signal Processing. This course covers the acquisition, processing, and analysis of physiological signals such as ECG, EEG, and EMG. Students learn signal processing techniques, including filtering, feature extraction, and pattern recognition, to extract clinically relevant information from biomedical signals.
- Regulatory Affairs in Biomedical Engineering. In this course, students focus on the regulatory requirements and processes involved in the development, testing, and commercialization of medical devices and therapies. Students learn about regulatory standards, quality management systems, and ethical and legal considerations in the biomedical industry.
Master’s in Biomedical Engineering Degree Frequently Asked Questions
How do I apply to a master's in biomedical engineering degree program?
Start by reviewing the program’s admission requirements, which typically include submitting an online application, academic transcripts, letters of recommendation, and a statement of purpose outlining your academic and career goals. Many programs also require standardized test scores, although some may waive this requirement. It’s essential to communicate with the admissions office of your chosen institution to clarify any questions about prerequisites or application materials. Consider reaching out to current students or alumni for insights into the program’s culture and strengths. Ensure your application reflects your passion for biomedical engineering and aligns with the program’s objectives.
How much does a master's in biomedical engineering degree cost?
The cost of a master’s in biomedical engineering varies widely depending on factors such as the institution, program format (online or in-person), and residency status. According to the National Center for Education Statistics, tuition ranges from $12,000 to $30,000 per year. Students should consider expenses beyond tuition, such as textbooks, laboratory fees, and living expenses. Financial aid, scholarships, and assistantships may help offset costs. It’s crucial to research specific programs and consult with financial aid offices to understand the full financial commitment.
How long does it take to earn a master's in biomedical engineering degree?
A master’s in biomedical engineering typically takes 1.5 to two years of full-time study and consists of 30 to 45 credits. However, program length can vary based on factors like part-time versus full-time enrollment and whether the program is completed online or on-campus. Part-time students may take longer to finish, often two to four years. Online programs may offer more flexibility but can extend completion time due to self-paced learning and asynchronous coursework. Additionally, the number of required credits can influence program duration, with some requiring additional courses or a thesis.