The United States offers 34 Biomedical Engineering programmes across 23 universities, making it one of the most established destinations for students combining engineering and life sciences. Leading institutions such as Northwestern University, the University of Michigan, Iowa State University, and the University of Maryland, College Park each bring distinct strengths, from translational research labs to strong industry ties with the medical-device sector.
Tuition for these programmes ranges from roughly €26,000 to €52,000 per year, reflecting the diversity of programme types from research-intensive doctoral tracks to professional master's degrees. International applicants typically require a background in biology, physics, or engineering alongside strong quantitative skills.
The Bachelor of Science in Biomedical Engineering program at Stevenson University is designed to equip students with the knowledge and skills to address critical human health challenges. This program integrates engineering principles with a focus on scientific problem-solving, preparing graduates to innovate and contribute to advancements in healthcare.
The Bioengineering graduate program at Caltech focuses on applying engineering principles to biological systems and drawing inspiration from nature for new engineering solutions. Research areas include biodevices, bioimaging, biomechanics, synthetic biology, and systems biology. The doctoral program aims to train students to become leaders in academia and industry by providing a strong foundation in bioengineering and in-depth knowledge of their chosen research area. Graduates are expected to have conducted independent research and successfully defended their thesis.
New Jersey City University's Biology program offers a comprehensive study of living organisms, preparing students for diverse career paths or further academic pursuits. Students can choose from Bachelor of Arts (B.A.) or Bachelor of Science (B.S.) degrees, each with various specializations. The B.A. in Biology is ideal for those interested in teaching high school biology or seeking a flexible foundation for various careers, with an option for online learning (though in-person labs are required for scientific coursework). The B.S. in Biology is suited for students aiming for careers in biotechnology, biomedical research, medicine, or health-related clinical fields, and is the recommended path for those planning graduate or professional studies.
The PhD program in Biomedical Engineering at Northwestern University is designed to train highly capable researchers and innovators in the field. The program focuses on interdisciplinary scholarship and preparing students for cutting-edge research and development. Admissions are offered exclusively for the fall term. The department emphasizes a rigorous academic environment combined with opportunities for students to explore research beyond traditional disciplinary boundaries.
Dartmouth College offers a Bachelor of Engineering (B.E.) degree with a major in Biomedical Engineering. This program integrates engineering principles with biological and medical sciences to address challenges in health and medicine. Students develop a strong foundation in engineering while gaining specialized knowledge in areas such as biomechanics, biomaterials, medical imaging, and tissue engineering. The Biomedical Engineering program at Dartmouth is designed to prepare students for diverse career paths in the healthcare industry, medical device development, pharmaceutical research, and further graduate studies in medicine or biomedical engineering. The curriculum emphasizes hands-on learning, research, and design projects, allowing students to apply theoretical knowledge to real-world problems.
This program showcases a student design project focused on developing a novel device for delivering stem cells to target dermal regions. Recognizing the potential of stem cell therapies to revolutionize treatment for various conditions, especially in the skin, this project addresses the need for precise and consistent delivery methods. The device aims to enable physicians to administer stem cells to specific areas of the skin at adjustable volumes while minimizing the risk of contamination or damage to the cells. This initiative is part of a broader Biomedical Engineering curriculum that encourages innovation in medical solutions.
The Safe-T project is a student-designed medical device aimed at improving surgical care accessibility, particularly in regions like India where a significant portion of the population lacks access to safe surgical procedures. A critical component of safe surgical care is reliable anesthesia. In busy urban hospitals, anesthesia providers face challenges in managing patient airways due to high patient volume. Maintaining a patent airway is essential and often requires manual maneuvers by the anesthetist. Glossoptosis, a tongue displacement issue often caused by sedatives, can lead to airway obstruction. The Safe-T device is designed to address this by mimicking the manual airway maintenance maneuvers, thereby freeing up the anesthesia provider's attention to focus on other responsibilities or patients.
This project focuses on developing machine learning models to predict the likelihood of patients being readmitted to the Intensive Care Unit (ICU). ICUs manage critically ill patients, and while clinicians make discharge decisions based on expertise, there's no formal method to predict readmission success. Current readmission rates range from 2% to 20%, with readmitted patients facing significantly higher mortality risks. Existing predictive models often rely on static data and don't fully utilize the complex, time-varying information available in Electronic Health Records (EHRs). The goal is to create an algorithm that leverages comprehensive EHR data to accurately predict ICU readmissions. By improving the prediction of patient recovery and reducing premature discharges, this work aims to decrease morbidity and mortality, lower healthcare costs, and optimize resource allocation. The insights gained from analyzing predictive features could also inform future healthcare modeling.
The EquinOx project is a student-led initiative within the Biomedical Engineering program at Johns Hopkins University. This project focuses on developing a solution for the earlier detection of hypoxemia in patients with dark skin tones. The team, comprising several students and advised by faculty, aims to address a critical gap in current medical diagnostic tools, which often perform less accurately on darker skin pigmentation. The project highlights the university's commitment to innovative research and practical problem-solving within the field of biomedical engineering.

The Bachelor of Science in Biomedical Engineering program at the University of Central Oklahoma (UCO) offers students a unique opportunity to explore the dynamic intersection of engineering principles with biology and medicine. This program is designed to equip students with the knowledge and skills necessary to contribute to advancements in healthcare technology, medical devices, and biological research. Graduates will be prepared for careers in a rapidly evolving field that bridges scientific inquiry with practical applications for human health and well-being.
The Department of Biomedical Engineering (BME) at Stony Brook University offers a Master of Science (MS) program designed to provide students with advanced knowledge and research opportunities in the field. This program focuses on applying engineering principles to solve problems in biology and medicine, aiming to improve human health and well-being. Students engage with cutting-edge research and develop skills for careers in academia, industry, or further graduate studies.
The Master of Science (MS) in Biomedical Engineering with a Research focus at the University of Wisconsin-Madison is designed for students aiming to conduct in-depth research during their program. This option requires the completion of a thesis, serving as a capstone to your research endeavors. It offers a rigorous academic experience within a world-renowned institution, preparing students for advanced research roles or further doctoral studies. The program emphasizes a strong foundation in engineering and bioscience principles, allowing students to tailor their studies to specific areas of interest through a flexible curriculum. Students will work closely with faculty advisors to define their research specialization and select relevant coursework. The goal is to foster critical thinking, problem-solving skills, and independent research capabilities.
The Biomedical Engineering Graduate Group (BMEGG) at UC Davis offers a PhD program focused on collaborative research to advance fundamental knowledge in life sciences and improve healthcare through device development and innovative medical technology. The program emphasizes a multidisciplinary approach, bridging basic science with clinical research. Prospective students should have a strong foundation in mathematics, engineering, and biology. While prior coursework in these areas is highly valued, some undergraduate deficiencies can be addressed after admission.
The Engineering Dual Degree program at Maryville College offers a unique pathway for students interested in engineering careers. This program combines a strong liberal arts education with the foundational technical knowledge required for advanced engineering studies. For the first three years, students will focus on mathematics, chemistry, physics, and computer science at Maryville College, developing essential analytical and problem-solving skills. Simultaneously, they will cultivate critical liberal arts competencies such as written and oral communication, interpersonal skills, and the ability to understand complex issues in a broader context. This blend of technical and communication skills makes Maryville College graduates highly competitive. Upon successful completion of the initial three years at Maryville College, students transfer to an accredited engineering school to complete their Bachelor of Science degree. While Maryville College has a transfer agreement with the University of Tennessee, Knoxville, students have the flexibility to pursue admission to any accredited engineering program. The program culminates in a Bachelor of Arts degree from Maryville College and a Bachelor of Science degree from the partner engineering institution.
The graduate program in Biomedical Engineering (BME) at Stony Brook University offers Master's, Ph.D., and Advanced Graduate Certificate (AGC) degrees. The program emphasizes hands-on experience and access to world-class laboratories, allowing students to tailor their studies to their individual needs and prepare for cutting-edge research and advancements in medicine. Students can choose from various specializations and research interests, gaining practical skills to contribute to the evolving fields of healthcare and technology.
The Lampe Joint Department of Biomedical Engineering, a collaboration between UNC-Chapel Hill and NC State University, offers a graduate program designed to prepare students for leadership in innovation, service, and research within the field. By combining the academic, research, and professional development resources of both universities and leveraging the proximity to North Carolina's Research Triangle Park, the program provides a unique and enriched training experience. Students benefit from access to state-of-the-art facilities across two campuses and engage with interdisciplinary collaborations involving clinical faculty, basic science investigators, and industry partners. This collaborative environment fosters a broad exposure to diverse research cultures, preparing graduates for successful careers in academia and industry.
The Master of Science in Bioengineering is a research-focused, typically two-year program. You will complete advanced coursework in bioengineering, conduct original research, and write a thesis. The department emphasizes integrating biological sciences with engineering principles. A strong undergraduate foundation in both areas is expected for admission.
Rice University offers a professional Master of Bioengineering (MBE) degree designed to provide advanced training and practical experience. Students can choose between two specialized concentrations: Applied Bioengineering, which offers flexibility for careers in academia, medicine, or related fields with options for course-based or research-based specializations; and Global Medical Innovation, a one-year full-time program that combines engineering, business, and clinical training to address real-world medical needs through hands-on design and global immersion experiences in the U.S., Brazil, and Costa Rica. Both concentrations emphasize practical application, professional development, and networking opportunities. The program aims to equip students with enhanced engineering skills alongside business, management, communication, leadership, and entrepreneurship competencies. Partnerships with leading companies in engineering-related fields provide valuable industry exposure and career development.
The Master of Science (MS) in Biomedical Engineering at Texas A&M University is designed to equip students with essential research skills and in-depth knowledge in the field. This program prepares graduates for diverse careers in areas such as research and development, medical device design, or for further academic pursuits like a doctorate. The curriculum is tailored to each student's goals and existing expertise, ensuring a personalized educational journey. Students in this thesis-based program will develop technical leadership skills through a combination of rigorous coursework and significant research training. While an MS can be a stepping stone to a PhD, students aspiring directly for a PhD are encouraged to apply directly to the PhD program at Texas A&M.
Carnegie Mellon University's Master of Science (M.S.) in Biomedical Engineering (BME) program offers advanced, course-based academic training designed to build both depth and breadth of knowledge. The program is ideal for students with backgrounds in traditional engineering or basic sciences who aim to build a career in biomedical engineering, as well as for those considering medical or graduate school who wish to enhance their credentials. The BME M.S. program provides significant flexibility, allowing students to tailor their coursework to specific interests and career aspirations. While students can focus on particular areas, the curriculum ensures a well-rounded understanding of the field, requiring engagement with at least three core areas: physiology and cellular/molecular biology, biomaterials and tissue engineering, biomechanics, biomedical imaging and bioinformatics, and neuroengineering. All students also participate in a Biomedical Engineering Seminar series each semester to learn from established professionals. The program offers specialized tracks, including an Applied Study option that incorporates a real-world practical experience like an internship, practicum, or research project, and a Research option focused on independent research culminating in a thesis or publication. Additionally, CMU offers specialized M.S. programs in Artificial Intelligence Engineering – Biomedical Engineering (MSAIE-BME) and a dual M.S. program in Biomedical Engineering and Engineering & Technology Innovation Management (E&TIM).
The Master of Science in Biomedical Engineering program at Stony Brook University offers a comprehensive educational experience focused on both fundamental and advanced topics in the field. Students have the flexibility to tailor their degree plans to specific career-oriented tracks and sub-disciplines, preparing them for diverse roles in academia, industry, or entrepreneurship. The program emphasizes developing engineers who can address clinical and industry needs, design and test solutions, communicate effectively with stakeholders, and strategize implementation within real-world constraints. Students can choose from three distinct tracks: Academic, Industry, and Entrepreneurship. The Academic track provides a broad foundation for doctoral studies and includes teaching and research opportunities. The Industry track introduces concepts relevant to the professional setting, including management skills. The Entrepreneurship track focuses on new technology development, market placement, and communication. All students are required to complete core coursework specific to their chosen track, and can opt for a thesis or a project-based capstone experience. The program fosters collaboration with various research facilities and institutions, including Brookhaven National Labs and Cold Spring Harbor Laboratory.
The Master of Science (MS) in Biomedical Engineering program at Boston University offers advanced training in the field, building upon a strong foundation in biology and mathematics. This program is designed to equip students with sophisticated knowledge and skills in molecular- or systems-level biology and physiology, alongside advanced biomedical engineering coursework. Graduates will be prepared to contribute to the field through innovative research and development.

The University of Michigan's Biomedical Engineering (BME) PhD program is a rigorous academic pursuit designed for students passionate about advancing healthcare through engineering innovation. This program focuses on interdisciplinary research, allowing students to delve into complex biological and medical challenges with an engineering perspective. The curriculum emphasizes a strong foundation in both engineering principles and biological sciences, preparing graduates for impactful careers in academia, industry, and research institutions.
The PhD program in Biomedical Engineering at Boston University offers a highly quantitative approach to the biomedical sciences, grounded in the principles of engineering and physical science. The program is designed for students with undergraduate backgrounds in engineering, mathematics, physics, or quantitative natural sciences. All admitted PhD students receive financial support through fellowships for their first year, which includes coursework and laboratory rotations. Following a successful first year, students typically secure a research assistantship, allowing them to engage in research under the guidance of faculty within one of the country's largest biomedical engineering departments. The curriculum is structured to provide a strong foundation in molecular and cellular biology and physiology from a quantitative and systems perspective. Graduates are expected to demonstrate the ability to conduct original research, analyze quantitative data, generate hypotheses, and effectively communicate their findings through publications and a dissertation.
There are 34 Biomedical Engineering programmes at 23 universities listed for the United States.
Notable universities include Northwestern University, the University of Michigan, the University of Maryland College Park, Iowa State University, Stony Brook University, and the University of Illinois Chicago.
Tuition ranges from roughly €26,000 to €52,000 per year depending on the institution and programme level.
Yes, all 23 universities listed enrol international students; you will typically need to meet English-language requirements and may need to apply for an F-1 student visa.
Programmes generally require a bachelor's degree in engineering, biology, physics, or a related field, plus standardised test scores (GRE for graduate programmes) and letters of recommendation.