Biomedical Engineering University of Wisconsin Milwaukee

Overview

The Biomedical Engineering programme at the University of Wisconsin Milwaukee provides a robust foundation for students aiming to bridge the gap between technical engineering and medical science. This undergraduate degree focuses on translating complex engineering theories into practical clinical applications to improve patient care and healthcare technology.

Students engage in a curriculum that balances theoretical knowledge with extensive hands-on laboratory experience. The early years of study establish a strong base in mathematics, anatomy, and physiology, while the latter half of the programme allows for deeper exploration into specialised fields such as medical imaging and rehabilitation engineering.

Why Biomedical Engineering at the University of Wisconsin Milwaukee?

The university is recognised as a top-tier R1 research institution, providing students with access to world-class laboratories and cutting-edge facilities. This status ensures that the learning environment is informed by the latest discoveries and technological advancements in the field of bioengineering.

A distinctive feature of the programme is the emphasis on engineering design, which is integrated throughout the entire four-year curriculum. Students benefit from strong links with local industry, offering numerous opportunities for cooperatives and internships that provide vital professional experience before graduation.

The institution also offers unique pathways such as the Accelerated MS programme and the Product Realization course. These initiatives allow high-achieving students to work in multidisciplinary teams, fostering leadership skills and preparing them for the demands of launching startups or joining established global organisations.

Tuition Fee Breakdown

• International fee: USD 24368 per year
• National fee: USD 24368 per year
• Local fee: USD 11768 per year

Visit the Fees and Funding section for a breakdown in your local currency.

Syllabus

The curriculum requires a minimum of 120 credits to graduate. Modules may include:

• Anatomy and Physiology
• Biomedical Engineering
• Biomaterials
• Analysis and Modeling of Dynamic Systems
• Engineering Biomechanics
• Biomedical Signals and Systems
• Engineering of Biomedical Devices
• Biomedical Instrumentation Laboratory
• Capstone Design Project
• Smart Systems Engineering
• Professional Seminar
• Programming Using Python
• Engineering Statistics
• Calculus and Analytic Geometry
• Analytical Methods in Engineering

Careers with Biomedical Engineering

Graduates are prepared for diverse roles where they collaborate with medical researchers and manufacturers to develop life-changing products. The programme's focus on design and practical application makes alumni highly sought after in the rapidly growing healthcare and medical device sectors.

Common career paths for graduates include roles as clinical or field engineers, where they manage medical equipment within healthcare facilities. Others find success as manufacturing engineers, quality engineers, or researchers dedicated to developing new medical technologies and instrumentation.

The skills acquired also support careers in technical sales and staff engineering. Many alumni choose to pursue advanced degrees or enter the workforce in industries focused on assistive technology, medical imaging, and biomechanics, contributing to the evolution of modern clinical methods.