Plan ahead for courses where students have earned lower grades.
Lowest historical GPA first. At least 100 letter grades over the five years through the
selected term. Grades reflect past outcomes, not workload or a guaranteed result.
Find your fit
16 courses
Ranked courses have at least 100 recorded letter grades.
Covers biological systems governing biomaterial applications, current materials for biomedical use, analytical techniques for evaluation, and major medical applications where biomaterials are important.
Expect heavy workloads, including 50-page readings and reading quizzes before lectures. Exams make up the majority of the grade and cover all slide content.
Computers in Medicine covers microprocessor-based medical instrumentation, emphasizing real-time ECG analysis through labs and projects involving biomedical digital signal processing algorithms.
Lectures were 75-minute, slide-heavy presentations that some found disengaging, requiring students to actively manage their attention during the long sessions.
Introduction to biomechanics covering the mechanical behavior of biological tissues, including bone, muscle, and soft connective tissues, their structure, function, and mechanical properties.
Covers ECM protein structure, function, and biophysical properties, linking them to cell/tissue function and exploring ECM engineering for regenerative medicine.
Lectures were fast-paced, requiring students to keep up with the content. Practice problems and homework helped reinforce understanding of the material.
Occupational Ergonomics and Biomechanics introduces engineers to designing manufacturing and industrial operations where people play a significant role, maximizing human capabilities while minimizing physical stress and optimizing workload.
Weekly workload consisted of one quiz with unlimited attempts, one homework assignment, and one in-class assignment, alongside two exams and a final project.
Overview of experimental and modeling techniques for human movement, covering motion capture, force plates, musculoskeletal modeling, inverse dynamics, and forward dynamic simulation.
Biomedical Engineering Design and Communication applies technical communication to real-world, client-based projects, covering research methods, documentation, report critique, ethics, diversity, and professional development.
The class was unorganized, and grading rubrics for the design project were sometimes posted just hours before deadlines, requiring persistent follow-up.
Medical Devices Ecosystem covers developing therapeutic or diagnostic devices through gap analysis, market analysis, regulatory approval, and supply chain development.