Bioengineering (MS)
Admission Standards
The admission standards for the Master of Science program in Bioengineering are as follows:
- All admission applications for the program shall include:
- A completed application for admission for the Graduate School,
- An application fee,
- At least two letters of recommendation,
- Written statement describing previous experience related to Bioengineering and how the Master of Science in Bioengineering will allow the applicant to fulfill their career goals, and
- Official transcript(s) for all previous post-secondary coursework. All transcripts not in English must be certified as authentic and translated verbatim into English.
- The minimum requirement for admission is the baccalaureate degree or its equivalent from an accredited institution.
- The successful applicant will typically have an undergraduate grade point average of 3.00 or above (on a 4.00 scale).
- International students whose primary language is not English must show English language proficiency by either TOEFL/IELTS/Duolingo score or demonstration of a degree awarded from an acceptable English language institution. The successful applicant will typically have a TOEFL score of 79 or higher or overall IELTS score of 6.5 or higher or a Duolingo score of 105 or higher.
Degree Requirements
Code | Title | Hours |
---|---|---|
Program Core | ||
BE 601 | Bioengineering Seminar (two) | 2 |
BE 621 | Bioinstrumentation | 4 |
BE 654 | Advanced Physiology for Engineers | 3 |
BE 695 | Bioengineering Research Design & Methods | 3 |
CHE 686 | Chemical Engineering Analysis | 3 |
Technical Electives 1 | 9-12 | |
See below for areas of emphasis and approved courses 1 | ||
Thesis or Project 2 | 3-6 | |
Master of Science Thesis in Bioengineering | ||
or BE 691 | Bioengineering Non-thesis Design/Research Project | |
Minimum Total Hours | 30 |
The Master of Science degree must be completed with a 3.00 GPA or better for all graduate courses used to satisfy degree requirements and all academic work attempted in graduate studies.
- 1
Thesis option students complete nine (9) credit hours of emphasis-area coursework; non-thesis option students complete twelve (12) credit hours of emphasis-area coursework.
- 2
Thesis option students complete six (6) credit hours of BE 698 Master of Science Thesis in Bioengineering; non-thesis option students complete three (3) credit hours of BE 691 Bioengineering Non-thesis Design/Research Project.
- 3
Students in the MS in BE program interested in continuing their graduate studies in the Bioengineering PhD program must reach out to the MS in BE program Director during their first semester.
Technical Electives
Thesis option students complete nine (9) credit hours of technical electives in the emphasis areas listed below. Non-thesis/project option students complete twelve (12) credit hours of technical electives. Students may take technical electives from more than one area of emphasis with prior approval from the student's advisor and the Department Chair.
Technical electives must include at least nine (9) credit hours of Bioengineering (BE-prefix courses), unless a student's advisor and the Department Chair approve a deviation from this requirement.
Fulfillment of technical elective requirements with courses outside of the emphasis-area electives require permission from the student’s advisor and Department Chair.
Code | Title | Hours |
---|---|---|
Bioelectrical & Biomedical Devices | ||
Biomedical Acoustics | ||
LabVIEW for Bioengineers | ||
Advanced Computer-Aided Design and Manufacturing for Bioengineers | ||
Cardiovascular Dynamics | ||
Advanced Biomaterials | ||
Artificial Organs | ||
Fundamentals of Microfabrication and MEMS | ||
Bioimaging & Biocomputational Modeling | ||
Machine Learning in Python | ||
Machine Learning in Medicine | ||
Medical Image Computing | ||
Computer Tools for Medical Image Analysis | ||
Artificial Intelligence Techniques in Digital Pathology | ||
Introduction to Artificial Intelligence in Bioengineering | ||
Computational Methods for Medical Image Analysis | ||
Modeling of Biological Phenomena | ||
Simulation and Modeling of Discrete Systems | ||
Digital Image Processing | ||
Medical Imaging Systems | ||
Introduction to Bioinformatics | ||
Introduction to Biomedical Computing | ||
Biomechanics & Rehabilitation | ||
Advanced Computer-Aided Design and Manufacturing for Bioengineers | ||
Cardiovascular Dynamics | ||
Biomechanical Computer Modeling and Simulation of Human Movement | ||
Injury Biomechanics | ||
Rehabilitation Engineering and Assistive Technology | ||
Cellular Mechanobiology in Cancer | ||
Molecular & Tissue Engineering | ||
Introduction to Tissue Engineering | ||
Nanoscale Bioengineering: Application and Methodology of Nanobiomaterials in Bioengineering | ||
Tissue and Molecular Biology Techniques Laboratory | ||
Advanced Biomaterials | ||
Cellular Mechanobiology in Cancer | ||
Biomolecular Interactions | ||
Molecular Biology | ||
Techniques in Biomolecular Interactions |