Bioengineering
The Bioengineering (M.S./M.Eng.) program provides a broad engineering and biotechnology
curriculum, while offering a focus on a specific engineering track that best fits
students' interests and career choices. This combination gives our bioengineering graduates
professional flexibility, a distinct competitive advantage in the ever-changing field of
bioengineering.
The bioengineering master's program has six tracks:
Curriculum Overview
The bioengineering master's program has two components: an interdisciplinary core curriculum,
including one class outside of students' chosen sub-specialty to increase the breadth of
bioengineering knowledge; and courses required by the department for students' chosen track.
Click
here for additional course information.
| Core curriculum (4 credits) |
BME-162
CHBE-162
BIO-162
BIO-105 |
Molecular Biotechnology or Molecular
Biology
(1 credit) |
BioE291 BioE292 |
Bioengineering Seminar (1 credit) |
| EE-104 |
Probability§ (1 credit) |
| Breadth requirement |
Choose one course from
core courses outside chosen track (1 credit) |
§Additional Math selections may be substituted for EE-104 by petition
of the admission committee.
Bioinformatics
The Bioinformatics track looks at computational approaches to biomedical problems. Students may focus in computational
data analysis, systems biology, data mining, simulation and modeling, visualization,
or other areas that incorporate computer science and mathematics in biological research.
This track requires some undergraduate computer science as a prerequisite (Comp 15 or
the equivalent). Students will work with an advisor to design a coherent program
including computer science electives as well as courses in computational biology,
math and biotechnology.
Track
requirements:
In addition to the four core credit requirements,
students in this track must also take:
- Comp-167 Computational Biology
- 5 Elective Credits
Sample Program
This program assumes some undergraduate-level experience in Computer Science
(or comparable industry expertise programming in C, C++, or Java) and fundamental
knowledge of biology and chemistry.
| Year 1 |
| Fall |
Spring |
| BioE 291 - Bioengineering Seminar |
Bio E292 - Bioengineering Seminar |
| †Comp 135 - Machine Learning |
BME 162 - Molecular Biotechnology |
| EE 104 - Probability |
*Comp 167 - Introduction to Computational Biology |
| Year 2 |
| Fall |
Spring |
| ‡ChBE 167 - Metabolic and Cell Engineering |
†Comp 160 - Algorithms |
| †Systems elective: Comp 111 (Operating Systems)
or Comp 112 (Networks) or Comp 115 (Database Systems) or a similar course. |
†Comp elective: an advanced Comp course in
bioinformatics, algorithms, machine learning, or another related topic (recent
options include Biological Networks and Systems, Scientific Visualization, Stochastic
Search and Genetic Algorithms, Advanced Algorithms, etc.) |
| †Comp 293/295 - Graduate Research/MS Thesis |
|
*Track requirement
†Track elective
‡Breadth elective (fulfills core requirement)
Biomaterials
The Biomaterials track involves the study of the interaction of biomaterials with their
environment in the context of biomedical applications. Students will be encouraged to focus their
studies on one of several bio-medically relevant topics, including tissue engineering, biological
delivery, or the interaction of biomaterials with mammalian tissues. The nature of this track will
require students to select courses from a number of departments.
Track
requirements:
In addition to the four core credit requirements, students in
this track must also take:
- BME-164 Biomaterials and Tissue Engineering
- BME-165 Principles of Controlled Release and Drug Delivery
- 4 Elective Credits
Biomechanical Systems and Devices
The Biomechanical Systems and Devices track investigates the application of technology to human
biological systems. Areas of study include the mechanics of hard and soft tissues, human
biomechanics, dynamics of human-machine interaction, and the design of assistive technology and
medical devices. Students develop a foundation with core courses in thermal-fluid processes,
mechanics and materials, or dynamic/robotic systems, and specialize in a particular area of study
through the appropriate selection of elective courses.
Track
requirements:
In addition to the four core credit requirements, students in
this track must also:
Choose any two from courses below:
- ME-111 Thermal-Fluid Transport I
- ME-112 Thermal-Fluid Transport II
- ME-122 Solid Mechanics
- ME-125 Manufacturing Processes and Materials Technology
- ME-180 Digital Control of Dynamic Systems
- ME-181 Advanced Dynamics and Vibration
Choose any two (for M.S.) or three (for M.E.) from courses below:
- BME-175 Tissue Engineering Laboratory
- CEE-194N Soft Tissue Biomechanics
- CHBE-114 Advanced Transport Phenomena
- ENP-210 Human Factors of Medical Systems
- ME-103 MEMS
- ME-121 Biomaterials
- ME-129 Finite Element
- ME-152 Biomechanics
- ME-184 Robotics
- ME-118 Advanced Data Acquisition
- ME-265 Viscous Flows
Master's of Engineering students must also enroll in ME-299 (guided project)
Master's of Science students must also enroll in ME-295 and ME-296 (thesis)
Sample Program
This program assumes an undergraduate degree in Mechanical Engineering or related discipline.
| Year 1 |
| Fall |
Spring |
| BioE 291 - Bioengineering Seminar |
BioE 292 - Bioengineering Seminar |
| *ME 122 - Solid Mechanics |
BME 162 - Molecular Biotechnology |
| EE 104 - Probability |
*ME 125 - Manufacturing Processes and Materials Technology |
| Year 2 |
| Fall |
Spring |
| ‡CEE 194N - Soft Material Biomechanics |
†ME 129 - Finite Element |
| †ME 121 - Biomaterials |
*ME 296 - Graduate Research/M.S. Thesis |
| *ME 295 - Graduate Research/M.S. Thesis |
|
*Track requirement
†Track elective
‡Breadth elective (fulfills core requirement)
Cell and Bioprocess Engineering
The Cell and Bioprocess Engineering track looks at bioprocess design and optimization with emphasis on molecular and cellular processes.
Our major educational objective for students is the attainment of core knowledge in
both upstream and downstream engineering aspects of modern biotechnology. The core
subject areas integrate applied biology, chemical reaction engineering and systems
analysis. Topics include enzyme and pathway engineering; fermentation and bioreactors;
and cellular systems modeling and analysis.
Track
requirements:
In addition to the four core credit requirements, students
in this track must also take:
- CHBE-160 Biochemical Engineering
- CHBE-161 Biochemical Separations
- CHBE-166 Cell and Microbe Cultivation
- CHBE-167 Metabolic & Cell Engineering
- 2 Elective Credits
Sample Program
This program assumes an undergraduate degree in Chemical Engineering, Biochemical
Engineering, Bioengineering or related discipline.
| Year 1 |
| Fall |
Spring |
| BioE291 - Bioengineering Seminar |
BioE292 - Bioengineering Seminar |
| *ChBE 160 - Biochemical Engineering |
BME 162 - Molecular Biotechnology |
| EE 104 - Probability |
†ChBE 168 - Biotechnology Processing Laboratory |
| Year 2 |
| Fall |
Spring |
| *ChBE 166 - Cell and Microbe Cultivation |
*ChBE 161 - Biochemical Separations |
| *ChBE 167 - Cell and Metabolic Engineering |
†BIO 152 - Biochemistry |
| ‡CEE 139 - Bioremediation: Natural and Enhanced |
|
*Track requirement
†Track elective
‡Breadth elective (fulfills core requirement)
Environmental Biotechnology
The Environmental Biotechnology track investigates the development, control, and characterization of biological processes for water and
wastewater treatment and environmental restoration. Focus is on biological
transformations in complex systems comprising microbial communities. Application
and integration of current molecular tools for monitoring and assessing these
systems is integrated within the framework of process design and implementation.
Track
requirements:
In addition to the four core credit requirements, students
in this track must also take:
- CEE-139 Bioremediation: Natural & Enhanced
- CHBE-163 Recombinant DNA Techniques
- 4 Elective Credits
Signals and Systems
The Signal and Systems track educates biotechnology engineers in (1) analysis and processing of signals with
an emphasis on biomedical image processing and image formation and (2) design, control
and synthesis of systems for biotechnology (e.g. development of miniaturized devices,
circuits and systems, controller design for bioreactors).
Track
requirements:
In addition to the four core credit requirements, students
in this track must also take:
- EE-125 Digital Signal Processing (including semester-long project)
- EE-133 Digital Image Processing (including semester-long project)
- 4 Elective Credits
|