Engineering and Computer Science
Biomedical and Industrial and Systems Engineering
Professors Gallimore, Hangartner, He, Koubek (chair), Phillips,
Rowley
Associate Professors Narayanan, Reynolds
Assistant Professors Harvey, Rothrock
The Department of Biomedical, Industrial, and Systems Engineering offers
undergraduate programs in biomedical engineering, and industrial and systems
engineering leading to the degrees of Bachelor of Science in Biomedical
Engineering or Bachelor of Science in Industrial and Systems Engineering
Curriculum design changes occasionally to meet educational and accreditation
needs. The following curricula are typical; however, students should check
with the department for current curriculum guides.
Biomedical Engineering
Biomedical engineering is concerned with solving and understanding problems
in biology and medicine by using principles, methods, and approaches drawn
from engineering science and technology.
Biomedical engineering students, working in modern teaching laboratories
structured around computer-based engineering workstations, receive intensive
academic training in engineering design and analysis principles as well
as life science concepts. The senior design course brings the course work
to bear on actual biomedical engineering problems that help prepare students
for employment or graduate study.
The curriculum provides a mix of courses in engineering, life sciences,
math, physical science, electronics, control systems, mechanics, and computers,
while also stressing communication skills and general education.
Biomedical Engineering Program Objectives
- To provide opportunities to learn the concepts of basic science,
biology, and engineering as they apply to the discipline of biomedical
engineering
- To provide exposure to the relationships between human/animal systems
and basic-science/engineering principles
- To provide opportunities to develop experimental, analytical, computational,
and communicative skills
- To provide exposure to the principles of some methods and instruments
used in diagnosis and therapy of living systems
- To provide awareness of the multifaceted societal environment with
its local and global implications
- To prepare students for employment as biomedical engineers, for admission
to medical school, or for admission to graduate school
Current efforts in biomedical engineering include developing medical
and surgical instrumentation, designing rehabilitation assistive devices,
interfacing complex systems in data collection and analysis, medical imaging,
and adapting computer technology to assist people with severe physical
disabilities.
Two separate curricula are available. Curricu-lum A is the regular degree
program. Curriculum B is a premedical program that prepares students to
apply to medical school. Students who transfer between curricula must
complete the final curriculum in total.
The Undergraduate Honors Thesis track provides talented, highly motivated
students the opportunity to develop their interests and professional skills
by pursuing carefully structured programs of independent study, which
culminates in completion of the Undergraduate Honors Thesis.
Graduates may also be qualified to pursue graduate studies in engineering
or the life sciences. The department offers a fifth-year M.S. degree program
for students completing the B.S. program.
Degree Requirements - BioMedical Engineering
Bachelor of Science in Biomedical Engineering Degree
| |
Total Hours |
|
General Education Requirements
Required substitutions :
MTH 229, 230
PHY 240/200, 242/202, 244/204
|
68 |
|
Engineering Requirements
|
99
|
|
BME 195
|
2 |
|
BME 419, 420, 422, 428, 439, 440
|
20 |
|
BME 470 (waived for curriculum B)
|
3 |
|
BME 461, 462, 463, 464
|
14 |
|
BME 471 (waived for curriculum B)
|
3 |
|
BME 491, 492/402, 493/403
|
9 |
|
BME 499
|
5 |
|
CEG 220
|
4 |
|
EE 301/302, 321, 413/414
|
13 |
|
EGR 190, 191 (waived for curriculum B)
|
6 |
|
ME 212, 213, 315
|
12 |
|
ISE 301
|
4 |
|
ISE 306 (waived for curriculum B)
|
4 |
|
Related Course Requirements
|
38
|
|
BIO 112, 278, 279
|
13 |
|
CHM 121, 122
|
10 |
|
MTH 231, 232, 233
|
15 |
|
Curriculum B additional courses
|
23
|
|
CHM 123, 211/215, 212/216, 213/217
|
|
|
Total Curriculum A
|
205
|
|
Total Curriculum B
|
212
|
Industrial and Systems Engineering
The Industrial and Systems Engineering program emphasizes the evaluation,
design, and improvement of complex systems. These systems can range from
using a computer to advanced manufacturing facilities. The program recognizes
the central role of the people in such systems, as both operators and
beneficiaries, and provides the breadth of knowledge necessary to design
systems from a user-centered perspective. Students take a variety of courses
across traditional engineering disciplines and in other areas, which may
include probability and statistics, optimization, production, engineering
economics, computing, operations management, and psycho-logy, depending
on area of concentration. The curriculum provides a broad basis, which
includes core industrial engineering courses while focusing on the human
aspects of systems design.
Industrial and Systems Engineering Program Objectives
- To provide graduates with the tools, knowledge, and problem-solving
skills to design, develop, implement, and improve integrated systems
that include people, materials, information, equipment, and energy
- To provide graduates with a foundation in mathematics, science, and
engineering principles that underpins their profession
- To provide graduates with an understanding of the user-centered design
process
- To prepare graduates who can work in a team environment and who can
communicate effectively both written and orally
- To provide graduates an understanding of their role as engineers
in the context of a global society
- To prepare graduates for professional practice and for admission
to graduate programs
The Industrial and Systems Engineering program emphasizes a broad background
in user-centered design within an industrial and systems engineering framework.
Elective/concentration requirements are provided in order that students
may develop a focus area of application. Currently there are four defined
tracks in industrial and systems engineering: human integrated systems,
information and computer systems, operations management, and undergraduate
honors thesis.
Graduates of the program pursue careers in a wide range of settings including
manufacturing, health care delivery, information systems, aerospace, consulting,
and telecommunications. In addition, students may choose to continue their
education in graduate school.
Degree Requirements - Industrial and Systems Engineering
Bachelor of Science in Industrial and Systems Engineering Degree
| |
Total Hours |
|
General Education Requirements
Required substitutions :
MTH 229, 230
PHY 240/200, 242/202, 244/204
|
68 |
|
Required Substitutions:
|
|
|
MTH 229, 230
|
|
|
PHY 240/200, 242/202, 244/204
|
|
|
Engineering Requirements
|
94
|
|
BME 419, 440
|
7
|
|
CEG 220
|
4
|
|
CHM 121
|
5
|
|
EE 301, 302, 321
|
9
|
|
EGR 190, 191
|
6
|
|
ISE 195, 301, 302, 306, 307, 451, 465, 471, 472 473, 474, 481,
482
|
46
|
|
ME 212, 213, 220, 315, 408
|
18
|
|
Mathematics/Operations Management/ Statistics Requirements
|
24
|
|
MTH 231, 232, 233, 253
|
18
|
|
MS 306, 437
|
6
|
|
Technical Communications Requirements
|
3
|
|
EGR 335
|
3
|
|
Elective/Concentration Requirements
|
15-20
|
|
ISE Undergraduate Honors Thesis Track
ISE 499-10, ISE 499-11, three technical electives
|
17-20
|
|
Human Integrated Systems Track
PSY 110; ISE 431, 480; BME 428, one technical elective
|
17-18
|
|
Information and Computer Systems Track/Minor
CS 241, CS 242, MTH 257, CS 400, CS 405
|
19
|
|
Operations Management Track/Minor
MS 331, MS 435, MS 438, MS 439, one technical elective
|
15
|
|
Total
|
204-209
|
Undergraduate Honors Thesis Track
The honors thesis track provides talented, highly motivated students
the opportunity to develop their interests and professional skills by
pursuing carefully structured programs of independent study and research,
which culminates in completion of the Undergraduate Honors Thesis.
Human Integrated Systems Track
Through a structured sequence of coursework, this track
provides the student with a foundation in both physical ergonomics and
human-computer interaction. Students completing this track are typically
employed as human factors engineers or continue with graduate studies
in the field.
Minor in Computer Science for Engineers and Scientists
Students who successfully complete the concentration area courses for
the information and computer systems track and meet departmental requirements
will receive a minor in computer science for engineers and scientists.
Interested students should apply to be admitted to the minor once they
are established in the industrial and systems engineering major and have
achieved junior status.
Minor in Operations Management
Students who successfully complete the concentration area courses
for the operations management track and meet departmental requirements
will receive a minor in operations management from the Raj Soin College
of Business. Interested students should apply to be admitted to the minor
once they are established in the industrial and systems engineering major
and have achieved junior status. Students must be enrolled in the minor
in order to be permitted to sign up for courses in the operations management
track.
|