Advances
in molecular and cell biology are providing astounding insights
into how cells, tissues and organs work. New theories are describing
how biomolecules are built. The sequencing of the human genome
has unlocked the vast library of information programmed into
cells. Breakthroughs in cell biology are explaining how cells
form tissues. Engineers are needed to convert these cellular
and biomolecular advances into technologies to improve quality
of life.
The following
list provides a sampling of recent biotechnologies benefiting
from the work of chemical engineers:
- Sorona
(DuPont) - a new polymer fiber with superior properties
that is produced from corn using engineered biocatalysts
rather than petrochemicals.
- Lovastatin
(Merck) - a cholesterol-lowering drug synthesized with
the aid of fermentation.
- GlucoWatch
Biographer® (Cygnus) - continuously and noninvasively
reports glucose levels to diabetics, leading to more convenient
and superior administration of insulin.
- Enbrel®
(Amgen/Immunex) - a genetically engineered biopharmaceutical
which seeks out and "mops up" overproduced growth
factors in the blood stream which lead to rheumatoid arthritis.
- Paclitaxel®
(Taxol, NaPro Biotherapeutics) - a cancer therapeutic
originally isolated from the Pacific Yew tree and now produced
in a bioprocess.
- Cerezyme®
(Genzyme) - an enzyme used to treat Gaucher's disease
produced by recombinant DNA technology.
- TransCyte®
(Advanced Tissue Sciences) - the first human
cell-based temporary skin substitute for the treatment of
burns to be approved by the FDA.
- Pseudomonas
stutzeri KC
- injected into the ground to clean-up carbon tetrachloride
contamination from groundwater in Schoolcraft, MI. As contaminated
groundwater flowed through the "biocurtain" formed
from a bacterial biofilm in the soil, the pollutant was
transformed into non-toxic degradation products.
The
Bio-Concentration Curriculum will provide fundamental and
specialized knowledge to engineers for using biotechnology
in industrial applications, pharmaceutical processing, health
care, environmental treatment and agricultural production.
The Bio-Concentration
comprises three required courses:
CHE 246, CHE 347, and CHE 448. Additional elective courses providing further background in the bio-area can be taken in the Departments of Biology, Biomedical Engineering, Chemistry, or Materials Science and Engineering. The Bio-Concentration can be taken by Chemical Engineering majors and other qualified engineering students with adequate backgrounds in the chemical, physical, and engineering sciences.
The sample program below shows how electives may be selected within the General Curriculum to meet the Bio-Concentration requirements.
<< Advisors | Courses
>>
SAMPLE
BIO-CONCENTRATION PROGRAM
|
| Semester
1 |
| APMA
111 |
Single
Variable Calculus |
4 |
| CHEM
151 |
Intro
Chem for Engineers |
3 |
| CHEM
151L |
Into
Chem Lab for Engineers |
1 |
| ENGR
162 |
Engineering
Problem Solving & Design |
4 |
| STS
101 |
Lang
Comm & Tech Soc |
3 |
|   |
  |
15 |
| Semester
3 |
| APMA
213 |
Ordinary
Differential Equations |
4 |
| PHYS
241E |
General
Physics II |
3 |
| PHYS
241W |
General
Physics II Workshop |
1 |
| CHE
215 |
Material
Energy Balances |
3 |
| CHE
246 |
Intro
to Biotechnology (1) |
3 |
| |
HSS
Elective |
3 |
| |
|
17 |
| Semester
5 |
| CHE
316 |
Chemical
Thermodynamics |
3 |
| CHE
321 |
Transport
Processes I |
4 |
| CHEM
351 |
Physical
Chemistry |
3 |
| CHEM
371 |
Physical
Chemistry Lab |
3 |
|   |
Optional Bio Elective (2) |
3 |
|   |
  |
16 |
| Semester
7 |
| STS
401 |
Western
Tech & Culture |
3 |
| CHE
438 |
Process
Modeling & Control |
3 |
| CHE
448 |
Bioseparations
Eng. (4) |
3 |
| CHE
491L |
Chemical
Engineering Lab II |
3 |
| |
Unrestricted
Elective |
3 |
| |
|
16 |
|
| Semester
2 |
| APMA
212 |
Multivariable
Calculus |
4 |
| PHYS
142E |
General
Physics I |
3 |
| PHYS 142W |
General Physics I Workshop |
1 |
| CS
101 |
Intro
to Computer Science |
3 |
| CHEM
152/152L |
General Chemistry
+ Lab |
4 |
|   |
HSS
Elective |
3 |
|   |
  |
18 |
| Semester
4 |
| APMA
311 |
Prob
& Statistics |
3 |
| CHEM
212 |
Organic
Chemistry |
3 |
| CHEM
212L |
Organic
Chemistry Lab |
1 |
| CHE
202 |
Thermodynamics
|
3 |
| CHE
216 |
Model
& Sim in CHE |
3 |
| STS
2xx/3xx |
|
3 |
| |
|
16 |
| Semester
6 |
| CHE
318 |
Chemical
Reaction Engineering |
3 |
| CHE
322 |
Transport
Processes II |
4 |
| CHE
398L |
Chemical
Engineering Lab I |
3 |
| CHE
347 |
Biochemical
Engineering (3) |
3 |
| |
HSS
Elective |
3 |
| |
|
16 |
| Semester
8 |
| STS
402 |
The
Engineer in Society |
3 |
| CHE
449 |
Polymer
Engineering |
3 |
| CHE
476 |
Chemical
Engineering Design |
3 |
| ENGR 488 |
Aspects of Eng. Practice |
3 |
|
| |
Optional Bio
Elective (2) |
3 |
| |
|
15 |
|
|
128 credits minimum
required for graduation.
Notes
- CHE 246: Introduction
to Biotechnology (pre-req.: CHEM 151)
- Optional Bio-electives may be chosen from CHE 442, CHEM 441, CHEM 442, BIOL 308, BIOL 312, BIOL 324, BIOL 501, MSE 512, BIOM 201 or other bio-oriented courses in the Departments of Biology, Biomedical Engineering, and Chemistry.
- CHE 347: Biochemical
Engineering (pre-req.: CHE 246, CHE 321; co-req. CHE 318, CHE 322 or consent of
instructor)
- CHE 448: Bioseparations
Engineering (pre-req.: CHE 322 or consent of instructor)
|