At the end of this course, the students; 1) Know how to evaluate bioreactor operation mode alternatives, build a mathematical model to be used in bioreactor design, and prepare an experimental execution plan. 2) Know how to analyze bioreactor experimental execution results using informatics technologies, and calculate optimum values for system parameters using mathematical modeling. 3) Know how to evaluate purification method alternatives, carry out accelerated shelf-life testing study, and prepare design outputs in report or presentation format using informatics technologies.
MODE OF DELIVERY
Face to face
PRE-REQUISITES OF THE COURSE
No
RECOMMENDED OPTIONAL PROGRAMME COMPONENT
Biotechnology
COURSE DEFINITION
In this course, bioengineering approaches in molecular biology are explained discussing bioreactor/fermenter design/scale-up, sterilization/thermal death kinetics of microorganisms, kinetics of biological reactions, enzyme kinetics, immobilized biocatalysts, kinetics of microbial growth, batch versus continuous operations, heat transfer/mass transfer in bioprocessing, product recovery/downstream processing, and bioprocess economics.
COURSE CONTENTS
WEEK
TOPICS
1st Week
Bioengineering approaches in molecular biology
2nd Week
Bioreactor/fermenter design/scale-up
3rd Week
Sterilization/thermal death kinetics of microorganisms
4th Week
Kinetics of biological reactions
5th Week
Enzyme kinetics
6th Week
Immobilized biocatalysts
7th Week
Kinetics of microbial growth
8th Week
Midterm Exam
9th Week
Batch versus continuous operations
10th Week
Heat transfer/mass transfer in bioprocessing
11th Week
Heat transfer/mass transfer in bioprocessing
12th Week
Product recovery/downstream processing
13th Week
Product recovery/downstream processing
14th Week
Bioprocess economics
RECOMENDED OR REQUIRED READING
Kim Gail Clarke, 2013, Bioprocess Engineering: An Introductory Engineering and Life Science Approach, Woodhead Publishing