This course is taught by Matt Croughan. Matt has a B.S. UC Berkeley in chemical engineering and a Ph.D. in chemical engineering from the Massachusetts Institute of Technology. He worked for Genentech in South San Francisco as their expert in bioreactor design and scale up. At Genentech, he developed the first licensed, high-density, fed-batch cell culture process. Before joining KGI, Matt worked as an independent consultant for biopharmaceutical process development and manufacturing to more than 50 firms. He served as a part-time as the Industrial Liaison Officer for the Biotechnology Process Engineering Center at MIT.
This course requires a prerequisite which a PPM student wouldn't be able to take before. Therefore, this course is suggested only to people who have prior experience in bioprocessing.
Description
Mammalian cell biotechnology has undergone explosive growth
over the last 30 years. Recombinant Chinese Hamster Ovary (CHO) cells
now far surpass E Coli and all other expression systems for recombinant
protein production. Recombinant protein production levels have gone up
20,000-fold, are now often measured in grams per liter, and are expected
to continue to increase. Mammalian cell culture is not only the most
common system for production of marketed recombinant proteins, but is
also the most common production system for proteins undergoing clinical
testing. This leadership position, for both clinical and marketed
products, also holds true for vaccines. Stem cell and engineered tissue
therapies will ultimately require many new cell culture and/or cell
processing operations. Persons skilled in mammalian cell biotechnology
are in high demand.Description
The primary goal of this course is to provide students with an advanced background in mammalian cell biotechnology. The scientific, engineering, and practical industrial aspects will be presented in a series of lectures. This half-unit lecture course can be taken by itself, or in combination with a complimentary, full-unit laboratory course, Mammalian Cell Biotechnology Laboratory, ALS 421. A student cannot take ALS 421 without taking this lecture course at the same time, or at a prior time.
Prerequisites
ALS 331 or permission of instructor.
Topics Covered
Learning Objectives:
- the history and status of mammalian cell
biotechnology, including past, current and future products, as well as
challenges faced- the biology of cultured cells, including cell growth, death, metabolism, mortality, transformation, differentiation, and adaptation
- laboratory operations and design, sterile technique, containment, and safety
- cell culture kinetics and modeling
- cell line engineering techniques and common host cell lines for recombinant protein and vaccine production
- design of cell culture medium and control of cell metabolism
- cell culture bioreactor design and scale-up, including aeration, mixing, and hydrodynamic/sparging impacts on cells, as well as instrumentation and process control
- design and operation of high-density fed-batch and perfusion cultures
- integration of cell culture processes with downstream product recovery and purification
- cell culture process characterization, validation, and troubleshooting
- manufacturing facility design and operations, from disposables to large-scale stainless steel, including cleaning and sterilization
- vaccine process development and manufacturing
- stem cell biology and the current status of stem cell therapy
- engineered tissues as replacement body parts and as replacements for animal testing
- key issues and tools used in industrial cell culture operations, including economies of scale, operations management, control charts, and process flow diagrams
Grading
Midterm: 33%
Final exam: 34%
Source: http://www.kgi.edu/faculty-and-research/profiles/matthew-s-croughan.html
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