Micro-Credential in Fermentation Technology & Bioprocess Engineering
Programme Overview
This course emphasizes the application of biological and engineering principles to problems involving microbial, mammalian, and biological/biochemical systems. The aim of the course is to review fundamentals and provide an up-to-date account of current knowledge in biological and biochemical technology. This will equip and prepare the biotechnology graduates with the knowledge needed in fermentation and bioprocess engineering as well as be familiar with the industry practices. The course focuses on the microbial growth kinetics, microbial fermentation (development and scale up), bioreactor design for plant and animal cell cultures as well as for tissue engineering and waste treatment, bioprocessing, and upstream and downstream processing.
Learning Outcomes
On completion of the course participants should be able to:
- Describe the isolation, preservation and maintenance of industrial microbes.
- Demonstrate the ability to carry out experiments in Fermentation Technology and Bioprocess Engineering.
- Present orally on Fermentation Technology and Bioprocess Engineering related topics.
- Solve the problems of scaling of bioreactors, mass and oxygen transfer bioreactors.
Course Progression
Credits from this Micro-Credential Programme are transferable to the following full academic programme:
- Master of Biotechnology
Assessments
- Coursework 60%
- Final Examination 40%
Study Plan for Micro-Credential in Fermentation Technology & Bioprocess Engineering
Week 1 | Introduction to microbial growth kinetics · Isolation, preservation and maintenance of industrial microbes · Microbial growth kinetics- – metabolism and death: a) Growth patterns b) Growth phases c) Effect of factors: i) oxygen supply ii) heat generation d) Growth kinetics (Monod Equation) e) Growth in continuous culture (ideal chemostat)
| Lecture
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Week 2
| Microbial Fermentation: Development & Scale up · Recombinant protein production in bench-top fermentors · Bioprocess concepts in mammalian cell culture technology · Fermentor setup and sterilization · various sterilization techniques for solid · liquid and gases, aeration and agitation, foam, auxillary equipments · Solid state fermentation vs. submerged fermentation · Control of various parameters · Role of computer in fermentor operation – | Lecture, practical
|
Week 3
| Bioprocessing · Introduction to cell culture and fermentation technology through applied biochemical engineering. · Cell Culture/Fermentation (CCF) Introduction – Protein expression in bacterial and mammalian cells: basic concepts and methods for improvements – Post translational modifications: protein glycosylation – Strain development and improvement – Biological basis for industrial fermentations and cell cultures – Scale-up strategies in fermentation processes – Biomass monitor – Anaerobic and aerobic fermentation – Types of fermenters, solid state fermentation, process economics, fermentation economics
| Lecture, practical
|
Week 4
| Bioreactor · Power requirements in bioreactors · Oxygen transfer and shear in bioreactors · Process goals and bioreactor mode of operation – Batch – Fed-batch – Repeated fed batch\ – Continuous – Perfusion – Effluent treatment, scale up and scale down.
| Lecture, practical |
Week 5
| Upstream Process · Preparation of bioreactor · Inoculum development and sterile techniques · Preparation of bioreactor instrumentation devices including: – Temperature probes – pH and dissolved gas probes · Inoculation · Operation, sampling and analysis · Medium design and selection
Downstream Processing · Includes the recovery of the products in a pure state and the effluent treatment. · Broth conditioning and clarification, removal of microbial cells and solid matter · Precipitation, filtration, centrifugation, cell disruptions · Chemically assisted solvent extraction, product modification to assist recovery
| Lecture, practical |
Week 6
| Bioreactors Design · Tissue engineering · Waste Treatment – Case study on recent review papers (5 papers) on the selected system will be discussed.
Enzyme immobilization & its application · Introduction · Techniques used for immobilization: a) Adsorption b) Covalent binding c) Affinity immobilization d) Entrapment · Materials used for fabrication of immobilization supports · Applications and scope
| Lecture, practical, tutorial |
Week 7
| Bioprocess simulation and economics · The Good Manufacturing Practice Concept – Guidelines, Quality control, Good automated manufacturing practice – Biofuels (ethanol), acids (acetic, citric and gluconic), solvents (acetone, glycerol and butanol) · Clinical implications of bioprocesses – Antibiotics – example penicillin, streptomycin, tetracycline – Amino acids- example lysine, glutamic acid.
| Lecture |
Week 8
| Final Examination | Conclusion Session Awarding of Certificates Presentation by VC or Representative of VC
|
Why Micro-Credential in Lincoln University College (LUC), Malaysia?
Micro-credentials in Lincoln University College (LUC), Malaysia offer a flexible, targeted, and accelerated pathway of acquiring industry-relevant skills that meet the demands of today’s evolving job market. Designed for students, professionals, and individuals seeking to upskill or reskill, credentials offer learning experiences and formally recognized certifications, with enhanced employability, and serving as stepping stones to higher qualifications. LUC’s micro-credential programs are supported by strong academic frameworks and offer clear progression pathways into full-fledged degree programs. After completing this Micro-credential course, professionals can use their updated skills to apply for promotions or switch to a different job role.