DEPARTMENT OF BIOLOGICAL SCIENCES (BIOCHEMISTRY & MOLECULAR BIOLOGY PROGRAMME) COLLEGE OF SCIENCE & TECHNOLOGY COVENANT UNIVERSITY COURSE COMPACT COURSE CODE: BCH 413 COURSE TITLE: INDUSTRIAL BIOCHEMISTRY UNITS: 2 SEMESTER/ SESSION: ALPHA, 2013/ 2014 COURSE LECTURERS: *Dr. S. N. Chinedu1 and Mrs. O. E. Omotosho2 *Course Coordinator A. BRIEF OVERVIEW OF COURSE: The course examines the biochemistry of industrial processes involving the use of living microorganisms or their cell products. Emphasis is on fermentation processes, selection and application of industrial organisms and enzymes, and the manipulation of genetic and physiological factors to achieve an optimized production of the desired products. The aim is to introduce the students to the application of biochemical principles and techniques in the fermentation processes applicable in alcohol beverage, pharmaceutical, food supplement, organic chemical, enzyme and bio-treatment industries. B. COURSE OBJECTIVES/ GOALS: At the end of this course, the students should be able to: Describe the microbial genome and extrachromosomal DNA. Explain the processes involved in gene expression and the control mechanisms. Describe the types of fermentation industries and the classifications of microorganisms involved in industrial processes. Discuss the production and optimization of industrial enzymes. Explain the processes for screening and selecting industrial microorganisms. Describe the types of fermentation processes and the methods of development and evaluation. C. METHODS OF LECTURE DELIVERY /TEACHING AIDS Lecture Delivery and Teaching Aids include Guided instructions Transparencies and/ or Power point presentations Interactive classroom session Transparencies Diagrams D. COURSE OUTLINES Module 1 Industrial microorganisms and enzymes1 Week 1 Industrial application of microorganisms Week 2 Industrial microorganisms: screening and selection methods Week 3 Industrial enzymes: procedures for optimized production Module 2 Microbial genetics1 Week 4 Microbial genome and extrachromosomal DNA (plasmids) Week 5 Gene expression: overview of the flow of genetic information Week 6 Control of gene expression Module 3 Microbial physiology and production of metabolites1 Week 7 Genes, enzymes, metabolites and metabolic pathways Week 8 Control mechanisms of metabolic pathways: applications in Industrial Processes Week 9 Methods for overproduction of metabolites Mid-term Test Module 4 Fermentation processes2 Week 10 Fermentations: Batch and continuous culture methods Week 11 The chemostat and application in industrial fermentations Week 12 Fermentations: process evaluation and development Week 13 Tutorials Week 14 Revision and evaluation E. TUTORIALS Week 13 and 14 will be devoted to tutorials and revisions of the course. F. STRUCTURE OF THE PROGRAMME/ METHOD OF GRADING 1. 2. Continuous Assessment 30 Marks (i) Test 1 5 Marks (ii) Test 2 5 Marks (iii) Mid-Semester Test 20 Marks Semester Examination 70 Marks G. GROUND RULES AND REGULATIONS The following ground rules and regulations shall be observed: Mandatory 75% class attendance, No eating or dozing in the classroom or laboratory, Active participation in all activities, All class assignments must be submitted on time, Punctuality to classes must be observed. H. TOPICS FOR TERM PAPERS/ ASSIGNMENTS (i) Discuss the processes involved in the selection of industrial microorganisms. (ii) What are industrial enzymes and how can you optimize their production? (iii) Describe the microbial genome and explain the importance of plasmids found in some microorganisms. (iv) Outline the flow of genetic information microorganisms and describe the control of gene expression. (v) Give an outline of a specific metabolic pathway and show the metabolite(s) and end product(s) of the pathway. (vi) Describe the different mechanisms of metabolic control and explain how they can be employed to overproduce desired metabolites. (vii) Discuss the advantages and disadvantages of different fermentation processes. (viii) Describe the chemostat and its applications in industrial processes. (ix) Explain how to develop and evaluate a fermentation process. I. ALIGNMENT WITH UNIVERSITY VISION AND GOALS Application of Biochemical techniques to industrial processes is in alignment with the University’s vision and goals. J. INDUSTRIAL RELEVANCE The course is essential to understanding the role of Biochemists in fermentation industries. K. RECOMMENDED READING 1. Lehninger, A. Principles of Biochemistry (5th edition) 2. Tinoco I. Jnr et al., Physical Chemistry: Principles and Applications in Biological Sciences (4th edition).