|
 Academic Year:
| 2012/3 |
| Owning Department/School:
| Department of Chemical Engineering |
| Credits:
| 6 |
| Level:
| Masters UG & PG (FHEQ level 7) |
| Period: |
Semester 1 |
| Assessment:
| EX 100% |
| Supplementary Assessment: | Like-for-like reassessment (where allowed by programme regulations) |
| Requisites:
| |
| Description:
| Aims: To provide an understanding of the various biological, reactor and separation process strategies that can be employed to produce biochemicals in a controllable and predictable process through the exploitation of bacteria, yeast and higher organisms. To introduce the main unit operations used in the separation of materials of biological origin; to provide an understanding of the role of each operation within a multi-unit process and how this is influenced by the properties of the process stream; to introduce and explore the use of quantitative performance equations for design purposes. Learning Outcomes: After successfully completing this unit the student should be aware of the importance of biological considerations when assessing reactor strategies; to be able to assess and design a reactor for cell growth or to carry out an enzyme reaction; to be aware of the main separation techniques available and how their choice is dependent on the nature of the bioproduct to be produced. Skills: Acquisition and critical assessment of technical information in biochemical engineering. Taught, facilitated and assessed. Content: Oxygen transfer during a fermentation; micro-organism growth kinetics; enzyme reactor kinetics; quantitative performance equations for bioreactor design; strategies for bioreactor equipment design; properties of biochemicals which influence choice and availability of methods; cell recovery; cell disruption/release of intracellular products. General introduction to membrane processes, materials of construction and modes of operation; flux in UF/MF effects of concentration, pressure and temperature; Chromatographic separations, review of techniques available. Design of adsorption columns; simplified models based on equilibrium assumption, kinetic models with and without an assessment of mass transfer coefficients. Prediction of breakthrough. |
| Programme availability: |
CE40126 is Compulsory on the following programmes:Department of Chemical Engineering
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