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Learning target / Competences
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By the end of the module, students
- are capable of identifying the process engineering key problems and questions, and of describing them to colleagues or to representatives of clients and ancillary companies.
- broadened their knowledge and understanding of process engineering unit operations as well of special technologies such water processing.
- understand the context of energy and raw material input, processes, production plants including process control equipment.
- master practical skills to solve typical engineering problems in process engineering involving multiphase flows.
- understand the fundamental principles of modelling and simulation, and the statistical experimental design.
- can apply the concept to solve optimization tasks.
- are able to present the results of the experimental work in a report which is structured as an international scientific paper.
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Lectures
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Process Control Engineering
| Type |
Lecture |
| Nr. |
M+V2503 |
| Hours per week |
2.0 |
| Content |
- the automation pyramid
- norms and regulations
- the most relevant DCS systems
- sensors and actuators
- fieldbus systems
- controller and DCS levels
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| Literature |
- Schildt, H.-H.; Kastner, W.: Prozeßautomatisierung; Springer, 1998
- Polke, M. (ed.): Process Control Engineering;VCH Weinheim 1994
- Siemens: Manual of Siemens Simatic PCS 7, part 1 and 2
Available online:
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Modelling and Simulation
| Type |
Lecture |
| Nr. |
M+V2531 |
| Hours per week |
2.0 |
| Content |
The course is structured as follows:
- Introduction to Berkeley Madonna as differential equation solver
- Short repetition on Enzyme kinetics and Bioreactor processes
- Formulation of mathematical models, e.g. for chemical reaction, enzyme kinetics or fermentation processes
- Implementation of mathematical models in Berkeley Madonna, simulation and interpretation of simulation results
- Definition of own modelling tasks, formulation of differential equation systems, implementation in Berkeley Madonna and description including source code
- Introduction to statistical experimental design, empirical modelling of experimental results, interpretation of statistical indicators, utilization of models for optimization
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| Literature |
- Dunn, I.J., Heinzle, E., Ingham, J. Prenosil, J.E., Biological Reaction Engineering – Dynamic Modelling Fundamentals with Simulation, 2003
- Berkeley Madonna Guidelines (https://berkeley-madonna.myshopify.com/pages/download)
- Shina, S., Industrial Design of Experiments, 2022
- Goos, P., Jones, B., Optimal Design of Experiments, 2011
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Multiphase Flow
| Type |
Lecture |
| Nr. |
M+V2533 |
| Hours per week |
2.0 |
| Content |
The course is structured as follows:
- Introduction and characteristics of multiphase flows
- Single particle motion
- Bubble / droplet dynamics
- Flow regimes
- Cavitation
- Modelling of multiphase flows, e.g., gas-liquid flows, gas-solid flows
- Examples and applications
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| Literature |
- Brennen, C. E.: Fundamentals of Multiphase Flows. Cambridge University Press, 2005
- Clift, R; Grace, J. R.; Weber, M. E.: Bubbles, Drops and Particles. Courier Corporation, 2013
- Crowe C.T.; Michaelides, E.; Schwarzkopf, J.D.: Multiphase Flow Handbook. Taylor and Francis, 2016
- Michaelides, E. E.; Sommerfeld M.; van Wachem B.: Multiphase Flows with Droplets and Particles. CRC Press, 2022
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Water Processing + Lab
| Type |
Lecture/lab |
| Nr. |
M+V2532 |
| Hours per week |
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| Content |
The course contains:
- the current worldwide situation of the resource water
- thermodynamic basics
- transport phenomena for mass and heat
- common technologies for seawater desalination
- two drinking water production techniques: diffusion and thermal way
- techniques of pervaporation and flash evaporation
- in addition, experiments in the laboratory
- a final presentation of the results
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| Literature |
- P. Stephan, K.Schaber, K. Stephan, F. Mayinger: Grundlagen und technische Anwendungen – Band 2, Mehrstoffsysteme, Springer Vieweg Verlag Berlin Heidelberg, 2017
- C. Judson King: Separation processes, second edition, Dover Publication Inc., 2013
- R. Byron Bird, Warren E. Stewart, Edwin N. Lightfood: Transport Phenomena, Revised second edition, Wiley-VCH, 2006
- Peter Stephan, Stephan Kabelac, Matthias Kind, Dieter Mewes, Karlsheiz Schaber, Thomas Wetzel: VDI-Wärmeatlas, VDI-Gesellschaft Verfahrenstechnik und Chemieingenieurwesen, Springer Verlag Berlin Heidelberg, 2019
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