last modified 11/04/2002
Course name: Modeling and Simulation
of Energy Conversion Systems |
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DUT credit points: 3 |
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ECTS credit points: 4,5 |
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Faculty of Mechanical
Engineering and Marine Technology |
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Lecturer(s):
Korving, ir. A. |
Tel.: 015-27 86653 |
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Keywords: Physical modeling of dynamic systems, Law of
Conservation, Extensive and Intensive Equations, Lumped versus CFD modeling,
Energy Conversion Systems, Two-faze equations, Heat Transfer, Numerical
Integration of Stiff Systems, Module compatibility, Property Databases,
Higher Level Simulation Languages, Real Time Simulation, Software Packages,
Reliability Results, Simulators, Examples: Energy Conversion Systems |
Course year: |
4 |
Period: |
0/0/4/0 |
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Hours p/w: |
4 |
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Other hours: |
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Assessment: |
Oral exam |
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Assessm.period(s): |
Whole year |
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(see calendar) |
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Prerequisites: wb2311,
thermodynamics and fluid flow, thermal power systems |
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Follow up: |
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Detailed description of topics: Modeling and Simulation of Energy Conversion Systems
is based on the laws of conservation using the physical relations derived
from the thermodynamics and fluid dynamics. Models are used for the analysis
of the process design, in the control design, testing the control concept and
for the presetting of controllers used in the field service and finally
during the optimization of the process and training of operators. Methods and
tools are presented how to build and to use such models. How to judge the reliability
of simulation results and what kind of detail is used for the different
components in a complex energy conversion system? Dynamic models can be used
in off-line applications and in real-time simulators. An important aspect of
the modeling is the handling of the medium properties, which are in most
cases strongly non-linear and often discontinue. |
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Course material: Course notes for wb4419, PowerPoint presentation,
Home page section Thermal Power Engineering |
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References from literature: Math modeling and digital simulation of engineering
and scientific systems. W.J. Karplus, Lecture notes 4783P, UCLA,
USA Fundamentals of modeling continuous non-linear
systems involved in power plants, MMS manual, Framatome, Lynchburg, USA |
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Remarks: The lecture includes an individual computer aided
modeling and simulation assignment using one of the modeling tools applied in
industry. After completing the assignment, an individual
examination can be arranged. |
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Aim: The aim of the lecture and assignment is to face the
student with the advanced methods nowadays used in industry to design, build
and use dynamical models to analyze and optimize complex energy conversion
processes. |
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Computer
application: The computer is essential in all steps formulating
the model and using it for generating transient responses. |
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Practice: |
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Design component: |
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Percentage design teaching: |