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MSP
Course contents
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Materials
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Homogeneous fluid flow
Multiple steady-states
dist-par-model-implementation
CFD
lumped-par-model-examples
CSTR-Flash-model
CSTR-lumped-model
Gas tank models
Super-Thermo
microscopic-modeling
Microscopic general balance
model-intro
Conservation of extensities
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Compressible flow
Other topics
Model building steps
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An Otter Wiki
MSP
Syllabus
9a8065
Commit
9a8065
2024-11-17 12:31:20
Nuno Oliveira
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MSP/Syllabus.md
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4. Main functionalities for models (**usage tasks**).
5. Types of models.
6. Model building process.
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7. Examples of real systems (inside / outside ChemE).
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7. Examples of real systems (inside / outside ChemE):
* World model.
* Danish economy (DREAM-DK/MAKRO).
@@ 21,7 21,7 @@
3. **Macroscopic mathematical models (lumped-parameter systems)**
1. General conservation law.
2. General recipe for building mathematical models.
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3. Model examples
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3. Model examples:
* Liquid tank.
* Mercury-in-glass thermometer.
* Super-thermometer.
@@ 29,19 29,43 @@
* Partial mixed vessel (RTD concepts).
* Gas tank with fixed volume.
* Steam boiler.
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4. Supporting information
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4. Supporting information:
* Physical properties of materials.
* Stoichiometry / reaction concepts.
4. **Microscopic mathematical models (distributed-parameter systems)**
1. Macroscopic and microscopic modeling approaches.
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2. Vectorial analysis (review)
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2. Vectorial analysis (review):
* Vector basis.
* Coordinate systems.
* Characteristic differential operators:
* Gradient.
* Divergence.
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* Rotational.
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* Laplacian.
* Application examples:
* Plug-flow in a cylinder tube.
* Pressure gradient in the atmosphere.
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*
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* Cylinder tune with varying section (cone).
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3. Homogeneous fluid without chemical transformations.
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* Application example:
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* Cylinder tube (incompressible fluid).
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4. General microscopic balance.
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* Fluxes:
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* Dispersion.
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* Advection.
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* Convection.
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* Radiation.
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5. Supporting information:
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* Transport properties.
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* Types of porous materials.
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6. Model examples:
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* Double-pipe heat exchanger.
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* Heat transfer when cooking.
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7. Heterogeneous systems:
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* Pseudo homogeneous models.
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* Examples:
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* Slurry reactor.
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* Fixed-bed reactor.
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* Model treatment for numerical solution:
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* Adimensionalization.
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