SES # | LECTURE NOTES | |
---|---|---|
Mass balance | ||
1 | Introduction, basic concepts (PDF) Modeling: Everglades | |
2 | Mass conservation Modeling: Everglades | |
3 | Chemical kinetics (PDF) Modeling: dechlorination | |
4 | Population modeling (PDF) Modeling: pesticide impact | |
5 | Closed cycles (PDF) Modeling: nutrient enrichment | |
6 | Networks (PDF) Modeling: traffic | |
7 | Networks Modeling: vehicle emissions | |
Energy balance | ||
8 | Basic thermodynamic concepts (PDF) Modeling: building energy | |
9 | First law, heat capacity, conduction and convection Modeling: building energy | |
10 | Radiative energy transfer (PDF) Modeling: building energy | |
11 | Open system thermodynamics (PDF) Modeling: heat discharge to a stream | |
Mass and energy transport | ||
12 | Mass transport: advection, diffusion (PDF) Modeling: air quality | |
13 | Mass transport: spatial moments Modeling: air quality | |
14 | Mass transport: concentrations Modeling: air quality | |
Resource economics and life cycle analysis | ||
15 | Present value, discounting (PDF) Modeling: building energy revisited | |
16 | Optimization problems, resource allocation (PDF) Modeling: crop irrigation | |
17 | Derived demand Modeling: crop irrigation | |
18 | MATLAB optimization tutorial | |
19 | Derived supply, equilibrium analysis (PDF) Modeling: groundwater supply | |
20 | Multiple objectives, Pareto optimality (PDF) Modeling: revenue vs. environmental quality | |
21 | Life cycle analysis (PDF) Modeling: life cycle example | |
22 | Life cycle analysis (cont.) Modeling: life cycle example | |
23 | Student presentations | |
24 | Student presentations (cont.) |