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Waterbody Hydrodynamic and Water Quality Modeling: An Introductory Workbook and CD-ROM on Three-dimensional Waterbody Modeling [Pehme köide]

  • Formaat: Paperback / softback, 215 pages, kaal: 442 g, illustrations
  • Ilmumisaeg: 31-Jul-2001
  • Kirjastus: American Society of Civil Engineers
  • ISBN-10: 0784405506
  • ISBN-13: 9780784405505
  • Formaat: Paperback / softback, 215 pages, kaal: 442 g, illustrations
  • Ilmumisaeg: 31-Jul-2001
  • Kirjastus: American Society of Civil Engineers
  • ISBN-10: 0784405506
  • ISBN-13: 9780784405505
This one-of-a-kind workbook is an introduction to water body hydrodynamic and water quality modeling techniques and the properties of different models through hands-on software. The workbook explains how to set up models for different types of water bodies and water body problems, and different ways of examining and interpreting the model results. The model software includes the circulation in water bodies as influenced by inflows, outflows, tides, winds, salinity, and temperature. Coupled with this model are a dissolved oxygen depression model, a particulate-based nutrient and eutrophication model, and a sediment scour and deposition model. The workbook walks students through the steps of setting up an example application for its bathymetry, its input data file and specification of the desired output, followed by execution of example. Additional example applications are presented showing the setup of the model for different types of water bodies and for the different water quality models provided in the software. The results of the 30 example applications are provided in example output folders. An excellent learning tool for students in environmental engineering and environmental sciences programs, the models in ""Waterbody Hydrodynamic and Water Quality Modeling"" may be used for class assignments, term projects, and to supplement course lectures and textbooks. Practicing engineers will also find this workbook useful in making a rapid assessment of a water body problem. System requirements are: i486 or Pentium; processor-based personal computer - Microsoft Windows 95, Windows 98, Windows NT 4.0 or Windows 2000; 20 MB of available RAM; Minimum 30 MB of available hard-disk space (16MB are required for the program. 14 MB are required for Acrobat Reader).
Introllvht Hydrodynamic and Water Quality Modeling
1(18)
The Hydrodynamic and Transport Model
1(1)
Example Flow Regimes
2(2)
The Water Quality Models
4(2)
INTROGLLVHT Model Folder
6(1)
The Bathymetry Setup Routine and Its Application
6(2)
The Input File Routine
8(1)
The Generalmodel.exe Routine
9(1)
Example Applications
9(1)
The DMA Win.exe
10(9)
The Input Data File
19(14)
Description of Input Data File
19(6)
Application Input Data File
25(2)
Applying the INTROGLLVHT Input File.exe Routine
27(6)
Executing the Model, Output Files, and Water Quality Model Default Parameters
33(18)
Executing the Model
33(1)
Description of Output Files
34(4)
Water Quality Model Default Parameter Files
38(13)
Application of the Temperature, Salinity, First-Order Decay Constituent Model to Estuaries and Coastal Waters
51(30)
The Estuarine EST_TSC_01 Application
51(3)
Determination of Residence and Flushing Times
54(3)
Estuary with Groundwater Inflow
57(1)
Coastal Applications
58(23)
Application of the Temperature, Salinity, First-Order Decay Constituent Model to Lakes and Reservoirs
81(20)
Lake with Cold Water Inflow
81(3)
Closed Loop Cooling Reservoir with Skimmer Walls
84(17)
Application of the Dissolved Oxygen Depression Model
101(16)
Application to a Tank Test
101(2)
Application to a Simple Stream
103(2)
Application to a Reservoir
105(12)
Application of the Water Quality Dissolved Particulate Eutrophication Model
117(24)
Tank Tests of Water Quality Dissolved Particulate Model Properties
118(2)
Reservoir Applications of the Water Quality Dissolved Particulate Model
120(1)
The Closed Loop Cooling Reservoir
121(1)
An Example Lake Study Problem
122(1)
Application of the Water Quality Dissolved Particulate Model to Estuaries and Coastal Waters
123(3)
Density Dependent Phytoplankton Grazing
126(15)
Application of the Sediment Scour and Deposition Model
141(14)
Application of the Sediment Scour and Deposition Model to a River
141(2)
Application of Sediment Scour and Deposition to a Tidal River
143(2)
Application of the Scour/Deposition Model to a Coastal Water Project
145(1)
Application of Sediment Scour and Deposition to a Coastal Water Project with a Marina Breakwater
145(10)
Generalized Longitudinal Lateral Vertical Hydrodynamic Transport Relationships
155(12)
Fundamentals of Momentum Balances
155(1)
Detailed Relationships
156(1)
Computational Scheme
157(2)
Formulation of the Generalized Longitudinal Lateral Vertical Hydrodynamic Transport Numerical Hydrodynamic Computation
159(2)
Numerical Formulation of the Generalized Longitudinal Lateral Vertical Hydrodynamic Transport Relationship
161(2)
INTROGLLVHT Model Limitations
163(4)
First-Order Decay and Sediment Relationships
167(4)
First-Order Decay
167(1)
Decay Rates
167(1)
Analytical Solution
167(1)
Half-Life from Kinetic Coefficients
167(1)
Computation of Residence Time
168(3)
Surface Heat Exchange Relationships
171(6)
Approximation to Surface Heat Exchange Formulation
171(1)
Excess Temperature
172(1)
Short-Wave Solar Radiation
173(1)
Coefficient of Surface Heat Exchange and Equilibrium Temperature
173(1)
Response Temperature
173(1)
Plant Heat Rejection, Pumping Rate, and Temperature Rise
174(3)
Dissolved Oxygen Depression Relationships
177(4)
The Dissolved Oxygen Depression Processes
177(1)
Analytical Solution of the Dissolved Oxygen Depression Relationship
178(1)
Reaeration Formulas for Streams
179(2)
The Water Quality Dissolved Particulate Eutrophication Model
181(14)
The Water Quality Dissolved Particulate Model Nutrient Cycles and Processes
181(1)
The Water Quality Dissolved Particulate Model Constituent Relationships
181(4)
Rates and Constants in the Water Quality Dissolved Particulate Model
185(1)
Higher-Order Water Quality Modeling
185(10)
Sediment Scour and Deposition Relationships
195(3)
Sediment Transport Relationships
195(1)
Definition of Sediment Rate
196(1)
Relationship Between Model Input Parameters
196(2)
Glossary 198(4)
References 202(5)
Index 207