Mathematical Geoenergy
-15%
portes grátis
Mathematical Geoenergy
Discovery, Depletion, and Renewal
Pukite, Paul; Challou, Daniel; Coyne, Dennis
John Wiley & Sons Inc
02/2019
384
Dura
Inglês
9781119434290
15 a 20 dias
1272
Descrição não disponível.
Preface vii
1. Introduction to Mathematical Geoenergy 1
2. Stochastic Modeling 5
Part I: Depletion
3. Fossil Fuel Depletion Modeling 13
4. Discovering Oil Reserves 17
5. Analysis of Production and the Shock Model .41
6. Characterizing Discovery, Production, and Reserve Growth 61
7. Comparing the Oil Production Model to Data 85
8. Alternative Characterization and Models 109
9. Models for Future Production 131
Part II: Renewal
10. Energy Transition: Applying Probabilities and Physics 157
11. Wind Energy 167
12. Wave Energy 179
13. Geophysical Energy 205
14. Thermal Energy: Diffusion and Heat Content 213
15. Latent Energy: Hydrological Cycle 225
16. Gravitational Potential Energy: Terrain and Topography 233
17. Solar Energy: Thermodynamic Balance 267
18. Geoenergy Conversion .273
19. Dissipative Energy: Resilience, Durability, and Reliability 291
20. Dispersed Energy: Particulates and Transport in the Environment 305
21. Electromagnetic Energy: Noise and Uncertainty .319
Epilogue 327
Appendix A: The Effect and Role of Feedback 329
Appendix B: Using Pipes and Flow to Compute Convolution 331
Appendix C: Dispersion Analogies 333
Appendix D: Regional Oil Discovery and Production Profiles 341
Appendix E: Compartment Models 343
Appendix F: US Reserve Growth 345
Appendix G: Table of Acronyms 349
Index 351a
1. Introduction to Mathematical Geoenergy 1
2. Stochastic Modeling 5
Part I: Depletion
3. Fossil Fuel Depletion Modeling 13
4. Discovering Oil Reserves 17
5. Analysis of Production and the Shock Model .41
6. Characterizing Discovery, Production, and Reserve Growth 61
7. Comparing the Oil Production Model to Data 85
8. Alternative Characterization and Models 109
9. Models for Future Production 131
Part II: Renewal
10. Energy Transition: Applying Probabilities and Physics 157
11. Wind Energy 167
12. Wave Energy 179
13. Geophysical Energy 205
14. Thermal Energy: Diffusion and Heat Content 213
15. Latent Energy: Hydrological Cycle 225
16. Gravitational Potential Energy: Terrain and Topography 233
17. Solar Energy: Thermodynamic Balance 267
18. Geoenergy Conversion .273
19. Dissipative Energy: Resilience, Durability, and Reliability 291
20. Dispersed Energy: Particulates and Transport in the Environment 305
21. Electromagnetic Energy: Noise and Uncertainty .319
Epilogue 327
Appendix A: The Effect and Role of Feedback 329
Appendix B: Using Pipes and Flow to Compute Convolution 331
Appendix C: Dispersion Analogies 333
Appendix D: Regional Oil Discovery and Production Profiles 341
Appendix E: Compartment Models 343
Appendix F: US Reserve Growth 345
Appendix G: Table of Acronyms 349
Index 351a
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
<p>oil discovery; oil depletion modeling; oil depletion; oil depletion analysis; peak oil; peak oil modeling; peak oil interpretation; energy renewal; geoenergy; mathematical geoenergy modeling; geoenergy prediction models; renewable energy; renewable energy modeling; stochastic modeling; fossil fuel discovery; fossil fuel depletion; fossil fuel depletion modeling; oil reserve discovery; oil reserve modeling; oil production; oil production modeling; energy transition; geophysical energy; future energy production; future energy production modeling; oil reservoir sizing; logistic peak oil derivation; energy science; energy resource modeling; fossil fuel transition; energy use data; energy use analysis; energy use modeling; depletion forecasting; oil depletion interpretation; wind energy; wave energy; geophysical energy; thermal energy</p>
Preface vii
1. Introduction to Mathematical Geoenergy 1
2. Stochastic Modeling 5
Part I: Depletion
3. Fossil Fuel Depletion Modeling 13
4. Discovering Oil Reserves 17
5. Analysis of Production and the Shock Model .41
6. Characterizing Discovery, Production, and Reserve Growth 61
7. Comparing the Oil Production Model to Data 85
8. Alternative Characterization and Models 109
9. Models for Future Production 131
Part II: Renewal
10. Energy Transition: Applying Probabilities and Physics 157
11. Wind Energy 167
12. Wave Energy 179
13. Geophysical Energy 205
14. Thermal Energy: Diffusion and Heat Content 213
15. Latent Energy: Hydrological Cycle 225
16. Gravitational Potential Energy: Terrain and Topography 233
17. Solar Energy: Thermodynamic Balance 267
18. Geoenergy Conversion .273
19. Dissipative Energy: Resilience, Durability, and Reliability 291
20. Dispersed Energy: Particulates and Transport in the Environment 305
21. Electromagnetic Energy: Noise and Uncertainty .319
Epilogue 327
Appendix A: The Effect and Role of Feedback 329
Appendix B: Using Pipes and Flow to Compute Convolution 331
Appendix C: Dispersion Analogies 333
Appendix D: Regional Oil Discovery and Production Profiles 341
Appendix E: Compartment Models 343
Appendix F: US Reserve Growth 345
Appendix G: Table of Acronyms 349
Index 351a
1. Introduction to Mathematical Geoenergy 1
2. Stochastic Modeling 5
Part I: Depletion
3. Fossil Fuel Depletion Modeling 13
4. Discovering Oil Reserves 17
5. Analysis of Production and the Shock Model .41
6. Characterizing Discovery, Production, and Reserve Growth 61
7. Comparing the Oil Production Model to Data 85
8. Alternative Characterization and Models 109
9. Models for Future Production 131
Part II: Renewal
10. Energy Transition: Applying Probabilities and Physics 157
11. Wind Energy 167
12. Wave Energy 179
13. Geophysical Energy 205
14. Thermal Energy: Diffusion and Heat Content 213
15. Latent Energy: Hydrological Cycle 225
16. Gravitational Potential Energy: Terrain and Topography 233
17. Solar Energy: Thermodynamic Balance 267
18. Geoenergy Conversion .273
19. Dissipative Energy: Resilience, Durability, and Reliability 291
20. Dispersed Energy: Particulates and Transport in the Environment 305
21. Electromagnetic Energy: Noise and Uncertainty .319
Epilogue 327
Appendix A: The Effect and Role of Feedback 329
Appendix B: Using Pipes and Flow to Compute Convolution 331
Appendix C: Dispersion Analogies 333
Appendix D: Regional Oil Discovery and Production Profiles 341
Appendix E: Compartment Models 343
Appendix F: US Reserve Growth 345
Appendix G: Table of Acronyms 349
Index 351a
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
<p>oil discovery; oil depletion modeling; oil depletion; oil depletion analysis; peak oil; peak oil modeling; peak oil interpretation; energy renewal; geoenergy; mathematical geoenergy modeling; geoenergy prediction models; renewable energy; renewable energy modeling; stochastic modeling; fossil fuel discovery; fossil fuel depletion; fossil fuel depletion modeling; oil reserve discovery; oil reserve modeling; oil production; oil production modeling; energy transition; geophysical energy; future energy production; future energy production modeling; oil reservoir sizing; logistic peak oil derivation; energy science; energy resource modeling; fossil fuel transition; energy use data; energy use analysis; energy use modeling; depletion forecasting; oil depletion interpretation; wind energy; wave energy; geophysical energy; thermal energy</p>
