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9780521807258

Innovative Energy Strategies for Co2 Stabilization

by
  • ISBN13:

    9780521807258

  • ISBN10:

    0521807255

  • Format: Hardcover
  • Copyright: 2002-08-19
  • Publisher: Cambridge University Press

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Summary

The vast majority of the world’s climate scientists believe that the build-up of heat-trapping CO2 in the atmosphere will lead to global warming unless we burn less fossil fuels. At the same time, energy must be supplied in increasing amounts for the developing world to continue its growth. This book discusses the feasibility of increasingly efficient energy use and the potential for supplying energy from sources that do not introduce CO2. The book analyzes the prospects for Earth-based renewables: solar, wind, biomass, hydroelectricity, geothermal and ocean energy. It then discusses nuclear fission and fusion, and the relatively new idea of harvesting solar energy on satellites or lunar bases. It will be essential reading for all those interested in energy issues, including engineers and physicists (electrical, mechanical, chemical, industrial, environmental, nuclear), and industrial leaders and politicians. It will also be used as a supplementary textbook on advanced courses on energy.

Author Biography

Gene D. Berry: Energy Analysis, Policy and Planning, Lawrence Livermore National Laboratory David R. Criswell: Institute of Space Systems Operations, University of Houston Hadi Dowlatabadi: Center for Integrated Study of the Human Dimensions of Climate Change, Carnegie Mellon University Susan J. Hassol: Aspen Global Change Institute Atul K. Jain: Department of Atmospheric Sciences, University of Illinois Patrick Keegan: National Renewable Energy Laboratory David W. Keith: Department of Engineering and Public Policy, Carnegie Mellon University Robert Krakowski: Systems Engineering & Integration Group, Los Alamos National Laboratory Alan D. Lamont: Energy Analysis, Policy and Planning, Lawrence Livermore National Laboratory Robert J. Lempert: RAND Arthur W. Molvik: Fusion Energy Division, Lawrence Livermore National Laboratory John L. Perkins: Fusion Energy Division, Lawrence Livermore National Laboratory Michael E. Schlesinger: Department of Atmospheric Sciences, University of Illinois Walter Short: National Renewable Energy Laboratory Neil D. Strachan: Center for Integrated Study of the Human Dimensions of Climate Change, Carnegie Mellon University Robert G. Watts: Department of Mechanical Engineering, Tulane University Richard Wilson: Department of Physics, Harvard University Donald J. Wuebbles: Department of Atmospheric Sciences, University of Illinois

Table of Contents

List of contributors
xi
Concerns about Climate Change and Global Warming
1(26)
Donald J. Wuebbles
Atul K. Jain
Robert G. Watts
Introduction
1(1)
The Changing Climate
2(3)
The Changing Atmospheric Composition
5(6)
Radiative Forcing and Climate Change
11(7)
Potential Impacts of Climate change
18(2)
Policy Considerations
20(3)
Conclusions
23(4)
References
24(3)
Posing the Problem
27(18)
Robert G. Watts
Scenarios
27(3)
Energy Implications of the Scenarios
30(8)
An Engineering Problem
38(7)
References
43(2)
Adaptive Strategies for Climate Change
45(42)
Robert J. Lempert
Michael E. Schlesinger
Introduction
45(2)
The Case for Adaptive-Decision Strategies
47(4)
Assessing Adaptive-Decision Strategies
51(7)
Design of Adaptive-Decision Strategies
58(20)
Conclusions
78(9)
References
82(5)
Energy Efficiency: a Little Goes a Long Way
87(36)
Susan J. Hassol
Neil D. Strachan
Hadi Dowlatabadi
Introduction
87(3)
What is Energy Efficiency?
90(2)
Historical Trends and Future Predictions
92(5)
Developing Nations and Uncertainty in Future Energy Use
97(4)
Viewpoints on Energy Efficiency
101(1)
The Development of Energy Efficient Technologies
102(2)
Adoption of Energy Efficiency
104(3)
Policy Aspects of Energy Efficiency
107(4)
Efficiency Case Studies
111(5)
Conclusions
116(7)
References
118(5)
The Potential of Renewable Energy to Reduce Carbon Emissions
123(58)
Walter Short
Patrick Keegan
Introduction and Overview
123(2)
Characteristics of Renewable Energy Technologies
125(20)
Market Issues
145(13)
Regional Status and Potential of Renewables to Address Climate Change
158(9)
Scenarios for the Future
167(1)
System-level Deployment
168(5)
Policy Requirements
173(8)
References
177(4)
Carbonless Transportation and Energy Storage in Future Energy Systems
181(30)
Gene D. Berry
Alan D. Lamont
Carbonless Energy Carriers
181(6)
Transition Paths Toward Carbonless Energy
187(11)
Hydrogen Transportation Technology
198(2)
Displacing Natural Gas from Transportation
200(2)
Alternatives to Hydrogen Energy Storage
202(1)
Hydrogen Vehicles as Buffer Energy Storage
203(1)
Strategies for Reducing Carbon Emissions
203(8)
References
204(2)
Appendices
206(5)
What Can Nuclear Power Accomplish to Reduce CO2 Emissions
211(114)
Robert Krakowski
Richard Wilson
Overview
211(7)
Background
218(26)
Public Acceptance
244(10)
Future Directions
254(31)
Incorporating Nuclear Energy into Energy-Economic-Environmental (E3) Models
285(13)
Conclusion: A Possible Future for Nuclear Energy
298(27)
List of Abbreviations
302(5)
References
307(8)
Appendices
315(10)
Nuclear Fusion Energy
325(20)
Arthur W. Molvik
John L. Perkins
Introduction
325(2)
Potential of Fusion
327(4)
Approaches to Fusion Energy
331(9)
Where to from Here?
340(5)
List of Abbreviations
342(1)
References
342(3)
Energy Prosperity Within the Twenty-first Century and Beyond: Options and the Unique Roles of the Sun and the Moon
345(66)
David R. Criswell
Summary
345(1)
Twenty-first Century Challenges: People, Power and Energy
345(4)
Sources to Supply 60 TWt or 20 TWe Commercial Power by 2050
349(35)
Lunar Solar Power (LSP) System
384(9)
LSP System Versus Other Power System Options at 20 Twe
393(7)
Implications of the Lunar Solar Power System
400(11)
Acknowledgements
402(1)
Definitions of Special Terms
403(2)
References and Notes
405(6)
Geoengineering the Climate: History and Prospect
411(43)
David W. Keith
Introduction
411(1)
Defining Geoengineering
412(2)
History
414(11)
Taxonomy and Review of Proposals to Manipulate the Climate
425(12)
Evaluating Geoengineering
437(10)
Summary and Implications
447(7)
Acknowledgment
449(1)
References
450(4)
Index 454

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