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9780262201537

Sustainable Energy : Choosing among Options

by ; ; ; ;
  • ISBN13:

    9780262201537

  • ISBN10:

    0262201534

  • Format: Hardcover
  • Copyright: 2005-07-01
  • Publisher: Mit Pr

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Summary

Human survival depends on a continuing energy supply, but the need for ever-increasing amounts of energy poses a dilemma: How can we provide the benefits of energy to the population of the globe without damaging the environment, negatively affecting social stability, or threatening the well-being of future generations? The solution will lie in finding sustainable energy sources and more efficient means of converting and utilizing energy. This textbook is designed for advanced undergraduate and graduate students as well as others who have an interest in exploring energy resource options and technologies with a view toward achieving sustainability. It clearly presents the trade-offs and uncertainties inherent in evaluating and choosing different energy options and provides a framework for assessing policy solutions. Sustainable Energyincludes illustrative examples, problems, references for further reading, and links to relevant Web sites. Outside the classroom, the book is a resource for government, industry, and nonprofit organizations. The first six chapters provide the tools for making informed energy choices. They examine the broader aspects of energy use, including resource estimation, environmental effects, and economic evaluations. Chapters 7-15 review the main energy sources of today and tomorrow, including fossil fuels, nuclear power, biomass, geothermal energy, hydropower, wind energy, and solar energy, examining their technologies, environmental impacts, and economics. The remaining chapters treat energy storage, transmission, and distribution; the electric power sector; transportation; industrial energy usage; commercial and residential buildings; and synergistic complex systems. Sustainable Energyaddresses the challenges of integrating diverse factors and the importance for future generations of the energy choices we make today.

Author Biography

Jefferson W. Tester is H.P. Meissner Professor of Chemical Engineering Elisabeth M. Drake is Associate Director of the Energy Laboratory, Emeritus Michael J. Driscoll is Professor of Nuclear Engineering, Emeritus Michael W. Golay is Professor of Nuclear Engineering William A. Peters is Executive Director of the Institute for Soldier Nanotechnologies, all at MIT

Table of Contents

Preface xvii
Acknowledgments xxi
Sustainable Energy---The Engine of Sustainable Development
1(50)
Sustainable Energy: The Engine of Sustainable Development
2(7)
Defining Energy---Scientific and Engineering Foundations
9(8)
Aspects of Energy Production and Consumption
17(7)
National and Global Patterns of Energy Supply and Utilization
24(8)
Environmental Effects of Energy---Gaining Understanding
32(9)
Confronting the Energy-Prosperity-Environmental Dilemma
41(4)
Mathematical Representations of Sustainability
45(2)
The Rest of This Book
47(4)
References
48(3)
Estimation and Evaluation of Energy Resources
51(36)
Units of Measurement: Energy and Power
52(2)
Comparison of Different Forms of Energy
54(2)
The Energy Lifecycle
56(8)
Estimation and Valuation of Fossil Mineral Fuels, Especially Petroleum
64(18)
Asking the right questions and avoiding the unanswerable ones
64(1)
Perspectives from mineral geology
65(1)
Two interpretations of hydrocarbon fuel economics
66(7)
Categories of reserves
73(2)
Forecasting mineral fuel prices and supplies
75(4)
Geopolitical factors and energy supply ``crises''
79(3)
Lessons for Sustainable Development
82(1)
Summary and Conclusions
83(4)
References
83(4)
Technical Performance: Allowability, Efficiency, Production Rates
87(50)
Relation to Sustainability
88(2)
An Introduction to Methods of Thermodynamic Analysis
90(25)
Allowability, efficiency, and the Second Law
90(2)
More about entropy
92(6)
Analysis of ideal (Carnot) heat engines
98(2)
Analysis of real world (irreversible) heat engines
100(15)
The Importance of Rate Processes in Energy Conversion
115(1)
Chemical Rate Processes
116(4)
The Physical Transport of Heat
120(9)
Foundations for quantitative analysis
120(2)
Thermal conduction
122(1)
Convective heat transfer
123(1)
Radiative heat transmission
124(4)
Heat transfer by tandem mechanisms
128(1)
Use and Abuse of Time Scales
129(2)
Energy Resources and Energy Conversion---Fertile Common Ground
131(6)
References
131(3)
Problems
134(3)
Local, Regional, and Global Environmental Effects of Energy
137(70)
How Energy Systems Interact with the Environment
138(9)
Known and potential environmental threats
138(2)
Origin of harmful agents
140(3)
Length and time scales for environmental impacts
143(4)
Adverse Environmental Effects Over Local and Regional Length Scales
147(11)
Ambient air pollution
147(9)
Adulteration of soil, water, and indoor air
156(1)
Transport and transformation of air, ground, and water contamination
157(1)
Global Climate Change: Environmental Consequences over Planetary-Length Scales
158(26)
Introduction
158(2)
Basic science of the greenhouse effect
160(7)
Energy and the greenhouse effect
167(5)
Greenhouse consequences: Consensus, unknowns, misconceptions
172(6)
Technological and policy response strategies: Evolutionary and revolutionary
178(6)
Attribution of Environmental Damage to Energy Utilization
184(7)
Diagnosing receptor jeopardy and injury
185(5)
Source identification
190(1)
Risk and uncertainty
191(1)
Methods of Environmental Protection
191(5)
Energy and the environment as an ensemble of coupled complex systems
191(1)
Earth-system ecology as a working paradigm
192(3)
Public policy instruments
195(1)
Technological remedies
196(1)
Environmental Benefits of Energy
196(1)
Pollution prevention and environmental restoration
196(1)
Social and economic foundations for environmental stewardship
197(1)
Implications for Sustainable Energy
197(10)
Environmental footprints as sustainability metrics
197(1)
The unusual challenge of global climate change
198(1)
Problems
199(1)
Appendix: Lessons from SO2 Emissions Trading
200(3)
References
203(4)
Project Economic Evaluation
207(52)
Introduction
208(3)
Time Value of Money Mechanics
211(11)
Basic aspects
211(2)
Application to a typical cash flow scenario
213(2)
Derivation of relations
215(5)
Pitfalls, errors, and ambiguities
220(2)
Current versus Constant-Dollar Comparisons
222(3)
Simple Payback
225(1)
Economy of Scale and Learning Curve
225(4)
Allowing for Uncertainty
229(3)
Overview
229(1)
Analytic uncertainty propagation
229(1)
The Monte Carlo method
230(2)
Decision tree method
232(1)
Accounting for Externalities
232(7)
Energy Accounting
239(2)
Modeling Beyond the Project Level
241(2)
Chapter Summary
243(16)
Appendix A
245(2)
Appendix B
247(4)
References
251(3)
Problems
254(5)
Energy Systems and Sustainability Metrics
259(36)
Introduction and Historical Notes
260(3)
Energy from a Systems Perspective
263(8)
Systems Analysis Approaches
271(8)
Lifecycle analysis
273(2)
Simulation models
275(1)
Risk-based models
276(3)
Measures of Sustainability
279(5)
General indicators of sustainability
280(2)
Categories of indicators
282(2)
Drivers of Societal Change
284(3)
Some General Principles of Sustainable Development
287(8)
References
289(3)
Web Sites of Interest
292(1)
Problems
292(3)
Fossil Fuels and Fossil Energy
295(66)
Introduction
296(6)
Definition and types of fossil fuels
296(4)
Historical and current contributions of fossil fuels to human progress
300(2)
Sustainability: Challenges and opportunities
302(1)
The Fossil Fuel Resource Base
302(4)
How long will fossil fuels last?
302(1)
``Unconventional'' naturally occurring fossil fuels
303(2)
Fossil resources and sustainability
305(1)
Harvesting Energy and Energy Products from Fossil Fuels
306(23)
Exploration, discovery, and extraction of fuels
306(1)
Fuel storage and transportation
306(1)
Fuel conversion
307(10)
Fuel combustion
317(7)
Direct generation of electricity: Fuel cells
324(5)
Manufacture of chemicals and other products
329(1)
Environmental Impacts
329(8)
Pollutant sources and remedies: The fuel itself
329(3)
Pollutant sources and remedies: Combustion pathologies
332(1)
Pollutant sources and remedies: Carbon management
333(4)
Geopolitical and Sociological Factors
337(4)
Globalization of fossil energy sources
337(1)
Equitable access, Revenue scaffolds, ``American Graffiti''
338(3)
Economics of Fossil Energy
341(5)
Some Principles for Evaluating Fossil and Other Energy Technology Options
346(7)
Emerging Technologies
353(1)
Closure: Why Are Fossil Fuels Important to Sustainable Energy?
353(8)
References
355(4)
Problems
359(2)
Nuclear Power
361(46)
Nuclear History
362(2)
Physics
364(1)
Nuclear Reactors
364(4)
Burning and Breeding
368(1)
Nuclear Power Economics
369(1)
The Three Mile Island 2 Nuclear Power Plant Accident
370(2)
Reactor Safety
372(2)
Light-Water Reactors (LWR)
374(1)
Pressurized-Water Reactor (PWR) Technologies
374(3)
Boiling-Water Reactor (BWR) Technology
377(1)
RBMK Reactors
377(3)
Heavy-Water Cooled Technologies
380(1)
Gas-Cooled Reactor Technologies
380(4)
Liquid-Metal Reactor Technologies
384(1)
Actinide Burning
385(2)
Advanced Reactors
387(1)
Nuclear Power Fuel Resources
387(2)
Fuel Cycle
389(8)
Uranium mining
390(1)
Uranium milling
390(1)
Conversion
391(1)
Enrichment
391(1)
Fuel fabrication
392(1)
Spent fuel
392(1)
Reprocessing
393(1)
High Level Wastes (HLW) disposal
394(3)
Fusion Energy
397(7)
Introduction
397(1)
Why is fusion more difficult than fission?
398(2)
Magnetic fusion energy
400(1)
Inertial fusion energy
401(1)
Prospects for the future
402(2)
Future Prospects for Nuclear Power
404(3)
References
405(1)
Additional Resources
406(1)
Renewable Energy in Context
407(12)
Introduction and Historical Notes
408(2)
Resource Assessment
410(2)
Environmental Impacts
412(1)
Technology Development and Deployment
413(1)
The Importance of Storage
414(1)
Connecting Renewables to Hydrogen
414(1)
The Future for Renewable Energy
415(1)
Additional Resources
416(3)
References
416(3)
Biomass Energy
419(34)
Characterizing the Biomass Resource
420(4)
Biomass Relevance to Energy Production
424(5)
Utilization options
424(1)
Advantages and disadvantages
424(3)
More on resources
427(2)
Chemical and Physical Properties Relevant to Energy Production
429(1)
Biomass Production: Useful Scaling Parameters
430(2)
Thermal Conversion of Biomass
432(5)
Biomass to electricity
432(2)
Biomass to fuels
434(3)
Bioconversion
437(3)
Introduction
437(1)
Biogas
437(3)
Fermentation ethanol from corn and cellulosic biomass
440(1)
Environmental Issues
440(3)
Economics
443(1)
Enabling Research and Development
444(1)
Disruptive Technology
444(2)
Summary
446(7)
References
446(3)
Web Sites of Interest
449(1)
Problems
449(4)
Geothermal Energy
453(66)
Characterization of Geothermal Resource Types
454(10)
Definition in general
454(3)
Natural hydrothermal systems
457(2)
Geopressured systems
459(1)
Hot dry rock
459(2)
Magma
461(1)
Ultra low-grade systems
461(1)
Markets for geothermal energy
462(2)
Geothermal Resource Size and Distribution
464(4)
Overall framework and terminology
464(1)
Quality issues
465(1)
Resource base and reserve estimates
466(2)
Practical Operation and Equipment for Recovering Energy
468(19)
Drilling and field development
468(1)
Reservoir fluid production
469(4)
Non-electric, direct-heat utilization
473(4)
Electric power generation
477(4)
Equipment
481(4)
Power cycle performance
485(2)
Sustainability Attributes
487(4)
Reservoir lifetime issues
487(1)
Environmental impacts
488(2)
Dispatchable heat and power delivery
490(1)
Suitability for developing countries
490(1)
Potential for CO2 reduction and pollution prevention
490(1)
Status of Geothermal Technology Today
491(14)
Hydrothermal
491(4)
Advanced systems
495(10)
Competing in Today's Energy Markets
505(3)
Research and Development Advances Needed
508(2)
Potential for the Long Term
510(9)
References
510(7)
Web Sites of Interest
517(1)
Problems
517(2)
Hydropower
519(24)
Overview of Hydropower
520(2)
Hydropower Resource Assessment
522(3)
Basic Energy Conversion Principles
525(2)
Conversion Equipment and Civil Engineering Operations
527(4)
Civil engineering aspects of dam construction and waterway management
527(2)
Turbines as energy convertors
529(2)
Sustainability Attributes
531(4)
Status of Hydropower Technology Today
535(8)
Economic issues
535(2)
Potential for growth
537(1)
Advanced technology needs
538(2)
References
540(2)
Web Sites of Interest
542(1)
Problems
542(1)
Solar Energy
543(46)
General Characteristics of Solar Energy
544(1)
Resource Assessment
544(10)
Passive and Active Solar Thermal Energy for Buildings
554(7)
Motivation and general issues
554(1)
Passive systems
555(1)
Active systems
556(3)
Economic and policy issues
559(2)
Solar Thermal Electric Systems---Concentrating Solar Power
561(11)
Fundamentals and options
561(1)
Power tower---central receiver systems
562(3)
Parabolic troughs
565(3)
Dish engine systems
568(1)
Current status and future potential of CSP
569(3)
Solar Photovoltaic (PV) Systems
572(10)
Solid state physical chemistry fundamentals
573(2)
Performance limits and design options
575(3)
Silica-based systems (crystalline and amorphous)
578(1)
Copper indium diselenide (CIS)
579(1)
Cadmium telluride (CdTe)
579(1)
Current status and future potential of PV
580(2)
Sustainability Attributes
582(2)
Summary and Prognosis
584(5)
References
585(1)
Web Sites of Interest
586(1)
Problems
587(2)
Ocean Waves, Tide, and Thermal Energy Conversion
589(24)
Introduction
590(1)
Energy from the Tides
590(7)
Energy from the Waves: Overview
597(2)
Energy from Temperature Differences
599(5)
Overview
599(1)
Performance limits
600(2)
OTEC technology
602(2)
Economic Prospects
604(1)
Environmental and Sustainability Considerations
605(1)
The Ocean as an Externalities Sink
606(1)
Current Status and Future Prospects
606(7)
References
607(2)
Web Sites of Interest
609(1)
Problems
609(2)
Appendix
611(2)
Wind Energy
613(34)
Introduction and Historical Notes
614(3)
Wind Resources
617(10)
Wind quality
619(3)
Variation of wind speed with elevation
622(2)
Air density
624(1)
Maximum wind turbine efficiency: The Betz ratio
624(3)
Wind Machinery and Generating Systems
627(4)
Overview
627(1)
Rotor blade assembly
627(3)
Tower
630(1)
Nacelle components
630(1)
Balance-of-station subsystems
630(1)
System design challenges
631(1)
Wind Turbine Rating
631(1)
Wind Power Economics
632(3)
Measures of Sustainability
635(2)
Net energy analysis
635(1)
Cost of externalities
635(1)
Environmental impact of wind power
636(1)
Current Status/Future Prospects
637(10)
References
640(2)
Web Sites of Interest
642(1)
Problems
642(3)
Appendix
645(2)
Storage, Transportation, and Distribution of Energy
647(46)
Overview of Energy Supply Infrastructure Needs
648(3)
Connected Efficiencies and Energy Chains
651(2)
Modes of Energy Storage
653(17)
General characteristics
653(5)
Energy storage technologies
658(12)
Energy Transmission
670(8)
General characteristics of energy transmission systems
670(1)
Oil transport
671(3)
Natural gas transport
674(1)
Coal transport
675(1)
Electric power transmission
676(2)
Energy Distribution Systems
678(5)
General characteristics of central versus distributed systems
678(3)
Combined heat and power opportunities
681(2)
Applications to renewable energy systems and hybrids
683(1)
Sustainability Attributes
683(1)
Improved resource utilization
683(1)
Environmental, safety, and health concerns
683(1)
Economic and operational attributes
684(1)
Opportunities for Advancement of Sustainable Energy Infrastructures
684(9)
References
686(2)
Web Sites of Interest
688(1)
Problems
688(5)
Electric Power Sector
693(34)
Introduction and Historical Perspectives
694(4)
Power Generation
698(12)
Electric energy
698(2)
Centralized energy generation
700(1)
Electric power generation
700(1)
Environmental effects of electricity production
701(3)
Power plant siting requirements
704(1)
Electricity economics
705(2)
Ways of organizing the electric economy
707(1)
Demand-side management (DSM) and distributed generation
708(1)
Electricity transmission and distribution and economic deregulation
708(2)
An Example of Electric Industry Planning Using Multiattribute Assessment Tools
710(5)
Energy Market Impacts on Electricity Generation Options
715(4)
Sustainability Issues
719(8)
References
724(1)
Web Sites of Interest
725(1)
Problems
726(1)
Transportation Services
727(34)
Introduction and Historical Perspectives
728(5)
Elements of the Transportation System
733(2)
Transportation Fuels and the Fuel Cycle
735(4)
Personal Vehicles
739(5)
Historical perspectives
739(2)
Looking forward
741(3)
A Lifecycle Comparison of Road Transport Alternatives for 2020
744(8)
Freight Vehicles
752(1)
Interurban and Intercontinental Transport
753(1)
Motorization Trends
753(2)
Sustainability Issues
755(6)
References
757(1)
Web Sites of Interest
758(1)
Problems
758(3)
Industrial Energy Usage
761(16)
Introduction and Historical Perspectives
762(1)
Lifecycle Analysis and Design for Sustainability
763(3)
Metals Industries
766(1)
Cement and Lime Industries
767(2)
Chemical Industries
769(1)
Forest Products and Agriculture
770(2)
Waste Management Industries
772(1)
Sustainability Issues
773(4)
References
774(1)
Web Sites of Interest
775(1)
Problems
775(2)
Commercial and Residential Buildings
777(20)
Introduction and Historical Perspectives
778(2)
Lifecycle Analysis
780(4)
Residential Building Design
784(5)
Commercial Buildings
789(2)
Indoor Air Quality
791(1)
Sustainability Issues
792(5)
References
794(1)
Web Sites of Interest
795(1)
Problems
795(2)
Synergistic Complex Systems
797(26)
Introduction and Historical Notes
798(2)
The Complex Systems View
800(6)
Expert panels
801(1)
Decision analysis techniques
802(3)
Negotiation
805(1)
How are decisions really made?
805(1)
Some Case Studies
806(10)
Beyond the Limits (Meadows et al., 1992)
807(4)
Which World? (Hammond, 1998)
811(1)
MIT Joint Program on the Science and Policy of Global Change: Integrated Global Climate Model
812(4)
Transitional Pathways
816(1)
The Challenge to Society
817(6)
References
819(1)
Web Sites of Interest
820(1)
Problems
821(2)
Choosing Among Options
823(4)
Conversion Factors 827(4)
List of Acronyms 831(6)
Index 837

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