DOE 1981 SPS And 6 Alternative Technologies

Cover 1
Title Page 3
Definitions of Unit Symbols 4
Table of Contents 5
Executive Summary 13
Alternative Technology Characterizations 16
Alternative Futures Scenarios 18
Cost and Performance 19
Development Costs 21
Health And Safety 22
Environmental Welfare 23
Resources/Macroeconomic/Institutional Issues 23
Conclusions 26
References for Executive Summary 36
1 Introduction 37
1.1 Background 37
1.2 Objective and Approach 37
2 Assessment Framework 40
2.1 Overview 40
2.2 Comparative Issues 40
2.3 Selection of Energy Alternatives 42
2.4 Charcterization of Energy Systems 43
2.5 Side-By-Side Analysis of Energy Systems 43
2.6 Alternatie Futures Analysis 45
2.7 Assessment Integration/Aggregation Techniques 46
3 Chracterizations of the SPS and ALternatie Technologies 47
3.1 Selection of Alternative Technologies 47
3.2 Brief Technical Description of Alternative Generation Systems 50
3.2.1 Satellite Power System 50
3.2.2 Central-Station Terrestrial Photovoltaic System 57
3.2.3 Conventional Coal-Fired Power Plant 58
3.2.4 Coal-Gasification/Combined-Cycle Power Plant 62
3.2.5 Light Water Reactor Power Plant 66
3.2.6 Liquid-Metal, Fast-Breeder Reactor 68
3.2.7 Fusion 73
3.3 Cost Characterizations 77
3.3.1 Satellite Power System 78
3.3.2 Conventional Coal-Fired Power Plant with Advanced Flue Gas Desulfurization (H-S Coal) 81
3.3.3 Combined-Cycle Power Plant with Low-Btu Gasifiers (CG/CC) 82
3.3.4 Light Water Reactor (LWR) 82
3.3.5 Liquid-Metal, Fast-Breeder Reactor (LMFBR) 83
3.3.6 Fusion Reactor (NUWMAK) 83
3.3.7 Central-Station Terrestrial Photovoltaic (TPV) 84
4 Comparative Analysis 85
4.1 Assumptions and Alternative Futures Scenarios 85
4.1.1 Assumptions of the Comparative Analysis 85
4.1.2 Alternative Futures Scenarios 87
4.2 Cost and Performance 104
4.2.1 Introduction 104
4.2.2 Uncertainty in Capital Cost Ranges for SPS and Alternatives 105
4.2.3 Fuel Price Projections 108
4.2.4 Cost Comparisons 110
4.2.5 Cost Sensitivity Analysis 115
4.2.6 Comparative Cost Uncertainty 123
4.3 Health and Safety 130
4.3.1 Introduction 130
4.3.2 Methodology 130
4.3.3 Discussion of Results 133
4.4 Environmental Welfare Effects 148
4.4.1 Introduction 148
4.4.2 Comparative Impacts 149
4.4.3 Generation of Air Pollution 157
4.4.4 Climatic Changes Due to Air Pollution 159
4.4.5 Thermal Discharges and Resulting Climatic Change 160
4.4.6 Water Pollution 161
4.4.7 Water Use Changes 161
4.4.8 Generation of Solid Waste 162
4.4.9 Land Use Changes 163
4.4.10 Noise Generation 163
4.4.11 Electromagnetic Disturbances 164
4.4.12 Radioactive Emissions 164
4.4.13 Microwave Radiation 165
4.4.14 Aesthetic Disturbances 165
4.5 Resources 165
4.5.1 Land 166
4.5.2 Materials 173
4.5.3 Energy 173
4.5.4 Water 178
4.5.5 Labor 180
4.6 Macroeconomic and Socioeconomic Issues 182
4.6.1 Introduction 182
4.6.2 Macroeconomic Analysis 183
4.6.3 Socioeconomic Comparisons 193
4.7 Institutional Issues 194
4.7.1 Introduction 194
4.7.2 Comparison of Present Regulatory Schemes 195
4.7.3 Regulatory Trends 203
4.7.4 Summary 204
5 Assessment Conclusions 205
5.1 Introduction 205
5.2 Side-By-Side Conclusions 205
5.3 Alternative Futures Conclusions of the Comparative Assessment 213
5.4 Concluding Remarks 218
References 219
Figures 7
Fig. 1 Fuel Price Projections for Different Scenarios 20
Fig. 2 Development Costs of the SPS 21
Fig. 3 Total Quantified Construction and O&M Fatalities per 1000 MW-yr 22
Fig. 4 Alternative Futures Analysis of Land Requirements 24
Fig. 5 Alternative Futures Analysis of Annual Water Consumption for Baseload Electricity Generation 25
Fig. 2.1 Analysis Sequence for Comparative Assessment 41
Fig. 2.2 Comparative Assessment Classification System 42
Fig. 3.1 Satellite Power System Concept 52
Fig. 3.2 SPS Satellite Configurations 53
Fig. 3.3 SPS Efficiency Chain GaAlAs 54
Fig. 3.4 Efficiency Chain of the Central-Station Photovoltaic System 57
Fig. 3.5 Generation of 1250 MW, High-Sulfur Coal, Wellman-Lord Process 59
Fig. 3.6 Wellman-Lord Process 61
Fig. 3.7 1250 MW Coal-Gasification/Combined-Cycle System 63
Fig. 3.8 Summary of Emissions from a 1250-MW, Low-Btu Gasifier, Combined-Cycle Plant 65
Fig. 3.9 Simplified LWR Flow Diagram 67
Fig. 3.10 1250 MW Liquid-Metal, Fast-Breeder Reactor 70
Fig. 3.11 Configurations of Pool- and Loop-typePrimary Coolant Systems 71
Fig. 3.12 Schematic of NUWMAK Fusion Power Plant 74
Fig. 3.13 Schematic of NUWMAK Load-Leveling System 75
Fig. 3.14 Tritium Effluent System Design 76
Fig. 3.15 Development Costs of the SPS 79
Fig. 4.1 U.S. Energy Output Ratios, 1929-1974,and Base Projections to 2025 88
Fig. 4.2 Simplified Macroeconomic Model of the Interaction between Energy and the Economy 89
Fig. 4.3 Ratio of Gross Energy/GNP 93
Fig. 4.4 Supply-Demand Patterns for Various Scenarios in the Year 2000 94
Fig. 4.5 Supply-Demand Patterns for Various Scenarios in the Year 2030 95
Fig. 4.6. Electrification as a Percentage of NetEnergy Use: Three Scenarios 96
Fig. 4.7 Delivered Oil Prices 97
Fig. 4.8 Delivered Natural Gas Prices 98
Fig. 4.9 Delivered Coal Prices 99
Fig. 4.10 Electricity Prices 100
Fig. 4.11 Cost and Performance Evaluation Framework 105
Fig. 4.12 Fuel Price Projections for Different Scenarios 112
Fig. 4.13 UgOg Prices for Constrained and Unconstrained Scenarios 113
Fig. 4.14 Typical Patterns of Costs and Revenue Requirements 114
Fig. 4.15 Levelized Energy Cost Ranges for Scenario UHb 117
Fig. 4.16 Levelized Energy Cost Ranges for Scenario UIb 118
Fig. 4.17 Levelized Energy Cost Ranges for Scenario CIa 119
Fig. 4.18 Total Energy Costs as a Function of Capacity 120
Fig. 4.19 Effect of Changes in Financial Assumptions on Relative Positions of Technologies 122
Fig. 4.20 Comparison of Coal and SPS Energy Costs with Fixed Parameters and Inputs 123
Fig. 4.21 Coal Prices (Constant Dollars) 124
Fig. 4.22 Real Coal Prince Increase 126
Fig. 4.23 Distributions of LevelizedFuel Cost and LevelizedCapital Charge of a CoalPlant 127
Fig. 4.24 Typical Cost Distribution for Advanced Technologies 127
Fig. 4.25 Distributions of the Sum of Cost Elements 128
Fig. 4.26 Probability Curves of SPS Costs Equalling Coal Costs 129
Fig. 4.27 Components of Comprehensive Healthand Safety Impact Analysis 131
Fig. 4.28 Procedure for Computation of Occupational Impacts of Direct and Indirect Construction and Component Production 132
Fig. 4.29 Direct and Indirect Occupational Fatalities fromUnit ($10^6) Facility Component Production 136
Fig. 4.30 Total Occupational Fatalities in Construction Phase of System with 1000 MW Average Generation 136
Fig. 4.31 Total Quantified Construction and O&M Fatalities per 1000 MW-yr 137
Table 4.24 Summary of Potentially Major but Unquantified Issues 146
Fig. 4.25 Distributions of the Sum of Cost Elements 128
Fig. 4.26 Probability Curves of SPS Costs Equalling Coal Costs 129
Fig. 4.27 Components of Comprehensive Healthand Safety Impact Analysis 131
Fig. 4.28 Procedure for Computation of Occupational Impacts of Direct and Indirect Construction and Component Production 132
Fig. 4.29 Direct and Indirect Occupational Fatalities from Unit ($10^6) Facility Component Production 136
Fig. 4.30 Total Occupational Fatalities in Construction Phaseof System with 1000 MW Average Generation 136
Fig. 4.31 Total Quantified Construction and O&M Fatalities per 1000 MW-yr 137
Fig. 4.32 Annual Occupational Fatalities from Construction and O&M in Baseload Scenarios with and without SPS 147
Fig. 4.33 Pathway of Energy Activities, Impacts, and Effects 150
Fig. 4.34 Land Requirements for Scenario CI, without SPS 169
Fig. 4.35 Land Requirements for Scenario CI, with SPS 169
Fig. 4.36 Land Requirements for Scenario UI, without SPS 170
Fig. 4.37 Land Requirements for Scenario UI, with SPS 170
Fig. 4.38 Land Requirements for Scenario UH, without SPS 171
Fig. 4.39 Land Requirements for Scenario UH, with SPS 171
Fig. 4.40 Alternative Futures Analysis of Land Requirements 172
Fig. 4.41 Schematic of Energy Balance 175
Fig. 4.42 Alternative Futures Analysis of Annual Water Consumption for Baseload Electricity Generation 179
Fig. 4.43 O&M and Fuel Cycle Labor Requirements 182
Table 4.43 Energy Use and Prices for 2025 Without SPS 185
Fig. 4.44 Coal Demand and Supply, Scenario CI 186
Fig. 4.45 Coal Demand and Supply, Scenario UI (2025) 186
Fig. 4.46. Coal Demand and Supply, Scenario UH (2025) 187
Fig. 4.47 Changes in Annual Energy Expenditures with and without SPS in 2025, as a Function of SPS Energy Price 189
Fig. 4.48 Changes in Energy Expenditures for 2000-2030 190
Tables 9
Table 1 Developmental Status of the Technologies Selected for Comparison 15
Table 2 Major Characteristics of Alternative Central Station Technologies 17
Table 3 Capital Cost Ranges for Technical and Regulatory Uncertainty 19
Table 4 Levelized Energy Cost Ranges for Scenario CIa 20
Table 5 Net Change in Annual Energy Expenditures Due to the SPS 26
Table 6 Cost and Performance: Key Issues, Uncertainties, and Comparative Conclusions 27
Table 7 Health and Safety: Key Issues, Uncertainties, and Comparative Conclusions 28
Table 8 Environmental Welfare: Key Issues, Uncertainties, and Comparative Conclusions 29
Table 9 Resources: Key Issues, Uncertainties, and Comparative Conclusions 30
Table 10 Econotnic/Societal Issues: Key Issues, Uncertainties, and Comparative Conclusions 31
Table 11 Institutional Issues: Key Issues, Uncertainties, and Comparative Conclusions 32
Table 12 Energy Supply Options 33
Table 13 Evaluation of Energy Supply Options S1-S3 for DemandScenario UH - Unconstrained, High Demand 34
Table 14 Evaluation of Energy Supply Options S4-S6 for DemandScenario CI - Constrained, Intermediate Demand 35
Table 2.1 Candidate Alternative Technologies 44
Table 3.1 Technologies Considered in Initial Screening 48
Table 3.2 Quantitative Screening of Energy Systems 49
Table 3.3 Characterization Parameters for Plant Site and Fuel Cycle 51
Table 3.4 SPS Cell and Planform Power Characteristics 55
Table 3.5 Air Pollutants from a 1250-MW Coal Facility 62
Table 3.6 Solid and Sludge Wastes from a 1250-MW Coal Facility, 70% Capacity Factor 62
Table 3.7 Postulated Radionuclide Releases, 1250-MW LMFBRPower Plant at 70%Capacity Factor 72
Table 3.8 LMFBR Wastewater Effluents at Nominal (1250 MW) Operation 73
Table 3.9 Capital Requirements of the SPS(5000 MW), 1978 Dollars x 106 80
Table 3.10 Operation and Maintenance Costsof the SPS (5000 MW) 81
Table 4.1. RFF Model Assumptions about Population, Labor Force, Productivity, and GNP, 1975-2025 90
Table 4.2 Constrained Energy Supplies (10^15 Btu) for Future Scenarios 91
Table 4.3. Assumed Long-Run Costs per Million Btu 92
Table 4.4 Nuclear Fuel Prices (1978 $/10$ Btu) for Future Scenarios 101
Table 4.5 Electrical Generation in Comparative Assessment Scenarios and Two Other Projections 101
Table 4.6 Total Installed and New-Construction Baseload Capacity (1000 MW) for Six Comparative Assessment Scenarios 102
Table 4.7 Energy System Deployment (GWof Capacity) for Scenario UH with and without SPS 102
Table 4.8 Energy System Deployment (GW of Capacity) for Scenario UI with and without SPS 103
Table 4.9 Energy System Deployment (GW of Capacity) for Scenario CI with and without SPS 103
Table 4.10 Capital Cost Uncertainty Factors for Alternative Technologies(Low, Nominal, and High Values) 107
Table 4.11 Capital Cost Ranges for Technical and Regulatory Uncertainty ($/kW) 109
Table 4.12 Fuel Cost Projections (1978 $/10$ Btu): Delivered Prices for Three Scenarios, 1980 to 2020 111
Table 4.13 Base Capital Structure and Economic Assumptions 115
Table 4.14 Levelized 2000-2030 Cost of Electricity from SPS and Alternative Technologies 116
Table 4.15 Effect of Reduced SPS Implementation Rate on Costs: Nominal Average Unit Costs 121
Table 4.16 Uncertainty Index for Health and Safety Issues 133
Table 4.17 Categorization of Health and Safety Issues 134
Table 4.18 Summary of Quantified Average Fatalities per Year per 1000 MW Generation, 30-Year Plant Lifetime 135
Table 4.19 Summary of Health and Safety Issues for Nuclear Fission Reactors (LWR, LMFBR) 138
Table 4.20 Summary of Health and Safety Issues for Combined-Cycle Coal System 140
Table 4.21 Summary of Health and Safety Issues for Central-Station Terrestrial Photovoltaic Power System 141
Table 4.22 Summary of Health and Safety Issues for Satellite Power System 142
Table 4.23 Summary of Health and Safety Issues for the Fusion Power System 144
Table 4.24 Summary of Potentially Major but Unquantified Issues 146
Table 4.25 Scenario Baseload Capacities and Electrical Genera 148
Table 4.26 Welfare Effects of a Conventional Coal Fuel Cycle 151
Table 4.27 Welfare Effects of a Light Water Reactor Fuel Cycle 152
Table 4.28 Welfare Effects of a Coal-Gasification/Combined-Cycle Fuel Cycle 153
Table 4.29 Welfare Effects of a Liquid-Metal, Fast-Breeder Reactor Fuel Cycle 154
Table 4.30 Welfare Effects of a Terrestrial Photovoltaic Fuel Cycle3 155
Table 4.31 Welfare Effects of a Satellite Power System Fuel Cycle 156
Table 4.32 Welfare Effects of a Fusion Fuel Cycle 157
Table 4.33. Potential Severity of and Status of Knowledge about Key Environmental Welfare Issues 158
Table 4.34 Side-by-Side Comparative Assessments: Resources 167
Table 4.35 Land Requirements, by Technology, in km^2 per GW of Installed Capacity 168
Table 4.36 Land Requirements per Unit Energy Output 168
Table 4.37 Potential Materials Problems, by Technology, for Three Screening Criteria 174
Table 4.38 Summary of Energy Balance Data 177
Table 4.39 Water Consumption Datafor Energy Systems, 10^6m^3/GW/yr (installed) 179
Table 4.40 Labor Requirements for Specific Plant Designs 181
Table 4.41 Normalized Labor Requirements (per GW) 181
Table 4.42 Baseline Energy/Economic Data 185
Table 4.43 Energy Use and Prices for 2025 Without SPS 185
Table 4.44 Baseload and SPS Deployment Data 187
Table 4.45 Energy Use and Prices for 2025 with SPS Deployment at 60 mills/kWh 188
Table 4.46 Energy Expenditures with SPS at 60 mills/kWh and without SPS, for the year 2025 188
Table 4.47 Energy Technology Labor Requirements 193
Table 4.48 Justifications for Regulating Coal Technologiesat Each Level of Government 197
Table 4.49 Justifications for Regulating Light Water or Breeder Reactors at Each Level of Government 198
Table 4.50 Justifications for Regulating Terrestrial Photovoltaics at Each Level of Government 199
Table 4.51 Justifications for Regulating SPS at Each Level of Government 200
Table 4.52 Comparative Cost Estimates (in 1978 dollars) for Federal Regulationof Coal and Light Water Reactor Electricity Production Systems 202
Table 5.1 Cost and Performance: Key Issues, Uncertainties, and Comparative Conclusions 206
Table 5.2 Health and Safety: Key Issues, Uncertainties, and Comparative Conclusi 207
Table 5.3 Environmental Welfare: Key Issues, Uncertainties, and Comparative Conclusions 208
Table 5.4 Resources: Key Issues, Uncertainties, and Comparative Conclusions 209
Table 5.5 Economic/Societal Issues: Key Issues, Uncertainties, and Comparative Conclusions 210
Table 5.6 Institutional Issues: Key Issues, Uncertainties, and Comparative Conclusions 211
Table 5.7 Energy Supply Options 215
Table 5.8 Evaluation of Energy Supply Options S1-S3 for Demand Scenario UH - Unconstrained, High Demand 216
Table 5.9 Evaluation of Energy Supply Options S4-S6 for Demand Scenario CI - Constrained, Intermediate Demand 217

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