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      National Power Survey . 1970(1) - 1970(3)

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      목차 (Table of Contents)

      • [Volume. 1970(1)]----------
      • CONTENTS
      • Preface = Ⅰ-ⅲ
      • CHAPTER I : SUMMARY
      • Assessment of the U. S. Electric Power Situation = Ⅰ-1-1
      • [Volume. 1970(1)]----------
      • CONTENTS
      • Preface = Ⅰ-ⅲ
      • CHAPTER I : SUMMARY
      • Assessment of the U. S. Electric Power Situation = Ⅰ-1-1
      • General = Ⅰ-1-1
      • Areas of Problems and Progress = Ⅰ-1-1
      • Why Quality of Service is Critical = Ⅰ-1-4
      • Major Needs and Imperatives = Ⅰ-1-5
      • The Need to Recognize the Situation for What it is = Ⅰ-1-5
      • The Need to Distinguish Between Short-Range Problems and Long-Range Objectives = Ⅰ-1-5
      • The Need for improved Site Selection Procedures = Ⅰ-1-6
      • The Need for a National Energy Policy = Ⅰ-1-6
      • The Need for Intensified Research and Development = Ⅰ-1-8
      • Financial Imperatives = Ⅰ-1-9
      • Summary of Survey Findings = Ⅰ-1-10
      • Introduction = Ⅰ-1-10
      • Structure of the Power Industry = Ⅰ-1-10
      • General = Ⅰ-1-10
      • Observations = Ⅰ-1-12
      • The Demand Outlook = Ⅰ-1-12
      • The 1964 Outlook = Ⅰ-1-12
      • The 1970 Outlook = Ⅰ-1-12
      • Major Demand Components = Ⅰ-1-13
      • Discussion = Ⅰ-1-13
      • The Supply Outlook = Ⅰ-1-14
      • The Situation in 1964 = Ⅰ-1-14
      • Changes in Conditions = Ⅰ-1-15
      • The 1970 Survey Findings = Ⅰ-1-16
      • Capacity = Ⅰ-1-16
      • Fuel Supplies = Ⅰ-1-19
      • Transmission = Ⅰ-1-21
      • Reliability = Ⅰ-1-21
      • The Relationship Between Power and the Environment = Ⅰ-1-22
      • The 1964 Outlook = Ⅰ-1-22
      • 1970 Survey Findings = Ⅰ-1-22
      • Air Quality (Fossil Fuels) = Ⅰ-1-23
      • Air Quality (Nuclear Fuels) = Ⅰ-1-24
      • Water Quality = Ⅰ-1-25
      • Land Use = Ⅰ-1-26
      • Esthetics = Ⅰ-1-27
      • General = Ⅰ-1-27
      • Research And Development Needs = Ⅰ-1-28
      • General = Ⅰ-1-28
      • organizational Mechanisms = Ⅰ-1-29
      • Financing Mechanisms = Ⅰ-1-33
      • The Price Outlook = Ⅰ-1-33
      • The 1964 Survey Outlook = Ⅰ-1-33
      • The 1970 Survey Outlook = Ⅰ-1-34
      • TABLES
      • 1.1 Categories of Electric Power Use = Ⅰ-1-13
      • 1.2 Projected Growth of Utility Generating Capacity = Ⅰ-1-17
      • 1.3 Distribution of Generating Capacity = Ⅰ-1-18
      • 1.4 Projected Distribution of Fuel Use For Thermal Power Generation 1970-1990 = Ⅰ-1-19
      • 1.5 Projected Annual Fuel Requirements For Thermal Power Generation = Ⅰ-1-20
      • 1.6 Estimated Nationwide Discharges of Airborne Pollutants-1968 = Ⅰ-1-23
      • 1.7 Major Research and Development Needs in the Field of Electric Power = Ⅰ-1-30
      • 1.8 Cost of Electricity to Ultimate Consumer = Ⅰ-1-34
      • FIGURES
      • 1.1 The Electric Power Industry-1970 = Ⅰ-1-11
      • CHAPTER 2 : STRUCTURE OF THE ELECTRIC POWER INDUSTRY
      • Historical Background of the Industry = Ⅰ-2-1
      • Ownership and Structure = Ⅰ-2-2
      • Investor-Owned Systems = Ⅰ-2-4
      • Federal Systems = Ⅰ-2-5
      • Public Non-Federal Systems = Ⅰ-2-5
      • Cooperative Systems = Ⅰ-2-6
      • Changes in Industry Size, Structure, and Ownership = Ⅰ-2-7
      • Ceombination Electric and Gas Utilities = Ⅰ-2-8
      • Regulation = Ⅰ-2-9
      • TABLES
      • 2.1 Number of Electric Utility Systems by Class of Ownership = Ⅰ-2-2
      • 2.2 Number of Electric Utility Systems by Ownership Classification, Region, and i Function = Ⅰ-2-3
      • 2.3 Number of Electric Utility Systems in the Contiguous U. S. by Size and Ownership = Ⅰ-2-7
      • 2.4 Selected Characteristics of Classes A and B Investor-Owned Combination Utilities = Ⅰ-2-9
      • CHAPTER 3 : THE PROJECTED GROWTH IN THE USE OF ELECTRIC POWER
      • Introduction = Ⅰ-3-1
      • Characteristics of Electric Loads = Ⅰ-3-1
      • Demand For Electricity = Ⅰ-3-3
      • Cost Factors Influencing Demand for Electricity = Ⅰ-3-4
      • Environmental Protection = Ⅰ-3-5
      • Weather = Ⅰ-3-6
      • Potential Load Building Developments = Ⅰ-3-6
      • Industry = Ⅰ-3-6
      • Process Heating = Ⅰ-3-6
      • Electric-Arc Steel-Making Furnace = Ⅰ-3-6
      • Induction Heating in Steel Industry = Ⅰ-3-7
      • Electro-Organic Synthesis = Ⅰ-3-7
      • Other Industrial Applications = Ⅰ-3-7
      • Residential Electric Requirements = Ⅰ-3-8
      • Transportation = Ⅰ-3-9
      • The Electric Car = Ⅰ-3-9
      • Electrified Transport-Railroads = Ⅰ-3-10
      • Rapid Transit = Ⅰ-3-10
      • Outdoor Lighting = Ⅰ-3-11
      • Need For Load Projections = Ⅰ-3-11
      • National and Regional Projections = Ⅰ-3-12
      • Projections of Electric Energy Requirements and Peak Demands to 1990 = Ⅰ-3-13
      • Energy Requirements by Class of Use = Ⅰ-3-17
      • TABLES
      • 3.1 Electrically Heated Dwellings in the United States, 1964-I990 = Ⅰ-3-8
      • 3.2 Saturation Levels for Selected Electrical Appliances, Contiguous United States = Ⅰ-3-8
      • 3.3 Approximate Wattage Rating and Estimated Annual Kilowatt-Hour Consumption of Electrical Appliances Under Normal Use in 1969 = Ⅰ-3-9
      • 3.4 Comparison of Staff Econometric Study Results and Regional Advisory Committee Projections for Residential and Total Electric Utility Energy Requirements, 1980-1990 = Ⅰ-3-13
      • 3.5 Electric Utility Energy Requirements and Peak Loads by Power Supply Areas and Regions-1970, 1980, and 1990 = Ⅰ-3-14
      • 3.6 Annual Electric Energy Requirements by Class of Use, Contiguous United States = Ⅰ-3-18
      • 3.7 Projected Increases in Electric Energy Requirements by Class of Use, 1965-1990, Contiguous United States = Ⅰ-3-18
      • FIGURES
      • 3.1 Weekly Load Curve = Ⅰ-3-2
      • 3.2 Estimated 1970 Monthly Peak Demands-West and South Central Regions = Ⅰ-3-3
      • 3.3 Annual Production of Electric Energy Per Capita-Utility and Industrial = Ⅰ-3-3
      • 3.4 U. S. Energy Consumption, 1920-1990 = Ⅰ-3-4
      • 3.5 Growth of Electricity Production and Gross National Product, 1929-1990 = Ⅰ-3-13
      • 3.6 National Power Survey Regions and Power Supply Areas = Ⅰ-3-16
      • 3.7 Electric Utility Energy Requirements, 1880-1990 = Ⅰ-3-17
      • CHAPTER 4 : FOSSIL FUELS AND FUEL TRANSPORT
      • Fuel Requirements = Ⅰ-4-1
      • Coal = Ⅰ-4-2
      • Coal Resources = Ⅰ-4-4
      • Coal Distribution = Ⅰ-4-5
      • Physical Characteristics of Deposits = Ⅰ-4-6
      • Chemical Properties and Their Effect on Coal's Competitive Position = Ⅰ-4-7
      • Low-Sulfur Coal for Electric Utilities = Ⅰ-4-8
      • Mine-Mouth Plants = Ⅰ-4-10
      • Coal Conversion = Ⅰ-4-10
      • Natural Gas = Ⅰ-4-12
      • National Gas Survey = Ⅰ-4-14
      • Natural Gas Resources = Ⅰ-4-15
      • Plowshare Program = Ⅰ-4-16
      • Natural Gas Imports = Ⅰ-4-I6
      • Residual Fuel Oil = Ⅰ-4-17
      • Residual Fuel Oil Supply = Ⅰ-4-17
      • Oil Import Control Program = Ⅰ-4-19
      • Low-Sulfur Residual Oil for the Electric Power Industry = Ⅰ-4-19
      • Oil Shale = Ⅰ-4-20
      • Fuel Transport = Ⅰ-4-20
      • Coal Transport = Ⅰ-4-21
      • Rail Transport = Ⅰ-4-21
      • Water Transport = Ⅰ-4-21
      • Pipeline-Slurry Transport = Ⅰ-4-22
      • Transportation of Natural Gas = Ⅰ-4-24
      • Liquefied Natural Gas (LNG) = Ⅰ-4-24
      • International Transport = Ⅰ-4-24
      • Ocean Transport of Residual Fuel Oil = Ⅰ-4-25
      • Interfuel Competition = Ⅰ-4-25
      • Factors Affecting InterfueI Competition = Ⅰ-4-26
      • Air Pollution = Ⅰ-4-26
      • High-Voltage Transmission = Ⅰ-4-26
      • Transport Limitations = Ⅰ-4-27
      • Nature of Fuel Demand by Electric Utilities = Ⅰ-4-27
      • Characteristics of the Fuel Supply Market = Ⅰ-4-27
      • International Trade = Ⅰ-4-28
      • Regional Outlook = Ⅰ-4-28
      • TABLES
      • 4.1 Annual Consumption of Fossil Fuels by Electric Utility Power Plants, 1961-1970 and Projected to 1990 = l-4-2
      • 4.2 Total Domestic and Utility Consumption of Coal, 1961-1970 = Ⅰ-4-3
      • 4.3 Coal Production from Strip and Auger Mines = Ⅰ-4-4
      • 4.4 Coal Prices-1965, 1968, and 1969 = Ⅰ-4-4
      • 4.5 Total Estimated Remaining Coal Resources of the United States, January 1, 1967 = Ⅰ-4-5
      • 4.6 The Remaining U. S. Coal Resources by Basin or Region, and by Thickness of Beds, January 1, 1967 = Ⅰ-4-7
      • 4.7 Remaining Coal Reserves of the United States, by Type, Sulfur Content, and State, January 1, 1965 = Ⅰ-4-9
      • 4.8 Units of 500-Megawatt Capacity and Over in Mine-Mouth Electric Plants = Ⅰ-4-11
      • 4.9 Process Summary for Synthetic Pipeline-Gas Plants = Ⅰ-4-13
      • 4.10 Economics of Synthetic Pipeline-Gas Processes, Summary = Ⅰ-4-13
      • 4.11 Total Domestic and Utility Consumption of Natural Gas, 1961-1970 = Ⅰ-4-14
      • 4.12 Estimated Total Proved Recoverable Reserves of Natural Gas in the United States = Ⅰ-4-15
      • 4.13 Total Domestic and Utility Consumption of Fuel Oil, 1961-1970 = Ⅰ-4-17
      • 4.14 Domestic Supply of Residual Fuel Oil, I961-1970 = Ⅰ-4-18
      • 4.15 Bituminous Coal and Lignite Shipments to Electric Utilities, by Mode of Trans-port, 1959 and 1968 = Ⅰ-4-21
      • 4.16 Fuel Consumption by Electric Utilities, 1960 and 1969, and Average Growth Rates, by Census Regions = Ⅰ-4-25
      • 4.17 Fossil Fuel Use for Electric Power Generation by Census Regions, as a Percent of Total Btu, 1960 and 1969 = Ⅰ-4-26
      • FIGURES
      • 4.1 Projected Generation Mix = Ⅰ-4-1
      • 4.2 Estimated Annual Electric Utility Generation by Primary Energy Sources = Ⅰ-4-1
      • 4.3 Estimated Annual Fossil Fuel Requirements for Electric Utility Generation = Ⅰ-4-2
      • 4.4 Relative Use of Coal, Gas, and Oil in Projected Fossil-Fueled Generation = Ⅰ-4-4
      • 4.5 Distribution of Fossil Fuel Reserves = Ⅰ-4-6
      • 4.6 Average Unit Train Rates = Ⅰ-4-22
      • 4.7 Black Mesa-Mohave Coal-Slurry Pipeline = Ⅰ-4-23
      • 4.8 Gas Liquefying and Storage Facilities = Ⅰ-4-24
      • 4.9 Relative Changes in the Wholesale Price Index of Fossil Fuels = Ⅰ-4-28
      • 4.10 Projected Fossil Fuel Requirements for Electric Power Generation, by Regions = Ⅰ-4-30
      • CHAPTER 5 : FOSSIL-FUELED STEAM-ELECTRIC GENERATION
      • Introduction = Ⅰ-5-1
      • Sizes of Units = Ⅰ-5-2
      • Sizes of Plants = Ⅰ-5-3
      • Average Costs = Ⅰ-5-4
      • Steam Conditions = Ⅰ-5-5
      • Heat Rates = Ⅰ-5-6
      • Base lload Units = Ⅰ-5-7
      • Base Load Units with Built-in Peaking Capability = Ⅰ-5-8
      • Peaking Units = Ⅰ-5-8
      • Changing Operational Patterns for Older Units = Ⅰ-5-8
      • Maintenance = Ⅰ-5-9
      • P$$\acute e$$rformance of New Units = Ⅰ-5-10
      • Trends In Boilers q = Ⅰ-5-10
      • Prospects for Combined Cycles = Ⅰ-5-12
      • Gas Turbine-Steam Turbine = Ⅰ-5-12
      • Combined Steam or Power-Incineration Plants = Ⅰ-5-12
      • Automation of Steam-Electric Plants = Ⅰ-5-13
      • FIGUEES
      • 5.1 Fossil-Fueled Steam-Electric Generating Capacity = Ⅰ-5-1
      • 5.2 150-Megawatt Unit in Paradise Plant = Ⅰ-5-2
      • 5.3 Largest Fossil-FueIed Steam-Electric Turbine-Generators in Service-1900-1990 = Ⅰ-5-3
      • 5.4 Genoa Nuclear and Coal-Fired Plants = Ⅰ-5-3
      • 5.5 Average Investment Cost Per Kilowatt of Total Installed Steam-Electric Capacity = Ⅰ-5-4
      • 5.6 Total Costs of Producing Steam-Electric Power = Ⅰ-5-4
      • 5.7 Asbury Steam-Electric Plant = Ⅰ-5-5
      • 5.8 Manpower Requirements for Operation and Maintenance of Modern Coal-Fired and Gas-Fired Steam-Electric Plants = Ⅰ-5-5
      • 5.9 Maximum Designed Throttle Pressures of Turbines Installed Each Year = Ⅰ-5-6
      • 5.10 Maximum Designed Throttle Temperatures of Turbines Installed Each Year = Ⅰ-5-6
      • 5.11 Heat Rates of Fossil-Fueled Steam-Electric Plants = Ⅰ-5-7
      • 5.12 The 1606-Megawatt Haynes Steam-Electric Plant = Ⅰ-5-7
      • 5.13 Turbo-Generator in the Fort Martin Plant = Ⅰ-5-9
      • 5.14 Maximum Capacity of Boilers Installed Each Year = Ⅰ-5-11
      • 5.15 Northport Steam-Electric Plant = Ⅰ-5-11
      • 5.16 Riverbend Steam-Electric Plant = Ⅰ-5-12
      • 5.17 Combined Gas Turbine-Steam Turbine Cycle = Ⅰ-5-12
      • CHAPTER 6 : NUCLEAR POWER
      • Introduction = Ⅰ-6-1
      • Accelerated Growth of Nuclear Power Generation = Ⅰ-6-1
      • Regulation = Ⅰ-6-5
      • Plant Licensing = Ⅰ-6-5
      • Construction Permit I-6-5
      • Operating License = Ⅰ-6-7
      • Operator Licensing = Ⅰ-6-7
      • Nuclear Insurance = Ⅰ-6-9
      • Types of Reactor Systems in Service and Being Built = Ⅰ-6-9
      • Pressurized Water Reactor = Ⅰ-6-9
      • Boiling Water Reactor = Ⅰ-6-9
      • Nuclear Fuels = Ⅰ-6-10
      • Fuel Requirements and Supply = Ⅰ-6-10
      • Fuel Cycles = Ⅰ-6-11
      • Uranium Fuel Cycle = Ⅰ-6-11
      • Head-End Processes = Ⅰ-6-11
      • Fuel Fabrication = Ⅰ-6-11
      • Irradiation in Reactor = Ⅰ-6-12
      • Tail-End Processes = Ⅰ-6-12
      • Thorium Cycle = Ⅰ-6-12
      • Plutonium Cycle = Ⅰ-6-12
      • Fuel Management = Ⅰ-6-12
      • Nuclear Plant Costs = Ⅰ-6-13
      • Capital Costs = Ⅰ-6-13
      • Nuclear Plant Efficiencies = Ⅰ-6-13
      • Nuclear Fuel Costs = Ⅰ-6-14
      • Operation and Maintenance Costs = Ⅰ-6-14
      • Quality Assurance = Ⅰ-6-15
      • Plant Operations = Ⅰ-6-15
      • Plant Availability = Ⅰ-6-15
      • Loading of Generating Units = Ⅰ-6-16
      • Performance During System Disturbance = Ⅰ-6-16
      • Computer Applications in Nuclear Plant Operation = Ⅰ-6-17
      • Personnel Requirements = Ⅰ-6-17
      • Training of Personnel = Ⅰ-6-17
      • Nuclear Power Environmental Considerations = Ⅰ-6-17
      • Siting Criteria = Ⅰ-6-17
      • Effects on Water Resources = Ⅰ-6-19
      • Reactor Safety = Ⅰ-6-19
      • Development of Radiation Standards = Ⅰ-6-19
      • Safety Protection for Nuclear Reactors = Ⅰ-6-19
      • Radioactivity in Condenser Cooling Water = Ⅰ-6-20
      • Radioactive Discharges to the Atmosphere = Ⅰ-6-20
      • Reactor Waste Management = Ⅰ-6-20
      • Possible Future Reactor Types = Ⅰ-6-21
      • Advanced Converter and Low Gain Breeder Concepts = Ⅰ-6-21
      • High Temperature Gas-Cooled Reactor = Ⅰ-6-21
      • Light Water Breeders = Ⅰ-6-21
      • Molten Salt Breeder Reactor = Ⅰ-6-22
      • Fast Neutron Breeder Reactors = Ⅰ-6-22
      • Liquid Metal Fast Breeder Reactor = Ⅰ-6-22
      • Gas-Cooled Fast Breeder Reactor = Ⅰ-6-23
      • TABLES
      • 6.1 Nuclear Electric Generating Units, Existing and Scheduled = Ⅰ-6-2
      • 6.2 Fuel Cycle Costs for a 1,000-MW Plant = Ⅰ-6-15
      • 6.3 Commercial Nuclear Reactor Availability Factors = Ⅰ-6-16
      • FIGURES
      • 6.1 Nuclear Electric Generating Units, Existing and Scheduled = Ⅰ-6-6
      • 6.2 Projected Nuclear, Hydro, and Fossil-Fueled Capacity = Ⅰ-6-7
      • 6.3 Nine Mile Point Nuclear Power Plant = Ⅰ-6-7
      • 6.4 Nuclear Electric Capacity, Existing and Projected = Ⅰ-6-8
      • 6.5 Dresden Nuclear Power Plant = Ⅰ-6-10
      • 6.6 Uranium Fuel Bundles = Ⅰ-6-10
      • 6.7 Estimated Effects of Fast Breeder Introduction on Uranium Requirements = Ⅰ-6-11
      • 6.8 Nuclear Fuel Cycle for Light Water Reactor = Ⅰ-6-11
      • 6.9 Browns Ferry Nuclear Power Plant = Ⅰ-6-13
      • 6.10 Estimated Operation and Maintenance Costs for Light Water Reactor Plants = Ⅰ-6-15
      • 6.11 Reinforcing Steel at Diablo Canyon Nuclear Power Plant = Ⅰ-6-16
      • 6.12 Shipping of Browns Ferry Nuclear Reactor Vessel I'll = Ⅰ-6-17
      • 6.13 Shipping of Steam Generator for Oconee Nuclear Power Plant = Ⅰ-6-18
      • 6.14 Handling Reactor Waste = Ⅰ-6-20
      • 6.15 Fort StVrain Nuclear Power Plant = Ⅰ-6-21
      • 6.16 Steam Generator Being Prepared for Testing = Ⅰ-6-22
      • CHAPTER 7 : CONVENTIONAL AND PUMPED STORAGE HYDROELECTRIC POWER
      • Introduction = Ⅰ-7-1
      • Operating Characteristics = Ⅰ-7-1
      • Conventional Developments = Ⅰ-7-1
      • Pumped Storage Developments = Ⅰ-7-3
      • Use in Serving Loads = Ⅰ-7-4
      • Trends in Development = Ⅰ-7-5
      • Existing Developments = Ⅰ-7-8
      • Trends in Ownership = Ⅰ-7-9
      • Projects Existing and Under Construction = Ⅰ-7-9
      • Developments Under FPC Licenses = Ⅰ-7-11
      • Processing Applications = Ⅰ-7-11
      • Projects Under License = Ⅰ-7-18
      • Relicensing or Federal Takeover = Ⅰ-7-19
      • Development Under Comprehensive Basin Plans = Ⅰ-7-19
      • Federal-State Planning Activities = Ⅰ-7-19
      • Water Resource Appraisals = Ⅰ-7-20
      • Projected Developments = Ⅰ-7-21
      • Hydroelectric Power Potential = Ⅰ-7-21
      • Possible Future Projects = Ⅰ-7-21
      • Imports from Canada = Ⅰ-7-23
      • Tidal Power = Ⅰ-7-30
      • TABLES
      • 7.1 Number and Capacity of Conventional Hydroelectric Plants = Ⅰ-7-8
      • 7.2 Conventional Hydroelectric Capacity by Class of Ownership = Ⅰ-7-9
      • 7.3 Federal Conventional Hydroelectric Capacity = Ⅰ-7-9
      • 7.4 Conventional Hydroelectric Capacity, Existing and Under Construction = Ⅰ-7-13
      • 7.5 Pumped Storage Projects in the United States = Ⅰ-7-17
      • 7.6 Possible New Conventional Hydroelectric Projects and Capacity Additions, Projected to 1990 = Ⅰ-7-24
      • 7.7 Possible New Pumped Storage Capacity, Projected to 1990 = Ⅰ-7-26
      • FIGURES
      • 7.1 Hydroelectric Capacity Existing and Projected to 1990 = Ⅰ-7-2
      • 7.2 Cabin Creek Pumped Storage Project = Ⅰ-7-4
      • 7.3 Generation to Meet Weekly Load = Ⅰ-7-5
      • 7.4 Robert Moses Niagara Power Plant = Ⅰ-7-6
      • 7.5 Sketch of Kinzua Pumped Storage Project = Ⅰ-7-7
      • 7.6 Muddy Run Recreation Park = Ⅰ-7-8
      • 7.7 Map and Profile of Columbia River Basin = Ⅰ-7-10
      • 7.8 Grand Coulee Dam with Artist's Conception of the New Third Power Plant = Ⅰ-7-11
      • 7.9 Conventional Hydroelectric Capacity, Existing and Under Constructivn = Ⅰ-7-12
      • 7.10 Northfield Mountain Pumped Storage Project = Ⅰ-7-16
      • 7.11 Keowee Hydroelectric Project = Ⅰ-7-18
      • 7.12 National Wild and Scenic Rivers System = Ⅰ-7-22
      • 7.13 Conventional Hydroelectric Capacity, New and Expanded = Ⅰ-7-28
      • 7.I4 Reversible Hydroelectric Capacity, Existing and Under Construction as of December 31, 1970, and Projected to 1990 = Ⅰ-7-29
      • CHAPTER 8 : GAS TURBINES, DIESELS, AND TOTAL ENERGY SYSTEMS
      • Introduction = Ⅰ-8-1
      • Gas Turbines = Ⅰ-8-2
      • Installations and Scheduled Additions = Ⅰ-8-6
      • Diesel Engines = Ⅰ-8-6
      • Total Energy Systems = Ⅰ-8-7
      • TABLES
      • 8.1 Total Energy Systems = Ⅰ-8-8
      • 8.2 Total Energy Installations = Ⅰ-8-8
      • FIGURES
      • 8.1 Diesel Power Plant No. 2 at Freeport, N. Y = Ⅰ-8-1
      • 8.2 Gas Turbines at Leland Street Substation, Framingham, Mass = Ⅰ-8-1
      • 8.3 Simple Open-Cycle Gas Turbine = Ⅰ-8-3
      • 8.4 Simple Open-Cycle Gas Turbine with Regenerationt = Ⅰ-8-3
      • 8.5 Cornplete-Cycle Gas Turbine = Ⅰ-8-3
      • 8.6 Eight Aircraft jet Engines Drive Four Expander Turbines Direct-Connected to 3,600 RPM Generator = Ⅰ-8-4
      • 8.7 Gas Turbines with Heat Recovery Boiler Complex = Ⅰ-8-5
      • 8.8 Gas and Steam Turbines in San Angelo Power Plant = Ⅰ-8-6
      • 8.9 Six Cylinder, 6,000-Horsepower Diesel Generator Set = Ⅰ-8-6
      • 8.10 Remote Controlled Diesel Units = Ⅰ-8-7
      • CHAPTER 9 : OTHER FORMS OF GENERATION
      • Introduction = Ⅰ-9-1
      • Magnetohydrodynamics = Ⅰ-9-2
      • Open Cycle = Ⅰ-9-2
      • Closed Cycle-Gas = Ⅰ-9-4
      • Liquid Metal = Ⅰ-9-4
      • Electrogasdynamics = Ⅰ-9-5
      • Fusion Reactor = Ⅰ-9-6
      • Fuel Cells = Ⅰ-9-9
      • Tbermionic Generation = Ⅰ-9-10
      • Tbermionic Generation = Ⅰ-9-I2
      • Geothermal Generation = Ⅰ-9-13
      • Solar Generation = Ⅰ-9-14
      • FIGURES
      • 9.1 Open-Cycle MHD Generation = Ⅰ-9-3
      • 9.2 Combined Open-Cycle MHD-Steam Generation = Ⅰ-9-3
      • 9.3 Electrogasdynamic Principle = Ⅰ-9-6
      • 9.4 D-T Fusion Power Plant = Ⅰ-9-8
      • 9.5 Fusion Reactor with Direct Conversion = Ⅰ-9-8
      • 9.6 Hydrogen-Oxygen Fuel Cell = Ⅰ-9-9
      • 9.7 Artist's conception of 20-MW Fuel Cell Power Plant = Ⅰ-9-10
      • 9.8 Thermionic Converter = Ⅰ-9-10
      • 9.9 Thermoelectric Converter = Ⅰ-9-12
      • 9.10 The Geysers Geothermal Plant = Ⅰ-9-14
      • CHAPTER 10 : DISPOSAL OF WASTE HEAT FROM STEAM-ELECTRIC PLANTS
      • Introduction = Ⅰ-10-1
      • Types of Cooling = Ⅰ-10-1
      • Once-Through Cooling = Ⅰ-10-1
      • Cooling Ponds = Ⅰ-10-3
      • Wet Cooling Towers = Ⅰ-10-3
      • Mechanical Draft Towers = Ⅰ-10-4
      • Natural Draft Towers = Ⅰ-10-5
      • Dry Cooling Towers = Ⅰ-10-6
      • Cost of Coc>ling Water Systems = Ⅰ-10-7
      • Esthetics of Waste Heat Disposal Systems = Ⅰ-10-8
      • Effects of Thermal Discharges on Ecology = Ⅰ-10-8
      • Effects on Water = Ⅰ-10-9
      • Effects on Aquatic Life = Ⅰ-10-9
      • Effects on Water Uses = Ⅰ-10-10
      • Possible Beneficial Uses of Waste Heat = Ⅰ-10-10
      • State and Federal Regulation of Water Quality = Ⅰ-10-12
      • Water Quality Act of 1965 = Ⅰ-10-12
      • Water Quality Improvement Act of 1970 = Ⅰ-10-14
      • Refuse Act of 1899 = Ⅰ-10-14
      • Other Regulatory Authorities = Ⅰ-10-15
      • Analyses of Cooling Systems for Projected Steam-Electric Plants = Ⅰ-10-15
      • Basis of Analyses = Ⅰ-10-16
      • Impacts on Water Resources = Ⅰ-10-16
      • Effects on Power Costs = Ⅰ-10-17
      • Overall Impacts = Ⅰ-10-17
      • Studies and Research = Ⅰ-10-20
      • TABLES
      • 10.1 Comparative Costs of Cooling Water Systems for Steam-Electric Plants = Ⅰ-10-8
      • 10.2 Estimated Cooling Water Requirements for 1,000-Megawatt Steam-Electric Plant Operating at Full Load = Ⅰ-10-17
      • 10.3 Estimated National Water Use for Steam-Electric Power Plant Cooling = Ⅰ-10-17
      • 10.4 Estimated Costs of Cooling Facilities = Ⅰ-10-20
      • FIGURES
      • 10.1 Diffuser Pipes for Heated Water Dispersal at 3,500-Megawatt Browns Ferry Nuclear Power Plant = Ⅰ-10-2
      • 10.2 Typical Thermal Stratification of Reservoirs During Summer Months = Ⅰ-10-3
      • 10.3 The 1,200-Acre Cooling Pond for the 2,085-Megawatt Four Corners Power Plant = Ⅰ-10-4
      • 10.4 Spray Pond for the 490-Megawatt Canady Station = Ⅰ-10-4
      • 10.5 Use of Effluent from a Municipal Sewage Treatment Plant as Source of Cooling Water for the 435-Megawatt Nichols Plant = Ⅰ-10-5
      • 10.6 Mechanical Draft Cooling Towers at the 580-Megawatt Allen S. King Plant = Ⅰ-10-5
      • 10.7 Cooling Tower for the 200-Megawatt Naughton No. 2 Unit = Ⅰ-10-5
      • 10.8 Cooling Tower for the 125-Megawatt Mooreland No. 2 Unit = Ⅰ-10-6
      • 10.9 Natural Draft Cooling Towers at the 1,400-Megawatt Paradise Steam Plant = Ⅰ-10-6
      • 10.10 Air Cooled Condensing at the 20-Megawatt Unit in the Neil Simpson Station = Ⅰ-10-7
      • 10.11 Indirect Dry Cooling (Heller) System = Ⅰ-10-7
      • 10.12 Provision for Oyster Hatchery and Marine Museum in Cooling Water Discharge Basin for the Northport Plant = Ⅰ-10-11
      • 10.13 Cooling Lake for 563-Megawatt Montrose Power Plant = Ⅰ-10-12
      • 10.14 Possible Multiple Uses of Cooling Lake = Ⅰ-10-12
      • 10.15 Estimated Annual Withdrawal and Consumptive Use of Water for Condenser Cooling of Projected Steam-Electric Plants = Ⅰ-10-18
      • 10.16 Estimated Capital and Annual Costs for Cooling Water Facilities for Projected Steam-Electric Plants = Ⅰ-10-19
      • CHAPTER 11 : AIR POLLUTION
      • Introduction = Ⅰ-11-1
      • Sources and Quantities of Air Pollutants = Ⅰ-11-1
      • Legislation and Abatement Programs = Ⅰ-11-3
      • Air Pollution and Reliability of Electric Power Supply = Ⅰ-11-5
      • Emissions From Fossil-Fueled Power Plants = Ⅰ-11-5
      • Emissions from Combustion of Coal = Ⅰ-11-6
      • Emissions from Combustion of Fuel Oil = Ⅰ-11-6
      • Air Pollution from Combustion of Natural Gas = Ⅰ-11-6
      • Sulfur Oxides = Ⅰ-11-7
      • Nitrogen Oxides = Ⅰ-11-7
      • Particulates = Ⅰ-11-8
      • Other Pollutants from Fossil-Fueled Plants = Ⅰ-11-8
      • Gaseous Emissions From Nuclear Power Plants = Ⅰ-11-8
      • Status of Emission Control Technology for Fossil-Fueled Plants = Ⅰ-11-9
      • Control of Sulfur Oxides = Ⅰ-11-9
      • Absorption by Limestone or Dolomite = Ⅰ-11-9
      • Catalytic Oxidation = Ⅰ-11-10
      • Alkaline Scrubbing = Ⅰ-11-11
      • Solid Absorbents = Ⅰ-11-12
      • Other Processes = Ⅰ-11-12
      • Control of Nitrogen Oxides = Ⅰ-11-14
      • Control of Particulates = Ⅰ-II-15
      • Dispersion by Tall Stacks = Ⅰ-11-16
      • TABLES
      • 11.1 Estimated Nationwide Discharges of Airborne Pollutants = Ⅰ-11-2
      • 11.2 Estimated Emissions from Fossil-Fueled Steam-Electric Power Plants = Ⅰ-11-2
      • 11.3 Emission of Pollutants at Electric Power Plants-Average Rate by Type of Fossil Fuel = Ⅰ-11-3
      • 11.4 Ambient Air Quality Standards = Ⅰ-11-4
      • 11.5 Recommended Maximum Emission Rates of Sulfur Oxides = Ⅰ-11-5
      • 11.6 Estimated Electric Utility Production of Electric Power by Primary Energy Source = Ⅰ-11-6
      • 11.7 Estimated Costs of Sulfur Dioxide Removal Processes = Ⅰ-11-13
      • FIGURES
      • 11.1 Paradise Plant Showing Stack and Cooling Tower Plumes = Ⅰ-11-8
      • 11.2 Sulfur Removal by Wet Limestone Process = Ⅰ-11-10
      • 11.3 Catalytic oxidation Process for the Removal of So.,from Flue Gases = Ⅰ-11-11
      • 11.4 Kiyoura-Tokyo Institute of Technology Process for Removal of SO, from Flue Gases = Ⅰ-11-11
      • 11.5 Alkaline Scrubbing Process for Removal of SO, and Fly Ash from Flue Gases = Ⅰ-11-12
      • 11.6 Visual Effect of Electrostatic Precipitators = Ⅰ-11-16
      • 11.7 Effect of Emission Control Equipment at Lee Steam-Electric Plant = Ⅰ-11-16
      • 11.8 Two 800-Foot High Stacks at Monroe Power Plant = Ⅰ-11-17
      • 11.9 Old and New Stacks at Trenton Channel Power'Plant = Ⅰ-11-17
      • 11.10 Multiple Flue Smoke Stack = Ⅰ-11-17
      • C14APTER 12 : ESTHETICS AND LAND USE OF POWER FACILITIES
      • Introduction = Ⅰ-12-1
      • Distribution Facilities = Ⅰ-12-2
      • Overhead Distribution Lines = Ⅰ-12-2
      • Underground Distribution Lines = Ⅰ-12-3
      • Conversion of Existing Overhead Distribution to Underground = Ⅰ-12-5
      • Distribution Substations = Ⅰ-12-5
      • Transmission Facilities = Ⅰ-12-5
      • Overhead Transmission Lines = Ⅰ-12-7
      • Underground Transmission Lines = Ⅰ-12-9
      • Transmission Substations = Ⅰ-12-9
      • Gnerating Facilities = Ⅰ-12-9
      • Hydroelectric Plants = Ⅰ-12-9
      • Stearn-Electric Plants = Ⅰ-12-10
      • Gas Turbine and Internal Combustion Plants = Ⅰ-12-12
      • FIGURES
      • 12.1' Clutter Reduced by Eliminating Crossarins = Ⅰ-12-3
      • 12.2 Specially Designed Poles = Ⅰ-12-3
      • 12.3 Undergrounding of Distribution Facilities Improves a Scenic View = Ⅰ-12-4
      • 12.4 Pad Mounted Transformer = Ⅰ-12-4
      • 12.5 Plantings Screen a Distribution Substation = Ⅰ-12-6
      • 12.6 Alpine Substation = Ⅰ-12-6
      • 12.7 A 230-kV Transmission Line near Atlanta, Georgia = Ⅰ-12-7
      • 12.8 Ornamental Poles Used for Transmission Lines = Ⅰ-12-8
      • 12.9 The 138-kV Matilda Street Substation in Dallas = Ⅰ-12-9
      • 12.10 Libby Dam and Powerhouse = Ⅰ-12-10
      • 12.11 Trojan Nuclear Plant Design = Ⅰ-12-12
      • 12.12 Pilgrim Nuclear Plant Design = Ⅰ-12-12
      • CHAPTER 13 : TRASMISSION AND INTERCONNECTION
      • Introduction = Ⅰ-13-1
      • General Patterns of Transmission Systems = Ⅰ-13-4
      • Trends in Voltage Levels = Ⅰ-I3-4
      • Capacity of Overhead Lines = Ⅰ-13-5
      • Transmission Line Cost Considerations = Ⅰ-13-6
      • AC Terminal Equipment = Ⅰ-13-8
      • Switchgear = Ⅰ-13-8
      • Transformers = Ⅰ-13-9
      • Lightning Arresters = Ⅰ-13-10
      • Relaying, Metering, and Control = Ⅰ-13-10
      • Transmission System Overvoltages = Ⅰ-13-11
      • Transmission Line Outages = Ⅰ-13-12
      • System Stability = Ⅰ-13-12
      • High-Voltage DC Transmission = Ⅰ-I3-I4
      • Underground Transmission = Ⅰ-13-16
      • Power System Communications = Ⅰ-13-17
      • Research and Development Needs = Ⅰ-13-18
      • TABLES
      • 13.1 Transmission Line Mileages in U. S.-Actual and Projected = Ⅰ-13-4
      • 13.2 Actual Costs of Specific ac Lines = Ⅰ-13-7
      • 13.3 Transmission Line Outages, 1950-1964 = Ⅰ-13-13
      • 13.4 High-Voltage Direct-Current Power Transmission Projects = Ⅰ-13-14
      • FIGURES
      • 13.1 Transmission System, 1970 = Ⅰ-13-2
      • 13.2 Maximum ac Voltage in Use-1883-1970 = Ⅰ-13-5
      • 13.3 Steel Tower on 765-kV Transmission System = Ⅰ-13-5
      • 13.4 Approximate Power-Carrying Capabilities of Long Lines = Ⅰ-13-6
      • 13.5 Modernistic Structures Supporting Two 345-kV Lines = Ⅰ-13-6
      • 13.6 Chicago Area Substation and 138-kV Transmission Line = Ⅰ-13-6
      • 13.7 Resistance Losses Per 100 Circuit Miles of Transmission = Ⅰ-13-8
      • 13.8 Cost of Electric Energy Transmission for 200 Miles = Ⅰ-13-9
      • 13.9 Use of Helicopter in Line Construction = Ⅰ-13-10
      • 13.10 High-Speed Air-Blast Circuit Breakers = Ⅰ-13-10
      • 13.11 765 / 345-kV Single-Pliase, 500 MVA, Forced Oil, Air-Cooled Transformer = Ⅰ-13-10
      • 13.12 Modern Control Center of PJM Power Pool = Ⅰ-13-12
      • 13.13 Towers on the 400 kV de Line showing relatively light construction = Ⅰ-13-15
      • 13.14 Sylmar AC-DC Converter Station = Ⅰ-13-16
      • 13.15 Transmission Cost, 1,000 MW-70% Load Factor = Ⅰ-13-16
      • 13.16 Splicing a 345-kV Underground Cable = Ⅰ-13-18
      • 13.17 Microwave Communication Station = Ⅰ-13-18
      • CHAPTER 14 : DISTRIBUTION SYSTEMS
      • Introduction = Ⅰ-14-1
      • General Considerations = Ⅰ-14-1
      • Distribution System Loads = Ⅰ-14-1
      • Load Densities = Ⅰ-14-2
      • Design of Facilities = Ⅰ-14-2
      • Quality of Service = Ⅰ-14-2
      • Reliability = Ⅰ-14-2
      • Voltage Control = Ⅰ-14-3
      • Voltage Control Methods = Ⅰ-14-4
      • Methods for Improving Service = Ⅰ-14-4
      • Quality of Underground Service = Ⅰ-14-4
      • Distribution Economics = Ⅰ-14-4
      • Distribution Costs and Cost Trends = Ⅰ-14-5
      • Factors Tending to Reduce Costs = Ⅰ-14-5
      • Factors Tending to Increase Costs = Ⅰ-14-5
      • Effect of Undergrounding on Distribution Investment = Ⅰ-14-6
      • TABLES
      • 14.1 Energy Sales Per New Residential Customer = Ⅰ-14-2
      • 14.2 Average Ratios of Underground to Overhead Costs for Extensions = Ⅰ-14-6
      • 14.3 Effect of Increased Undergrounding of Extensions on Investment = Ⅰ-14-7
      • 14.4 Average Ratios of New Underground Cost to Original Overhead Cost for Distribution Line Conversions = Ⅰ-14-8
      • FIGURES
      • 14.1 Maintenance with Truck Mounted Equipment = Ⅰ-14-3
      • 14.2 Installation with Truck Mounted Equipment = Ⅰ-14-4
      • 14.3 Cable Plow = Ⅰ-14-6
      • 14.4 Installation of Underground Distribution Lines = Ⅰ-14-8
      • CHAPTER 15 : UTILITY PRACTICES AFFECTING RELIABILITY OF SIJPPLY
      • Introduction = Ⅰ-15-1
      • System Planning and Operation = Ⅰ-15-1
      • Contingency Tests = Ⅰ-15-1
      • Long-Range Planning Studies = Ⅰ-15-2
      • Lead Time for New Generating Units = Ⅰ-15-3
      • Lead Time for New EHV Transmission Lines = Ⅰ-15-3
      • Communication Facilities = Ⅰ-15-4
      • Attended or Remotely Controlled Substations = Ⅰ-15-4
      • Emergency Power Sources for Control Centers = Ⅰ-15-4
      • Automatic Load Shedding = Ⅰ-15-4
      • Interruptible Loads = Ⅰ-15-6
      • Voltage Reductions = Ⅰ-15-6
      • Reserve Practices = Ⅰ-15-7
      • Generation = Ⅰ-15-7
      • Planned Separation of Generators in System Emergencies = Ⅰ-15-8
      • Turbine Generator Maintenance Practices = Ⅰ-15-9
      • Bulk Power Transmission = Ⅰ-15-10
      • Maintenance Schedules for Transmission Facilities = Ⅰ-15-10
      • Maintenance Timing = Ⅰ-15-12
      • TABLES
      • 15.1 Selected 1968 System Data = Ⅰ-15-1
      • 15.2 Contingency Tests = Ⅰ-15-2
      • 15.3 Long-Range Planning Studies = Ⅰ-15-3
      • 15.4 Attended or Remotely Controlled Bulk Power System Substations = Ⅰ-15-4
      • 15.5 Automatic Load Shedding = Ⅰ-15-5
      • 15.6 Interruptible Loads = Ⅰ-15-6
      • 15.7 Voltage Reductions = Ⅰ-15-7
      • 15.8 Safe Shutdown and Isolation Arrangements for Steam-Electric Plants, 1969 = Ⅰ-15-8
      • 15.9 Emergency Startup Power for Steam-Electric Plants, 1969 = Ⅰ-15-9
      • 15.10 Generator Separation Plan = Ⅰ-15-9
      • 15.11 Turbine-Generator Maintenance Schedules = Ⅰ-15-11
      • 15.12 Transmission System Maintenance = Ⅰ-15-11
      • 15.13 Unavailable Capacity at Time of 1968 System Peak = Ⅰ-15-12
      • FIGURES
      • 15.1 Data Processing Center = Ⅰ-15-2
      • 15.2 Control Room for Steam-Electric Plant = Ⅰ-15-9
      • 15.3 Turbine Undergoing Inspection = Ⅰ-15-10
      • 15.4 Aircraft Patrolling a 500-kV Transmission Line = Ⅰ-15-11
      • CHAPTER 16 : PROBLEMS IN TIMELY PLANNING AND CONSTRUCTION OF NEW FACILITIES
      • Introduction = Ⅰ-16-1
      • elayg in Generating Equipment = Ⅰ-16-1
      • clays in Transmission Construction ) = Ⅰ-16-3
      • Financing Problems = Ⅰ-16-4
      • Scheduling Problems Related to Load Projecting = Ⅰ-16-5
      • Construction Clearances = Ⅰ-16-6
      • Problems During Construction = Ⅰ-16-8
      • Delays following Completion of Constrti Page = Ⅰ-16-9
      • Considerations for Future Planning = Ⅰ-16-9
      • TABLES
      • 16.1 Summary of Capacity Installed and Capacity Delayed = Ⅰ-16-2
      • 16.2 Reported Delays in Schedules of Steam-Electric Generating Units, 300 Megawatts and Larger = Ⅰ-16-3
      • 16.3 Circuit Miles of High Voltage Transmission Line Experiencing Construction Slippage as of June 30, 1970-By Extent of Delay = Ⅰ-16-4
      • 16.4 Circuit Miles of High Voltage Transmission Line Experiencing Construction Slippage as of June 30, 1970-By Cause of Delay = Ⅰ-16-5
      • CHAPTER 17 : COORDINATION FOR RELIABILITY AND ECONOMY
      • Introduction = Ⅰ-17-1
      • Coordinating Organizations = Ⅰ-17-2
      • Formal Coordinating Organizations or Power Pools = Ⅰ-17-2
      • Organizational Structures = Ⅰ-17-4
      • Responsibilities of Pool Membership = Ⅰ-17-4
      • Sharing Reserve Capacity Requirements = Ⅰ-17-4
      • Coordination of Operations = Ⅰ-17-7
      • Coordination of Planning = Ⅰ-17-9
      • Informal Coordinating Organizations or Power Pools = Ⅰ-17-9
      • Planning Organizations = Ⅰ-17-9
      • Other Informal Coordinating Groups = Ⅰ-17-14
      • Electric Reliability Councils = Ⅰ-17-14
      • Strengthened Reliability Councils = Ⅰ-17-15
      • Statement of Policy-Docket No. R-362 = Ⅰ-17-17
      • North American Power Systems Interconnection Committee = Ⅰ-17-21
      • Purpose and Scope = Ⅰ-17-21
      • Organizational Structure = Ⅰ-17-22
      • Liaison With Electric Reliability Councils = Ⅰ-17-22
      • Coordinating Techniques = Ⅰ-17-22
      • Staggered Construction of Generating Capacity = Ⅰ-17-23
      • Seasonal Capacity Exchanges = Ⅰ-17-23
      • joint Enterprises = Ⅰ-17-23
      • joint Enterprises by Formal Power Pools = Ⅰ-17-25
      • The PJM Power Pool = Ⅰ-17-25
      • CAPCO Power Pool = Ⅰ-17-26
      • New England Power Pool = Ⅰ-17-26
      • Small Systems = Ⅰ-17-27
      • Power Supply Sources = Ⅰ-17-27
      • Isolated Systems = Ⅰ-17-27
      • Interconnected Systems = Ⅰ-17-29
      • Small-Scale Power Pooling = Ⅰ-17-29
      • Potential Benefits of Full Coordination = Ⅰ-17-29
      • Trend to Larger Coordinating Groups = Ⅰ-17-30
      • Prospects For Increased Coordination = Ⅰ-17-30
      • Northeast Region = Ⅰ-17-31
      • Southeast Region = Ⅰ-I7-31
      • East Central Region = Ⅰ-17-32
      • West Central Region = Ⅰ-17-32
      • South Central Region = Ⅰ-17-33
      • West Region = Ⅰ-17-34
      • TABLES
      • 17.1 Generating Capacity and Peak Loads of Formal Coordinating Organizations or Power Pools = Ⅰ-17-3
      • 17.2 Members of Formal Coordinating Organizations or Power Pools, January 1, 1970 = Ⅰ-17-5
      • 17.3 Informal Coordinating Organizations or Power Pools, January 1, 1970 = Ⅰ-17-11
      • 17.4 Multiple Memberships in Informal Coordinating Organizations or Power Pools = Ⅰ-17-13
      • 17.5 Organizations Comprising the National Electric Reliability Council = Ⅰ-17-17
      • 17.6 Individual Members of Regional Reliability Councils = Ⅰ-17-18
      • 17.7 Isolated Systems = Ⅰ-17-28
      • FIGURES
      • 17.1 Formal Coordinating Organizations or Power Pools = Ⅰ-17-8
      • 17.2 Informal Coordinating Organizations or Power Pools = Ⅰ-17-10
      • 17.3 National Electric Reliability Council Regions = Ⅰ-17-I6
      • 17.4 North American Power Systems Interconnection Committee = Ⅰ-17-21
      • CHAPTER 18 : POSSIBLE PATTERNS OF GENERATION AND TRANSMISSION THROUGH 1990
      • Introduction = Ⅰ-18-1
      • Possible Patterns of Generation to 1990 = Ⅰ-18-1
      • Total Generating Capacity = Ⅰ-18-1
      • Generation by Type of Capacity = Ⅰ-18-6
      • Reserve Generating Capacity = Ⅰ-18-8
      • Methods of Determining Reserve Requirements = Ⅰ-18-8
      • Reliability of Calculations = Ⅰ-18-8
      • Regional Reserve Requirements = Ⅰ-18-9
      • Reserves for Forced Outages = Ⅰ-18-9
      • Reserves for Load Growth Uncertainties = Ⅰ-18-9
      • Reserves for On-Peak Maintenance = Ⅰ-18-9
      • Total Required Reserve Capacities = Ⅰ-18-10
      • Possible Patterns of Transmission to 1990 = Ⅰ-18-10
      • Primary Transmission Facilities = Ⅰ-18-10
      • Northeast Region = Ⅰ-18-12
      • East Central Region = Ⅰ-18-16
      • Southeast Region = Ⅰ-18-17
      • South Central Region = Ⅰ-I8-18
      • West Central Region = Ⅰ-18-18
      • West Region = Ⅰ-18-19
      • Seasonal Diversity of Peak Demands = Ⅰ-18-20
      • Possible Patterns of Power Supply by Regions = Ⅰ-18-21
      • TABLES
      • 18.1 Generating Capacity by Types of Prime Mover, Peak Demands and Reserves = Ⅰ-18-2
      • 18.2 1970 Generating Capacity by Dates of Installation and Types of Prime Mover = Ⅰ-18 3
      • 18.3 New Capacity Needs by Type of Prime Mover = Ⅰ-18-3
      • 18.4 Maximum Size of Generating Units Anticipated by Regional Advisory Com-mittees = Ⅰ-18-3
      • 18.5 Fossil-Fueled Steam-Electric Capacity by Unit Sizes = Ⅰ-18-6
      • 18.6 Nuclear Capacity by Unit Sizes, 1980 and 1990 = Ⅰ-18-6
      • 18.7 New Generating Plant Sites Required by Tyles of Plant, 1971 to 1990 = Ⅰ-18-7
      • 18.8 U. S. Generation by Type of Capacity, 1970, 1980, and 1990 = Ⅰ-18-7
      • 18.9 Estimated Scheduled Maintenance Requirements by Unit Size = Ⅰ-18-10
      • 18.10 Circuit Miles of Overhead Transmission Lines = Ⅰ-18-11
      • 18.11 Estimated Differences Between August and December Peak Loads by Regions-1970, 1980, and 1990 = Ⅰ-18-21
      • 18.12 Generating Capacity by Regions and Type of Prime Mover ; Peak Demands and Reserve Capacity by Regions = Ⅰ-18-23
      • 18.13 New Capacity Needs by Regions and Type of Prime Mover = Ⅰ-18-25
      • 18.14 Steam-Electric Capacity by Unit Sizes-1980 and 1990 = Ⅰ-18-26
      • 18.15 Estimated Generation by Regions and Type of Capacity-1970, 1980, and 1990 = Ⅰ-18-28
      • FIGURES
      • 18.1 Major Electric Load Centers, 1970-1990 = Ⅰ-18-4
      • 18.2 Generating Centers, 1970 = Ⅰ-18-4
      • 18.3 Generating Centers, 1980 = Ⅰ-18-5
      • 18.4 Generating Centers, 1990 = Ⅰ-18-5
      • 18.5 Stringing Conductor Bundles for a 765-kV Transmission Line = Ⅰ-18-12
      • 18.6 Possible Pattern of Transmission Development, 1990 = Ⅰ-18-14
      • 18.7 Verrnont-Yankee Nuclear Power Plant = Ⅰ-18-13
      • 18.8 Michigan Electric Power Pool Control Center = Ⅰ-18-17
      • 18.9 Control Center of Seattle City Light = Ⅰ-18-20
      • 18.10 Estimated Differences Between August and December Peak Loads by Regions- 1970 and 1990 = Ⅰ-18-22
      • CHAPTER 19 : OUTLOOK FOR ELECTRIC POWER COSTS
      • Introduction = Ⅰ-19-1
      • Past Price and Rate Trends = Ⅰ-19-2
      • Investment in Power Facilities-1990 = Ⅰ-19-3
      • Generation = Ⅰ-19-3
      • Transmission = Ⅰ-19-3
      • Distribution = Ⅰ-19-4
      • Nuclear Fuels Inventory = Ⅰ-19-4
      • General Plant = Ⅰ-19-5
      • Total Investment = Ⅰ-19-5
      • Annual Fixed Charges = Ⅰ-19-5
      • Fuel Cost II = Ⅰ-19-6
      • Operation and Maintenance Costs = Ⅰ-19-7
      • Administrative and General Expenses = Ⅰ-19-8
      • Working Capital = Ⅰ-19-9
      • Total Power Costs = Ⅰ-19-9
      • TABLES
      • 19.1 Component Costs of Power Supply = 1-19-2
      • 19.2 Cost of Electricity to Ultimate Consumers = Ⅰ-19-2
      • 19.3 Estimated Average Investment Cost for New Generating Capacity, 1969-90 = Ⅰ-19-4
      • 19.4 Total Investment in Electric Plants by Region1968 and 1990 = Ⅰ-19-5
      • 19.5 Example of Derivation of Fixed Charge Rate = Ⅰ-19-6
      • 19.6 Estimated 1990 Composite Annual Fixed Charge Rates = Ⅰ-19-6
      • 19.7 Fossil Fuel Cost1968 and 1990 = Ⅰ-19-7
      • 19.8 Fuel Costs by Types of Generation-1968 and 1990 = Ⅰ-19-8
      • 19.9 Operation and Maintenance Costs of Generating Plants-1990 = Ⅰ-19-8
      • 19.10 Annual Cost of Working Capital-I990 = Ⅰ-19-9
      • 19.11 Costs of Electricity by Region1968 and 1990 = Ⅰ-19-10
      • FIGURES
      • 19.1 Price of Electricity to Ultimate Consumers = Ⅰ-19-2
      • 19.2 Regional Power Costs-1968 and 1990 = Ⅰ-19-11
      • CHAPTER 20 : FINANCING THE INDUSTRY'S GROWTH
      • Introduction = Ⅰ-20-1
      • Trend of Capital Outlays = Ⅰ-20-2
      • Sources of Financing for Investor-Owned Systems = Ⅰ-20-2
      • Internal Sources = Ⅰ-20-3
      • Depreciation = Ⅰ-20-4
      • Retained Earnings = Ⅰ-20-5
      • Deferred Taxes = Ⅰ-20-6
      • External Sources = Ⅰ-20-6
      • Sources of Financing-Non-Federal Public Systems = Ⅰ-20-9
      • Sources of Financing-Federal Systems = Ⅰ-20-9
      • Sources of Financing for Cooperative Systems = Ⅰ-20-10
      • Private Financing Through Holding Companies and joint Enterprises = Ⅰ-20-11
      • Outlook for Future Financing = Ⅰ-20-12
      • TABLES
      • 20.1 Electric Utility Industry Capital Expenditures, Contiguous United States = Ⅰ-20-3
      • 20.2 Investor-Owned Electric Utilities Sources of Funds = Ⅰ-20-5
      • 20.3 Investor-owned Electric Utilities Sources of Funds in Percent = Ⅰ-20-6
      • 20.4 Average Rates of Depreciation for Investor-Owned Electric Utilities by Func-tional Plant Classification for Selected Years = Ⅰ-20-7
      • 20.5 Short-Term Borrowing by Private Electric Utilities, 1960-1970 = Ⅰ-20-8
      • 20.6 Long Term Debt as a Proportion of Total Capitalization for 202 Investor-Owned Electric Utilities, December 31, 1970 = Ⅰ-20-9
      • 20.7 Capitalization of Class A and B Investor-Owned Electric Utilities, 1937-1970 = Ⅰ-20-10
      • 20.8 Schedule of Electric Utility Debt Falling due 1971-2005 = Ⅰ-20-13
      • 20.9 Earned Rates of Return and Average Interest Rates, Investor-Owned Electric Utilities, 1946-1970 = Ⅰ-20-13
      • FIGURES
      • 20.1 Annual Capital Expenditures for Electric Plant by Type of Facility = Ⅰ-20-4
      • 20.2 Annual Capital Expenditures for Electric Plant by Ownership Sectors = Ⅰ-20-4
      • 20.3 Sources of FundNon-Federal Public Systems, 1952-1969 = Ⅰ-20-9
      • 20.4 Sources of Funds-Distribution Cooperatives, 1955-1969 = Ⅰ-20-11
      • 20.5 Sources of Funds-G&T Cooperatives, 1955-1969 = Ⅰ-20-11
      • CHAPTER 21 : RESEARCH AND DEVELOPMENT NEEDS OF THE INDUSTRY
      • Introduction = Ⅰ-21-1
      • Distribution = Ⅰ-21-2
      • Transmission = Ⅰ-21-2
      • Underground Cables = Ⅰ-21-2
      • Ultra-High-Voltage ac Systems = Ⅰ-21-5
      • High-Voltage de Transmission = Ⅰ-21-6
      • Environmental and Esthetic Considerations = Ⅰ-21-6
      • Generation = Ⅰ-21-7
      • Plant Siting = Ⅰ-21-7
      • Nuclear Facilities = Ⅰ-21-7
      • The Breeder = Ⅰ-21-8
      • Fossil-Fueled Generation = Ⅰ-21-9
      • Hydroelectric Plants = Ⅰ-21-10
      • Gas Turbines = Ⅰ-21-11
      • Diesel Plants = Ⅰ-21-11
      • Possible New Methods of Power Generation = Ⅰ-21-12
      • Fuels and Fuel Transportation for Power Plants = Ⅰ-21-13
      • Coal = Ⅰ-21-14
      • Oil = Ⅰ-21-14
      • Natural Gas = Ⅰ-21-15
      • Nuclear Fuels = Ⅰ-21-15
      • Environmental Considerations = Ⅰ-21-16
      • Air Pollution = Ⅰ-21-16
      • Particulate Matter = Ⅰ-21-16
      • Sulfur = Ⅰ-21-16
      • Nitrogen Oxides = Ⅰ-21-16
      • Radioactive Releases = Ⅰ-21-17
      • General = Ⅰ-21-17
      • Water Ecology Studies = Ⅰ-21-17
      • Cooling Water Systems = Ⅰ-21-18
      • Power System Reliability = Ⅰ-21-19
      • Research and Development Priorities = Ⅰ-21-20
      • Meeting the Research and Development Requirements of the Future = Ⅰ-21-20
      • Institutional Framework = Ⅰ-21-20
      • Scope of lndustry-Sponsored Research and Development = Ⅰ-21-21
      • Financing = Ⅰ-21-21
      • FIGURES
      • 21.1 Waltz Mill Cable Test Station = Ⅰ-21-3
      • 21.2 Experimental Underground Cable Utilizing Tubular Conductors Cooled by Liquid Nitrogen = Ⅰ-21-4
      • 21.3 Project UHV Facility = Ⅰ-21-5
      • 21.4 New Design of a 230-kV Transmission Tower = Ⅰ-21-6
      • 21.5 Southwest Experimental Fast Oxide Reactor = Ⅰ-21-9
      • 21.6 Experiment in Confining Deuterium Gas = Ⅰ-21-13
      • SUPPLEMENT
      • Managing the Power Supply and the Environment
      • A Report to the Federal Power Commission by the Task Force on Environment = Ⅰ-22-1
      • APPENDICES
      • Acknowledgments = Ⅰ-23-1
      • Glossary of Abbreviations and Definitions = Ⅰ-24-1
      • Subject Index = Ⅰ-25-1
      • ADVISORY REPORTS TO THE FEDERAL POWER COMMISSION IN SEPARATE VOLUMES
      • Part Ⅱ
      • The Northeast Regional Advisory Committee = Ⅰ-23-2
      • The East Central Regional Advisory Committee = Ⅰ-23-3
      • The Southeast Regional Advisory Committee = Ⅰ-23-3
      • The Fossil Fuel Resources Committee = Ⅰ-24-3
      • Part Ⅲ
      • The South Central Regional Advisory Committee = Ⅰ-23-4
      • The West Central Regional Advisory Committee = Ⅰ-23-3
      • The West Regional Advisory Committee = Ⅰ-23-4
      • Part Ⅳ
      • The Generation Technical Advisory Committee = Ⅰ-23-5
      • The Transmission Technical Advisory Committee = Ⅰ-23-5
      • The Distribution Technical Advisory Committee = Ⅰ-23-5
      • The Technical Advisory Committee on Load Forecasting Methodology = Ⅰ-23-5
      • [Volume. 1970(2)]----------
      • CONTENTS
      • PART Ⅱ
      • Electric Power in the Northeast 1970-1980-1990
      • Summary = Ⅱ-1-ⅸ
      • Chapter Ⅰ. Estimated Future Power Requirements = Ⅱ-1-1
      • Chapter Ⅱ. Fuels = Ⅱ-1-17
      • Chapter Ⅲ. Electric Generating Facility Trends in the Northeast, 1970-1990 = Ⅱ-1-30
      • Chapter Ⅳ. Changing Technical, Economic and Environmental Factors = Ⅱ-1-47
      • Chapter Ⅴ. Generation Reserve Requirements = Ⅱ-1-52
      • Chapter Ⅵ. Economics of Base Load Generating Plant Selection = Ⅱ-1-59
      • Chapter Ⅶ. Pattern of Bulk Power Transmission in the Northeast = Ⅱ-1-62
      • Chapter Ⅷ. Coordinated Planning, Operation, and Development = Ⅱ-1-69
      • Chapter Ⅸ. Generation and Transmission Patterns for 1980 and 1990 = Ⅱ-1-91
      • Electric Power in the East Central Region 1970-1980-1990
      • Summary = Ⅱ-2-ⅸ
      • Chapter Ⅰ. General Description of the East Central Region. = Ⅱ-2-1
      • Chapter Ⅱ. Future Power Requirements = Ⅱ-2-4
      • Chapter Ⅲ. Fuels = Ⅱ-2-21
      • Chapter Ⅳ. Sources of Power Supply = Ⅱ-2-30
      • Chapter Ⅴ. Transmission and Interconnection = Ⅱ-2-37
      • Chapter Ⅵ. Generation Reserves = Ⅱ-2-40
      • Chapter Ⅶ. Coordinated Planning and Development = Ⅱ-2-45
      • Chapter Ⅷ. Reliability = Ⅱ-2-57
      • Chapter Ⅸ. Environmental Considerations = Ⅱ-2-60
      • Chapter Ⅹ. Patterns of Generation and Transmission = Ⅱ-2-66
      • Electric Power in the Southeast 1970-1980-1990
      • Summary = Ⅱ-3-ⅶ
      • Chapter Ⅰ. Structure of the Industry = Ⅱ-3-1
      • Chapter Ⅱ. Estimated Future Power Requirements = Ⅱ-3-5
      • Chapter Ⅲ. Patterns of Generation and Transmission = Ⅱ-3-21
      • Chapter Ⅳ. Statement of Coordination = Ⅱ-3-32
      • Chapter Ⅴ. Appraisal of Undeveloped Hydroelectric Potential in the Southeast = Ⅱ-3-36
      • Chapter Ⅵ. Fuels = Ⅱ-3-44
      • Fuel Resources, Requirements and Costs for Electric Generation in Eastern United States
      • Chapter Ⅰ. Introduction = Ⅱ-4-1
      • Chapter Ⅱ. Summary and Conclusions = Ⅱ-4-2
      • Chapter Ⅲ. Electric Energy Requirements = Ⅱ-4-4
      • Cbapter IV. Coal = Ⅱ-4-6
      • Chapter Ⅴ. Natural Gas = Ⅰl-4-14
      • Chapter Ⅵ. Residual Oil = Ⅱ-4-17
      • Chapter Ⅶ. Nuclear Fuel = Ⅱ-4-20
      • Chapter Ⅷ. Effect of Air Pollution Control on Fuel Availability and Cost = Ⅱ-4-23
      • [Volume. 1970(3)]----------
      • CONTENTS
      • PART Ⅲ
      • Electric Power in the South Central Region-1970-1980-1990
      • Introduction = Ⅲ-1-ⅶ
      • Summary = Ⅲ-1-ⅷ
      • Chapter 1. Forecast of Power Requirements for the South Central Region-1970-1990. = Ⅲ-1-1
      • Chapter 2. Fuels Resources = Ⅲ-1-8
      • Chapter 3. Reconunendations for Coordinated Planning and Development = Ⅲ-1-16
      • Chapter 4. General Patterns of Generation and Transmission-1970-1990 = Ⅲ-1-25
      • Appendices = Ⅲ-1-91
      • West Central Region Power Survey-1970-1990
      • Summary = Ⅲ-2-ⅶ
      • Chapter 1. Load and Energy Projections = Ⅲ-2-1
      • Chapter 2. Inventory of Fossil Fuel Resources = Ⅲ-2-14
      • Chapter 3. General Patterns of Generation and Transmission = Ⅲ-2-44
      • Chapter 4. Coordinated Planning and Development = Ⅲ-2-59
      • Chapter 5. Maps of Possible Transmission Patterns = Ⅲ-2-96
      • The Future of Power in the West Region
      • Introduction and General Summary = Ⅲ-3-1
      • Chapter 1. Power Requirements = Ⅲ-3-15
      • Chapter 2. Energy Supply and Demand = Ⅲ-3-44
      • Chapter 3. Generation = Ⅲ-3-120
      • Chapter 4. Transmission = Ⅲ-3-170
      • Chapter 5. Coordinated Planning and Development = Ⅲ-3-189
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