Preface to Second Edition | p. xi |
Preface to First Edition | p. xiii |
The Earth and Nuclear Power: Sources and Resources | p. 1 |
Introduction | p. 1 |
Forms of Energy | p. 2 |
Units of Energy | p. 5 |
Energy Conversion Process | p. 6 |
Earth's Internal Heat Generation | p. 9 |
The Earth's Energy Flow | p. 15 |
The Fission Process | p. 17 |
Thermal Energy Resources | p. 22 |
References | p. 24 |
Examples and Problems | p. 25 |
Bibliography | p. 26 |
How Reactors Work | p. 28 |
Introduction | p. 28 |
The Fission Process | p. 28 |
Basic Components of a Nuclear Reactor | p. 34 |
Thermal Reactors | p. 37 |
Natural Uranium Graphite-Moderated (Magnox) Reactors | p. 37 |
Advanced Gas-Cooled Reactors | p. 40 |
Pressurized-Water Reactors | p. 43 |
Boiling-Water Reactors | p. 46 |
Natural Uranium Heavy Water-Moderated and-Cooled Reactors | p. 48 |
Boiling-Water, Graphite-Moderated Direct-Cycle Reactor (RBMK) | p. 50 |
Fast Reactors | p. 55 |
Liquid Metal-Cooled Fast Breeder Reactors | p. 55 |
Examples and Problems | p. 60 |
Bibliography | p. 61 |
Cooling Reactors | p. 62 |
Introduction | p. 62 |
General Features of a Reactor Coolant | p. 62 |
Principles of Heat Transfer | p. 64 |
Gaseous Coolants | p. 72 |
Air | p. 72 |
Carbon Dioxide | p. 73 |
Helium | p. 74 |
Steam | p. 75 |
Liquid Coolants | p. 75 |
Light Water | p. 75 |
Heavy Water | p. 77 |
Organic Fluids | p. 77 |
Molten Salts | p. 78 |
Liquid Metals | p. 78 |
Boiling Coolants | p. 80 |
Water | p. 81 |
Liquid Metals | p. 81 |
Alternative Forms of Reactor Coolant Circuits | p. 82 |
Loop-Type Circuits | p. 83 |
Integral-Type Circuits | p. 84 |
Pool-Type Circuits | p. 85 |
Future Developments | p. 87 |
References | p. 88 |
Examples and Problems | p. 88 |
Bibliography | p. 91 |
Loss of Cooling | p. 92 |
Introduction | p. 92 |
The Electric Kettle | p. 99 |
Pressurized-Water Reactor | p. 101 |
Operating States of the PWR | p. 101 |
Energy Balances in the PWR under Fault Conditions | p. 107 |
The Large-Break LOCA in the PWR | p. 109 |
The Small-Break LOCA | p. 116 |
Alternative ECCSs | p. 123 |
Boiling-Water Reactor | p. 123 |
Large-Break LOCA in a BWR (the Design Basis Accident) | p. 124 |
Small-Break LOCAs in BWRs | p. 126 |
CANDU Reactor | p. 128 |
Gas-Cooled Reactors | p. 130 |
Design Basis Accident for the AGR: Depressurization Fault | p. 133 |
Sodium-Cooled Fast Reactor | p. 134 |
Reference | p. 136 |
Examples and Problems | p. 136 |
Bibliography | p. 141 |
Loss-of-Cooling Accidents: Some Examples | p. 142 |
Introduction | p. 142 |
Incidents in Light Water-Cooled Reactors | p. 143 |
The SL-1 Accident | p. 143 |
The Millstone 1 Accident | p. 144 |
The Browns Ferry Fire | p. 145 |
The Three Mile Island (TMI) Accident | p. 146 |
The Ginna Incident | p. 160 |
Mihama 2 Incident | p. 161 |
The Serious Accident at Chernobyl | p. 164 |
Heavy Water--Moderated Reactors | p. 184 |
The NXR Incident | p. 184 |
The Core-Damage Incident at Lucens | p. 186 |
Gas-Cooled Reactors | p. 188 |
The Windscale Fire | p. 188 |
The Fuel Meltdown at St. Laurent | p. 190 |
Seawater Ingress in the Hunterston BAGR Station | p. 191 |
Fuel Damage during Charging at the Hinkley Point BAGR | p. 193 |
Liquid Metal--Cooled Fast Reactors | p. 194 |
The EBR-1 Meltdown Accident | p. 194 |
Fuel Melting Incident at the Enrico Fermi 1 Fast Breeder Reactor | p. 196 |
The International Nuclear Event Scale (INES) | p. 197 |
References | p. 202 |
Examples and Problems | p. 202 |
Bibliography | p. 207 |
Postulated Severe Accidents | p. 208 |
Introduction | p. 208 |
Postulated Severe Accidents in Water-Cooled Reactors | p. 209 |
Core Damage | p. 209 |
Challenges to the Reactor Pressure Vessel | p. 211 |
Challenges to the Reactor Containment | p. 213 |
Mitigating the Consequences of Severe Accidents | p. 216 |
Specific Phenomena relating to Severe Accidents | p. 217 |
Fuel-Coolant Interactions:-"Steam Explosions" | p. 217 |
Debris Beds and Their Cooling | p. 219 |
Hydrogen Formation: Burning and Explosions | p. 221 |
Containment Basement Melt-Through and Failure | p. 223 |
Severe Accidents in Other Reactor Types | p. 225 |
Fission Product Dispersion following Containment Failure | p. 228 |
References | p. 228 |
Examples and Problems | p. 229 |
Bibliography | p. 233 |
Cooling during Fuel Removal and Processing | p. 234 |
Introduction | p. 234 |
Refueling | p. 236 |
Refueling of Gas-Cooled Reactors | p. 236 |
Refueling of CANDU Reactors | p. 238 |
Refueling of Light-Water Reactors | p. 241 |
Refueling of Liquid Metal-Cooled Fast Breeder Reactors | p. 242 |
Spent Fuel Storage and Transport | p. 243 |
Reprocessing Plant | p. 248 |
References | p. 252 |
Examples and Problems | p. 254 |
Bibliography | p. 256 |
Cooling and Disposing of the Waste | p. 257 |
Introduction | p. 257 |
Classification of Waste Products | p. 257 |
Fission Products and Their Biological Significance | p. 259 |
Options for Nuclear Waste Disposal | p. 262 |
Long-Term Storage and Disposal of Spent Nuclear Fuel | p. 264 |
Ultimate Disposal in Salt Deposits | p. 267 |
Geological Storage | p. 267 |
Storage and Disposal of Fission Products from Reprocessing Plants | p. 269 |
Disposal of Other Materials | p. 273 |
References | p. 275 |
Examples and Problems | p. 275 |
Bibliography | p. 280 |
Fusion Energy: Prospect for the Future | p. 281 |
Introduction | p. 281 |
The Fusion Process | p. 282 |
Confinement | p. 284 |
Current Technical Position | p. 286 |
Conclusions | p. 293 |
References | p. 294 |
Examples and Problems | p. 294 |
Bibliography | p. 297 |
Index | p. 299 |
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