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The future of fusion energy / Jason Parisi, University of Oxford, UK, Justin Ball, Swiss Federal Institute of Technology in Lausanne (EPFL), Switzerland.
- Format:
- Book
- Author/Creator:
- Parisi, Jason, author.
- Ball, Justin (Justin Richard), author.
- Language:
- English
- Subjects (All):
- Nuclear fusion.
- Renewable energy sources.
- Power resources.
- Physical Description:
- xxvi, 378 pages : illustrations (some color), map ; 24 cm
- Place of Publication:
- New Jersey : World Scientific, [2019]
- Summary:
- "The gap between the state of fusion energy research and public understanding is vast. In an entertaining and engaging narrative, this popular science book gives readers the basic tools to understand how fusion works, its potential, and contemporary research problems"-- Publisher's description.
- Contents:
- 1 The Hydrogen-Powered Civilization p. 3
- 1.1 Revolutions in Energy Use p. 3
- 1.2 Comparing Options p. 7
- 2 Energy in Numbers and Graphs p. 11
- 2.1 Can We Even Consume Energy? p. 11
- 2.2 A Brief History of Energy p. 12
- 2.3 Our Energy Resources p. 17
- 2.3.1 Fusion p. 19
- 2.3.2 Nuclear fission p. 23
- 2.3.3 Geothermal p. 27
- 2.3.4 Solar p. 28
- 2.3.5 Wind p. 30
- 2.3.6 Biomass p. 35
- 2.3.7 Fossil fuels p. 37
- 2.3.8 Hydroelectric p. 39
- 2.3.9 Tidal p. 41
- 2.3.10 Wave p. 44
- 2.4 Tackling Intermittency p. 46
- 2.4.1 Energy storage p. 50
- 2.4.2 Demand management p. 54
- 2.4.3 Expanding electrical grids p. 54
- 2.4.4 Extra generating capacity p. 56
- 2.5 What is "Renewable"? p. 57
- 3 Fundamentals of Fusion Energy p. 65
- 3.1 The Nuclear Potential p. 65
- 3.2 Binding Energy p. 70
- 3.3 Fusion Cross-Section p. 77
- 3.4 Fusion Fuels p. 83
- 3.5 Plasma p. 86
- 4 Plasma Confinement p. 89
- 4.1 Quantifying Confinement p. 90
- 4.2 Magnetic Fields p. 91
- 4.3 Electric Fields p. 94
- 4.4 Electrostatic Confinement p. 96
- 4.5 Linear Magnetic Confinement p. 100
- 4.6 Combing a Hairy Ball p. 103
- 4.7 Particle Drifts p. 104
- 4.8 Toroidal Magnetic Confinement p. 109
- 4.9 Magnetic Surfaces p. 114
- 4.10 Bananas and Super-Bananas p. 118
- 4.11 MIID Stability p. 120
- 4.12 Classical and Neoclassical Transport p. 123
- 4.13 Turbulent Transport p. 126
- 4.14 The Lawson Criterion and the Triple Product p. 131
- 4.15 Where is Magnetic Fusion Now? p. 136
- 5 Fusion Technology p. 139
- 5.1 Magnets p. 139
- 5.2 Plasma Heating and Current Drive p. 144
- 5.2.1 Inductive p. 145
- 5.2.2 Neutral beam p. 148
- 5.2.3 Electromagnetic wave p. 150
- 5.3 First Wall p. 153
- 5.4 Divertors p. 157
- 5.5 Tritium Breeding Blanket p. 160
- 5.6 Vacuum Vessel p. 164
- 5.7 Diagnostics p. 164
- 5.8 Radioactive Waste and Remote Maintenance p. 167
- 5.9 Generating Net Electricity p. 169
- Part 3 The State Of The Art p. 173
- 6 The Past: Fusion Breakthroughs p. 175
- 6.1 1920s: Understanding Stars p. 175
- 6.2 1950s: A Kick-Start for Fusion p. 179
- 6.3 1960s: Superconducting Magnets p. 181
- 6.4 1960s: The Tokamak p. 186
- 6.5 1970s: Bootstrap Current p. 189
- 6.6 1980s: H-Mode p. 193
- 6.7 1980s: Plasma Shaping p. 198
- 6.8 1990s: Deuterium-Tritium Fuel p. 202
- 6.9 2000s: Supercomputers p. 204
- 7 The Present: ITER p. 211
- 7.1 ITER's Goals p. 212
- 7.2 ITER's Strategy p. 216
- 7.2.1 Heating systems p. 218
- 7.2.2 Divertor p. 220
- 7.2.3 First wall p. 222
- 7.3 ITER's Schedule and Cost p. 224
- 7.4 Transition to DEMO p. 232
- 7.5 Other Things to be Excited for p. 234
- 8 The Future: Designing a Tokamak Power Plant p. 237
- 8.1 Power Plant Design from First Principles p. 238
- 8.2 Maximizing Net Electric Power p. 241
- 8.3 Maximizing Plasma Pressure p. 243
- 8.4 Maximizing Plasma Current p. 246
- 8.5 Maximizing Magnetic Field Strength p. 247
- 8.6 Minimizing External Power p. 249
- 8.7 Minimizing Heating Power p. 249
- 8.8 Maximizing Plasma Density p. 253
- 8.9 Minimizing Current Drive Power p. 253
- 8.10 Maximizing Material Survivability p. 255
- 8.11 Striking the Right Balance p. 257
- Part 4 Special Topics p. 261
- 9 Alternative Approaches to Fusion Energy p. 263
- 9.1 Stellarators p. 263
- 9.2 Inertial Confinement Fusion p. 269
- 9.3 Private Fusion Startups p. 277
- 9.3.1 Tokamak Energy Ltd p. 281
- 9.3.2 General Fusion p. 284
- 9.3.3 Lockheed Martin p. 287
- 9.3.4 TAE Technologies p. 290
- 9.3.5 Lawrenceville Plasma Physics p. 296
- 9.3.6 Helion Energy p. 300
- 9.3.7 Commonwealth Fusion Systems p. 301
- 10 Fusion and Nuclear Proliferation p. 303
- 10.1 Nuclear Physics: A Double-edged Sword p. 310
- 10.2 Building Nukes p. 312
- 10.2.1 Uranium enrichment p. 317
- 10.2.2 Plutonium production p. 320
- 10.2.3 Weapon designs p. 321
- 10.3 Conventional Fission Reactors p. 325
- 10.4 Breeder Reactors p. 330
- 10.5 Fission Proliferation Risks p. 333
- 10.6 Fusion Proliferation Risks p. 336
- 10.7 The Nuclear Energy Transition p. 341
- 10.8 Reshaping Geopolitics p. 343
- 10.9 Being a Role Model p. 344
- 11 Fusion and Space Exploration p. 347
- 11.1 Basics of Spaceflight p. 349
- 11.2 Fusion Thruster p. 354
- 12 When Will We Have Fusion? p. 359.
- Notes:
- Includes bibliographical references and index.
- ISBN:
- 9781786345424
- 1786345420
- OCLC:
- 1022587339
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