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Nuclear Fuel Cycle: Analysis and Management 2ND

  • Formatas: aukštis x plotis x storis: 2375x1562x1.25 mm, weight: 1650 g
  • Išleidimo metai: 01-Jun-1999
  • Leidėjas: Amer Nuclear Society
  • ISBN-10: 0894484516
  • ISBN-13: 9780894484513
Kitos knygos pagal šią temą:
  • Formatas: aukštis x plotis x storis: 2375x1562x1.25 mm, weight: 1650 g
  • Išleidimo metai: 01-Jun-1999
  • Leidėjas: Amer Nuclear Society
  • ISBN-10: 0894484516
  • ISBN-13: 9780894484513
Kitos knygos pagal šią temą:
Preface to the First Edition xiii
Preface to the Second Edition xiv
Introduction and Review of the Nuclear Fuel Cycle
1(20)
General Comments
1(1)
Nuclear Reactor Types---First Generation
2(5)
Advanced Fission Reactor Designs
7(6)
Nuclear Fuel Activities
13(3)
Nuclear Fuel Cycles
16(3)
Glossary of Nuclear Fuel Terms
19(1)
General Bibliography
20(1)
Nuclear Fuel Resources, Mining, and Milling
21(31)
Introduction
21(1)
Uranium Exploration Techniques
22(6)
Geological Studies
22(1)
Airborne Surveys
23(1)
Surface Surveys
24(1)
Hydrochemical Methods
25(1)
Well Logging
26(1)
Botanical Methods
27(1)
Uranium from Seawater
28(1)
Recovery of Uranium from Phosphate and Other By-Product Materials
28(1)
Principal Uranium-Bearing Minerals
28(1)
Uranium Mining Methods
29(6)
Open Pit Mining
29(1)
Underground Mining
30(2)
In Situ Leaching (Solution Mining)
32(1)
Uranium Mines in the United States
33(2)
The Milling of Uranium Ore
35(1)
The Mill Tailings
35(6)
Uranium Reserves and Resources
41(2)
Uranium Production
43(2)
Economic Considerations of Uranium Production Methods
45(3)
Thorium Minerals and Estimates of Reserves
48(1)
General Bibliography
49(3)
References
49(1)
Problems
49(3)
Conversion and Enrichment
52(25)
Introduction
52(1)
Purification of U3O8
53(1)
Conversion of Uranium to Uranium Hexafluoride
53(3)
Enrichment of Uranium by Gaseous Diffusion
56(4)
Quantitative Aspects of Gaseous Diffusion
60(4)
The United States Enrichment Corporation (USEC)
64(1)
Enrichment of Uranium by the Centrifuge Method
65(2)
Enrichment of Uranium by the Separation Nozzle Method
67(2)
Enrichment of Uranium by the AVLIS Method
69(2)
Enrichment Prices and Contracts
71(3)
General Bibliography
74(3)
References
74(1)
Problems
74(3)
Reactor Fuel Design and Fabrication
77(28)
Introduction
77(1)
Reactor Fuel and Cladding Materials
78(6)
Uranium Metal
78(1)
Ceramic Fuels
79(2)
Fuel Cladding
81(1)
Burnable Absorbers or Burnable Poisons
82(2)
Fuel Element Fabrication
84(11)
Fuel Pellet Production
84(2)
Fuel Pin Loading
86(2)
Fuel Element Assembly for a PWR
88(2)
Fuel Element Assembly for a BWR
90(3)
Fuel Assembly Identification Scheme
93(2)
LWR Fuel Problems and Improvements
95(3)
Nuclear Fuel Problems
95(1)
Barrier Fuel
96(1)
VANTAGE-5 Fuel
96(1)
Axial and Radial Blankets
97(1)
Examination of Irradiated Fuel for Defects---Fuel Sipping
97(1)
Other Types of Power Reactor Fuels
98(4)
The Gas-Cooled Reactor GT-MHR Fuel
98(2)
The MOX Fuel
100(1)
Metallic Fuels
101(1)
Fabrication Cost
102(1)
General Bibliography
102(3)
References
103(1)
Problems
103(2)
Reactor Physics Calculations
105(60)
Introduction
105(2)
The Neutron Transport Equation
107(26)
General Comments About the Neutron Transport Equation
107(2)
The Diffusion Approximation
109(1)
The Multigroup Diffusion Equations
110(5)
Criticality Calculations Using the Multigroup Equations
115(2)
One- and Two-Group Diffusion Equation Calculations
117(4)
Numerical Solution of the Multigroup Equations
121(3)
The Transport Approximations PN and SN
124(3)
Nodal Methods
127(1)
The Monte Carlo Method
128(5)
Nuclear Cross-Section Data
133(8)
The ENDF/B Library
133(1)
Information Contained in ENDF/B
134(2)
Calculation of the Neutron Energy Spectrum ø(E)
136(3)
Cross-Section Libraries
139(2)
Fundamentals of Reactor Reload Calculations
141(24)
Objectives of Reload Calculations
141(2)
Calculation of the Average Power per Assembly
143(2)
Fuel Depletion Calculations
145(4)
Burnable Poison Calculations
149(5)
Control Rod Calculations
154(5)
References
159(3)
Problems
162(3)
In-Core Fuel Management
165(45)
General Comments
165(3)
The Multibatch Core Loading
168(8)
Burnup, Availability, and Capacity Factors
168(2)
The Reactivity of the Core
170(2)
One- and Two-Batch Cores
172(2)
The N-Batch Core
174(2)
Fuel Loading Patterns
176(12)
OUT-IN Loading
179(1)
Scatter Loading
180(1)
Low-Leakage Core Loading
180(4)
Gas Turbine-Modular Helium Reactor (GT-MHR) Fuel Loading
184(4)
Extended Burnup and Longer Cycle Length
188(7)
Effect of Extended Burnup on Fuel Performance
188(1)
Effect of Extended Burnup on Uranium Needed and on Enrichment
189(1)
Other Effects Due to Higher Burnup
190(1)
Effects of Fuel Cycle Length
190(1)
The Effect of NWPA on Extended Burnup
191(3)
Fuel Cycle Stretchout (Coastdown)
194(1)
Burnup Measurement Techniques
195(1)
Refueling Activities
195(15)
Planning for a Refueling Outage
196(2)
New Fuel Procurement
198(1)
New Fuel Design Activities
199(1)
Licensing the New Fuel
200(2)
Refueling Sequence Tasks
202(1)
Maintenance Activities
203(1)
Radiation Exposure During Refueling
204(1)
References
205(2)
Problems
207(3)
Reprocessing and Recycling
210(30)
What Is Reprocessing and Recycling?
210(1)
An Historical Perspective
210(3)
Why Consider Reprocessing and Recycling?
213(2)
Reprocessing
215(7)
General Comments
215(1)
The PUREX Process
216(1)
Proliferation-Resistant Processes
217(1)
Reprocessing by the Pyrometallurgical Process
218(1)
Accountability of Reprocessing Plants
218(2)
Reprocessing Experience in the United States
220(1)
Reprocessing Experience Outside the United States
220(2)
Plutonium and Uranium Recycling in LWRs
222(13)
Materials Flow with Recycling
222(1)
Uranium Savings Due to Uranium and Plutonium Recycling
223(3)
SWU Savings Due to Uranium and Plutonium Recycling
226(1)
Characteristics of Cores with MOX Fuel
227(3)
Problems with Recycled Uranium
230(2)
Problems with Recycled Plutonium
232(2)
Experience with MOX Fuel Used in LWRs
234(1)
Factors Affecting Implementation of Reprocessing and Recycling
235(5)
References
236(2)
Problems
238(2)
Utility and Nuclear Power Economics
240(35)
General Comments and Definitions
240(10)
Capital and Business Activities
240(1)
The Engineer's Role in Business
240(1)
Financial Terms
241(1)
Business Taxes
242(1)
Depreciation
243(2)
The Time Value or the Present Worth of Money
245(3)
The Cash Flow Statement
248(2)
The Utility Industry as a Business
250(3)
Major Characteristics of Utilities
250(1)
The Utility Regulatory System
251(1)
The Effects of Load Demand Variation
252(1)
The Special Features of Nuclear Fuel
253(2)
Nuclear and Fossil Fuels
253(1)
The Investment in Nuclear Fuel as a Function of Time
254(1)
Leasing or Buying Nuclear Fuel
254(1)
Calculation of the Cost of Electricity
255(13)
Nuclear Power Plant Construction Costs
255(3)
Approximate Calculation of the Cost of Electricity
258(1)
The Levelized Cost of Electricity
259(4)
Comments on the Levelized Cost Equation
263(4)
The Levelized Cost of Electricity over a Period of Time
267(1)
Final Comments and Conclusions
268(2)
General Bibliography
270(5)
References
271(1)
Problems
272(3)
High-Level Waste Management
275(56)
General Comments
275(2)
Classification of Radioactive Wastes
277(2)
Sources and Examples of Radioactive Wastes
279(1)
The Nuclear Waste Policy Act of 1982 and Its 1987 Amendments
279(5)
Spent Fuel Management
284(16)
Spent Fuel Storage
284(6)
Radioactivity from Spent Fuel
290(2)
Decay Heat Generated by Spent Fuel
292(6)
Spent Fuel Management Outside the United States
298(2)
Disposal of High-Level Wastes and Transuranic Wastes
300(18)
Characteristics of High-Level Waste
300(2)
Characteristics of Transuranic Waste
302(3)
Solidification of HLW and TRU
305(3)
Disposal Methods
308(3)
Geologic Repository Features
311(5)
The Waste Isolation Pilot Plant
316(1)
HLW Programs Outside the United States
317(1)
Transportation of Radioactive Materials
318(13)
Transportation Regulation
318(1)
Definitions and Classifications
319(4)
Testing of Shipping Casks for Spent Nuclear Fuel
323(3)
Emergency Preparedness
326(1)
References
326(3)
Problems
329(2)
Low-Level Waste Management and Decommissioning of Nuclear Power Plants
331(23)
Sources of Low-Level Wastes
331(1)
The Low Level Radioactive Waste Policy Act of 1980 and Its 1985 Amendments
332(3)
The LLW Compacts
334(1)
Disposal of LLW
335(9)
Characteristics of LLW
335(1)
Classification of LLW into A, B, and C Classes
336(3)
Disposal Requirements for Class A, B, and C Wastes
339(1)
Volume Reduction Methods
339(1)
Solidification of LLW
340(1)
LLW Disposal Sites
340(1)
LLW Disposal Programs Outside the United States
341(3)
Decommissioning of Nuclear Power Plants
344(6)
What Is Decommissioning?
344(1)
Decommissioning Methods
345(1)
Radioactive Materials Involved in Decommissioning
346(1)
Decontamination Methods
346(1)
Financing and Cost of Decommissioning
347(1)
Decommissioning Experience
348(2)
Transportation of LLW
350(4)
References
351(1)
Problems
352(2)
Environmental Effects of Electricity Generation
354(23)
Introduction
354(1)
Various Types of Electricity Generating Systems and Their Environmental Effects
355(9)
Fossil-Fueled Plants
355(1)
The Greenhouse Effect
356(6)
Acid Rain
362(1)
Hydroelectric Power
362(1)
Geothermal Power
363(1)
Solar Energy
363(1)
Less Developed Potential Electrical Power Sources
364(1)
Nuclear Power Plants and Their Environmental Effects
364(4)
Summary and Conclusions
368(7)
General Bibliography
375(2)
References
375(2)
Index 377