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099 eBook O'Reilly for Public Libraries
245 00 Irradiation embrittlement of reactor pressure vessels
(RPVs) in nuclear power plants /|cedited by Naoki Soneda.
|h[O'Reilly electronic resource]
264 1 Cambridge [England] :|bWoodhead Publishing,|c2015.
264 4 |c©2015
300 1 online resource (xxii, 409 pages, 4 unnumbered pages of
color plates) :|billustrations (some colour)
336 text|btxt|2rdacontent
336 still image|bsti|2rdacontent
337 computer|bc|2rdamedia
338 online resource|bcr|2rdacarrier
490 1 Woodhead Publishing series in energy ;|vnumber 26
504 Includes bibliographical references and index at the end
of each chapters.
505 00 |gMachine generated contents note:|gpt. I|tReactor
pressure vessel (RPV) design and fabrication --|g1.
|tReactor pressure vessel (RPV) design and fabrication:
the case of the USA /|rR.K. Nanstad --|g1.1.|tIntroduction
--|g1.2.|tAmerican Society of Mechanical Engineers (ASME)
Code design practices --|g1.3.|tThe design process --
|g1.4.|tReactor pressure vessel (RPV) materials selection
--|g1.5.|tToughness requirements --|g1.6.|tRPV fabrication
processes --|g1.7.|tWelding practices --|g1.8.|tReferences
--|g2.|tReactor pressure vessel (RPV) components:
processing and properties /|rY. Tanaka --|g2.1.
|tIntroduction --|g2.2.|tAdvances in nuclear reactor
pressure vessel (RPV) components --|g2.3.|tMaterials for
nuclear RPVs --|g2.4.|tManufacturing technologies --|g2.5.
|tMetallurgical and mechanical properties of components --
|g2.6.|tConclusions --|g2.7.|tReferences --|g3.|tWWER-type
reactor pressure vessel (RPV) materials and fabrication /
|rM. Brumovsky --|g3.1.|tIntroduction --|g3.2.|tWWER
reactor pressure vessel (RPV) materials --|g3.3.
|tProduction of materials for components and welding
techniques --|g3.4.|tFuture trends --|g3.5.|tSources of
further information and advice --|gpt. II|tReactor
pressure vessel (RPV) embrittlement in operational nuclear
power plants --|g4.|tEmbrittlement of reactor pressure
vessels (RPVs) in pressurized water reactors (PWRs) /|rP.
Todeschini --|g4.1.|tIntroduction --|g4.2.
|tCharacteristics of pressurized water reactor (PWR)
reactor pressure vessel (RPV) embrittlement --|g4.3.|tUS
surveillance database --|g4.4.|tFrench surveillance
database --|g4.5.|tJapanese surveillance database --|g4.6.
|tSurveillance databases from other countries --|g4.7.
|tFuture trends --|g4.8.|tReferences --|g5.|tEmbrittlement
of reactor pressure vessels (RPVs) in WWER-type reactors /
|rM. Brumovsky --|g5.1.|tIntroduction --|g5.2.
|tCharacteristics of embrittlement of WWER reactor
pressure vessel (RPV) materials --|g5.3.|tTrend curves --
|g5.4.|tWWER surveillance programmes --|g5.5.|tRPV
annealing in WWER reactors --|g5.6.|tRPV annealing
technology --|g5.7.|tSources of further information and
advice --|g5.8.|tReferences --|g6.|tIntegrity and
embrittlement management of reactor pressure vessels
(RPVs) in light-water reactors /|rR.K. Nanstad --|g6.1.
|tIntroduction --|g6.2.|tParameters governing reactor
pressure vessel (RPV) integrity --|g6.3.|tPressure --
temperature operating limits --|g6.4.|tPressurized thermal
shock (PTS) --|g6.5.|tMitigation methods --|g6.6.
|tLicensing considerations --|g6.7.|tReferences --|g7.
|tSurveillance of reactor pressure vessel (RPV)
embrittlement in Magnox reactors /|rM.R. Wootton --|g7.1.
|tIntroduction --|g7.2.|tHistory of Magnox reactors --
|g7.3.|tReactor pressure vessel (RPV) materials and
construction --|g7.4.|tReactor operating rules --|g7.5.
|tDesign of the surveillance schemes --|g7.6.|tEarly
surveillance results --|g7.7.|tDose-damage relationships
and intergranular fracture in irradiated submerged-arc
welds (SAWs) --|g7.8.|tInfluence of thermal neutrons --
|g7.9.|tValidation of toughness assessment methodology by
RPV SAW sampling --|g7.10.|tFinal remarks --|g7.11.
|tAcknowledgements --|g7.12.|tReferences --|gpt. III
|tTechniques for the evaluation of reactor pressure vessel
(RPV) embrittlement --|g8.|tIrradiation simulation
techniques for the study of reactor pressure vessel (RPV)
embrittlement /|rK. Fukuya --|g8.1.|tIntroduction --|g8.2.
|tTest reactor irradiation --|g8.3.|tIon irradiation --
|g8.4.|tElectron irradiation --|g8.5.|tAdvantages and
limitations --|g8.6.|tFuture trends --|g8.7.|tSources of
further information and advice --|g8.8.|tReferences --|g9.
|tMicrostructural characterisation techniques for the
study of reactor pressure vessel (RPV) embrittlement /
|rC.A. English --|g9.1.|tIntroduction --|g9.2.
|tMicrostructural development and characterisation
techniques --|g9.3.|tTransmission electron microscopy
(TEM) --|g9.4.|tSmall angle neutron scattering (SANS) --
|g9.5.|tAtom probe tomography (APT) --|g9.6.|tPositron
annihilation spectroscopy (PAS) --|g9.7.|tAuger electron
spectroscopy (AES) --|g9.8.|tOther techniques --|g9.9.
|tUsing microstructural analysis to understand the
mechanisms of reactor pressure vessel (RPV) embrittlement
--|g9.10.|tGrain boundary segregation --|g9.11.|tMatrix
damage --|g9.12.|tSolute clusters --|g9.13.|tMechanistic
framework to develop dose-damage relationships (DDRs) --
|g9.14.|tRecent developments and overall summary --|g9.15.
|tReferences --|g10.|tEvaluating the fracture toughness of
reactor pressure vessel (RPV) materials subject to
embrittlement /|rM. Brumovsky --|g10.1.|tIntroduction --
|g10.2.|tThe development of fracture mechanics --|g10.3.
|tPlane-strain fracture toughness and crack-arrest
toughness --|g10.4.|tCurrent standard of fracture
toughness curve --|g10.5.|tEffects of irradiation on
fracture toughness --|g10.6.|tFracture toughness versus
Charpy impact energy --|g10.7.|tHeavy Section Steel
Technology Program and other international reactor
pressure vessel (RPV) research programs --|g10.8.
|tAdvantages and limitations of fracture toughness testing
--|g10.9.|tFuture trends --|g10.10.|tReferences --|g11.
|tEmbrittlement correlation methods to identify trends in
embrittlement in reactor pressure vessels (RPVs) /|rN.
Soneda --|g11.1.|tIntroduction --|g11.2.|tDevelopment of
the embrittlement correlation method --|g11.3.
|tEmbrittlement correlation methods: USA --|g11.4.
|tEmbrittlement correlation methods: Europe --|g11.5.
|tEmbrittlement correlation methods: Japan --|g11.6.
|tConclusions --|g11.7.|tReferences --|g12.|tProbabilistic
fracture mechanics risk analysis of reactor pressure
vessel (RPV) integrity /|rR.M. Gamble --|g12.1.
|tIntroduction --|g12.2.|tRisk evaluation procedures for
assessing reactor pressure vessel (RPV) integrity --
|g12.3.|tProbabilistic fracture mechanics analysis
software --|g12.4.|tConditional probability computational
procedure --|g12.5.|tExample calculations and applications
--|g12.6.|tFuture trends --|g12.7.|tReferences.
520 Reactor Pressure Vessels (RPVs) contain the fuel and
therefore the reaction at the heart of nuclear power
plants. They are a life-determining structural component:
if they suffer serious damage, the continued operation of
the plant is in jeopardy. This book critically reviews
irradiation embrittlement, the main degradation mechanism
affecting RPV steels, and mitigation routes for managing
the RPV lifetime. Part I reviews RPV design and
fabrication in different countries, with an emphasis on
the materials required, their important properties, and
manufacturing technologies. Part II then con.
546 English.
588 0 Print version record.
590 O'Reilly|bO'Reilly Online Learning: Academic/Public
Library Edition
650 0 Nuclear pressure vessels|xEffect of radiation on.
650 0 Steel|xEffect of radiation on.
650 0 Steel|xEmbrittlement.
650 0 Nuclear reactors.
650 2 Nuclear Reactors
650 6 Réacteurs nucléaires|xCaissons|xEffets du rayonnement sur.
650 6 Acier|xEffets du rayonnement sur.
650 6 Acier|xFragilisation.
650 6 Réacteurs nucléaires.
650 7 nuclear reactors.|2aat
650 7 Steel|xEmbrittlement|2fast
650 7 Steel|xEffect of radiation on|2fast
650 7 Nuclear pressure vessels|xEffect of radiation on|2fast
650 7 Nuclear pressure vessels|2fast
650 7 Nuclear reactors|2fast
700 1 Soneda, Naoki,|eeditor.
776 08 |iPrint version:|tIrradiation embrittlement of reactor
pressure vessels (RPVs) in nuclear power plants.
|dCambridge, [England] : Woodhead Publishing, ©2015|hxxii,
409 pages|kWoodhead Publishing in energy ; Number 26
|z9781845699673
830 0 Woodhead Publishing in energy ;|vno. 26.
856 40 |uhttps://ezproxy.naperville-lib.org/login?url=https://
learning.oreilly.com/library/view/~/9781845699673/?ar
|zAvailable on O'Reilly for Public Libraries
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