|
|
|
|
LEADER |
08731nam a2200529Ia 4500 |
001 |
f481c86a-4805-4059-b647-7169cab9644a |
005 |
20240818000000.0 |
008 |
100923s2010 enka b 001 0 eng d |
020 |
|
|
|a 0857090798
|
020 |
|
|
|a 9780857090799
|
035 |
|
|
|a (MCM)001994934MIT01
|
035 |
|
|
|a (NcD)005089952DUK01
|
035 |
|
|
|a (OCoLC)666239744
|
035 |
|
|
|a 666239744
|
035 |
|
|
|a NHCCYBP
|b 99944534685
|
040 |
|
|
|a BTCTA
|b eng
|c BTCTA
|d CDX
|d YDXCP
|d STF
|d EYM
|d NUI
|d TXA
|d INU
|
049 |
|
|
|a MYGS
|
050 |
|
4 |
|a TA417.6
|b .Z5 2010
|
050 |
|
4 |
|a TA417.7.H55
|b Z53 2010
|
082 |
0 |
4 |
|a 620.1121
|2 22
|
099 |
|
|
|a TA417.7.H55 Z53 2010
|
100 |
1 |
|
|a Zhang, Junshan,
|d 1944-
|
245 |
1 |
0 |
|a High temperature deformation and fracture of materials /
|c Jun-Shan Zhang
|
260 |
|
|
|a Cambridge, UK ;
|a Philadelphia, PA :
|b Woodhead Publishing ;
|a Beijing :
|b Science Press,
|c 2010
|
300 |
|
|
|a xv, 365 p. :
|b ill. ;
|c 24 cm
|
336 |
|
|
|a text
|b txt
|2 rdacontent
|
337 |
|
|
|a unmediated
|b n
|2 rdamedia
|
338 |
|
|
|a volume
|b nc
|2 rdacarrier
|
490 |
1 |
|
|a Woodhead Publishing in materials
|
504 |
|
|
|a Includes bibliographical references and index
|
505 |
0 |
0 |
|g 12.1
|t Uniaxial Creep Models --
|g 12.2.
|t Mutiaxial Creep Models --
|g 12.3.
|t Mutiaxial Steady State Creep Model --
|g 12.4.
|t Stress Relaxation by Creep --
|t References --
|g pt. II
|t High Temperature Fracture --
|g 13.
|t Nucleation of Creep Cavity --
|g 13.1.
|t Introduction --
|g 13.2.
|t Nucleation Sites of Cavity --
|g 13.3.
|t Theory of Cavity Nucleation --
|g 13.4.
|t Cavity Nucleation Rate --
|t References --
|g 14.
|t Creep Embrittlement by Segregation of Impurities --
|g 14.1.
|t Nickel and Nickel-Base Superalloys --
|g 14.2.
|t Low-Alloy Steels --
|t References --
|g 15.
|t Diffusional Growth of Creep Cavities --
|g 15.1.
|t Chemical Potential of Vacancies --
|g 15.2.
|t Hull-Rimmer Model for Cavity Growth --
|g 15.3.
|t Speight-Harris Model for Cavity Growth --
|g 15.4.
|t The role of Surface Diffusion --
|t References --
|g 16.
|t Cavity Growth by Coupled Diffusion and Creep --
|g 16.1.
|t Monkman -- Grant Relation --
|g 16.2.
|t Beer -- Speight Model --
|g 16.3.
|t Edward -- Ashby Model --
|g 16.4.
|t Chen -- Argon model --
|g 16.5.
|t Cocks -- Ashby Model --
|t References --
|g 17.
|t Constrained Growth of Creep Cavities --
|g 17.1.
|t Introduction --
|g 17.2.
|t Rice Model
|
505 |
0 |
0 |
|g 17.3
|t Raj -- Ghosh Model --
|g 17.4.
|t Cocks -- Ashby Model --
|t References --
|g 18.
|t Nucleation and Growth of Wedge-Type Microcracks --
|g 18.1.
|t Introduction --
|g 18.2.
|t Nucleation of Wedge-Type Cracks --
|g 18.3.
|t The Propagation of Wedge-Type Cracks --
|g 18.4.
|t Crack Growth by Cavitation --
|t References --
|g 19.
|t Creep Crack Growth --
|g 19.1.
|t Crack-Tip Stress Fields in Elastoplastic Body --
|g 19.2.
|t Stress Field at Steady-State-Creep Crack Tip --
|g 19.3.
|t The Crack Tip Stress Fields in Transition Period --
|g 19.4.
|t Vitek Model for Creep Crack Tip Fields --
|g 19.5.
|t The Influence of Creep Threshold Stress --
|g 19.6.
|t The Experimental Results for Creep Crack Growth --
|t References --
|g 20.
|t Creep Damage Mechanics --
|g 20.1.
|t Introduction to the Damage Mechanics --
|g 20.2.
|t Damage Variable and Effective Stress --
|g 20.3.
|t Kachanov Creep Damage Theory --
|g 20.4.
|t Rabotnov Creep Damage Theory --
|g 20.5.
|t Three -- Dimensional Creep Damage Theory --
|t References --
|g 21.
|t Creep Damage Physics --
|g 21.1.
|t Introduction --
|g 21.2.
|t Loss of External Section --
|g 21.3.
|t Loss of Internal Section --
|g 21.4.
|t Degradation of Microstructure
|
505 |
0 |
0 |
|g 21.5
|t Damage by Oxidation --
|t References --
|g 22.
|t Prediction of Creep Rupture Life --
|g 22.1.
|t Extrapolation Methods of Creep Rupture Life --
|g 22.2.
|t θ Projection Method --
|g 22.3.
|t Maruyama Parameter --
|g 22.4.
|t Reliability of Prediction for Creep Rupture Property --
|t References --
|g 23.
|t Creep-Fatigue Interaction --
|g 23.1.
|t Creep Fatigue Waveforms --
|g 23.2.
|t Creep-Fatigue Failure Maps --
|g 23.3.
|t Holding Time Effects on Creep-Fatigue Lifetime --
|g 23.4.
|t Fracture Mechanics of Creep Fatigue Crack Growth --
|t References --
|g 24.
|t Prediction of Creep-Fatigue Life --
|g 24.1.
|t Linear Damage Accumulation Rule --
|g 24.2.
|t Strain Range Partitioning --
|g 24.3.
|t Damage Mechanics Method --
|g 24.4.
|t Damage Function Method --
|g 24.5.
|t Empirical Methods --
|t References --
|g 25.
|t Environmental Damage at High Temperature --
|g 25.1.
|t Oxidation --
|g 25.2.
|t Hot Corrosion --
|g 25.3.
|t Carburization --
|t References.
|
505 |
0 |
0 |
|g 4.4
|t Models Based on Dislocation Network --
|g 4.5.
|t Creep Model Based on the Motion of Jogged Screw Dislocation --
|g 4.6.
|t Summary of Recovery Creep Models --
|g 4.7.
|t Soft and Hard Region Composite Model --
|g 4.8.
|t Harper-Dorn Creep --
|t References --
|g 5.
|t Creep of Solid Solution Alloys --
|g 5.1.
|t Interaction Between Dislocation and Solute Atom --
|g 5.2.
|t Creep Behavior of Solid Solution Alloys --
|g 5.3.
|t Viscous Glide Velocity of Dislocations --
|g 5.4.
|t Creep Controlled by Viscous Glide of Dislocations --
|t References --
|g 6.
|t Creep of Second Phase Particles Strengthened Materials --
|g 6.1.
|t Introduction --
|g 6.2.
|t Arzt-Ashby Model --
|g 6.3.
|t Creep Model Based on Attractive Particle-Dislocation Interaction --
|g 6.4.
|t Interaction of Dislocation with Localized Particles --
|g 6.5.
|t Mechanisms of Particle Strengthening --
|g 6.6.
|t Grain Boundary Precipitation Strengthening --
|t References --
|g 7.
|t Creep of Particulates Reinforced Composite Material --
|g 7.1.
|t Creep Behavior of Particulates Reinforced Aluminium Matrix Composites --
|g 7.2.
|t Determination of Threshold Stress --
|g 7.3.
|t Creep Mechanisms and Role of Reinforcement Phase --
|t References
|
505 |
0 |
0 |
|g 8
|t High Temperature Deformation of Intermetallic Compounds --
|g 8.1.
|t Crystal Structures, Dislocations and Planar Defects --
|g 8.2.
|t Dislocation Core Structure --
|g 8.3.
|t Slip Systems and Flow Stresses of Intermetallic Compounds --
|g 8.4.
|t Creep of Intermetallic Compounds --
|g 8.5.
|t Creep of Compound-Based ODS Alloys --
|t References --
|g 9.
|t Diffusional Creep --
|g 9.1.
|t Theory on Diffusional Creep --
|g 9.2.
|t Accommodation of Diffusional Creep: Grain Boundary Sliding --
|g 9.3.
|t Diffusional Creep Controlled by Boundary Reaction --
|g 9.4.
|t Experimental Evidences of Diffusional Creep --
|t References --
|g 10.
|t Superplasticity --
|g 10.1.
|t Stability of Deformation --
|g 10.2.
|t General Characteristics of Superplasticity --
|g 10.3.
|t Microstructure Characteristics of Superplasticity --
|g 10.4.
|t Grain Boundary Behaviors in Superplastic Deformation --
|g 10.5.
|t Mechanism of Superplastic Deformation --
|g 10.6.
|t The maximum Strain Rate for Superplasticity --
|t References --
|g 11.
|t Mechanisms of Grain Boundary Sliding --
|g 11.1.
|t Introduction --
|g 11.2.
|t Intrinsic Grain Boundary Sliding --
|g 11.3.
|t Extrinsic Grain Boundary Sliding --
|t References --
|g 12.
|t Multiaxial Creep Models
|
505 |
0 |
0 |
|g Machine generated contents note:
|g pt. I
|t High Temperature Deformation --
|g 1
|t Creep Behavior of Materials --
|g 1.1.
|t Creep Curve --
|g 1.2.
|t Stress and Temperature Dependence of Creep Rate --
|g 1.3.
|t Stacking Fault Energy Effect --
|g 1.4.
|t Grain Size Effect --
|t References --
|g 2.
|t Evolution of Dislocation Substructures During Creep --
|g 2.1.
|t Parameters of Dislocation Substructures and Their Measurements --
|g 2.2.
|t Evolution of Dislocation Substructure during Creep --
|g 2.3.
|t Dislocation Substructure of Steady State Creep --
|g 2.4.
|t Inhomogeneous Dislocation Substructure and Long-Range Internal Stress --
|t References --
|g 3.
|t Dislocation Motion at Elevated Temperatures --
|g 3.1.
|t Thermally Activated Glide of Dislocation --
|g 3.2.
|t Measurement of Internal Stress --
|g 3.3.
|t Climb of Dislocations --
|g 3.4.
|t Basic Equations of Recovery Creep --
|g 3.5.
|t Mechanisms of Recovery --
|t References --
|g 4.
|t Recovery-Creep Theories of Pure Metals --
|g 4.1.
|t Introduction --
|g 4.2.
|t Weertman Model --
|g 4.3.
|t Models Considering Sub-Boundary
|
650 |
|
0 |
|a Deformations (Mechanics)
|
650 |
|
0 |
|a Fracture mechanics
|
650 |
|
0 |
|a Materials at high temperatures
|
650 |
|
7 |
|a Deformations (Mechanics)
|2 fast
|
650 |
|
7 |
|a Fracture mechanics
|2 fast
|
650 |
|
7 |
|a Materials at high temperatures
|2 fast
|
830 |
|
0 |
|a Woodhead Publishing in materials
|
999 |
1 |
0 |
|i f481c86a-4805-4059-b647-7169cab9644a
|l 990019949340106761
|s US-MCM
|m high_temperature_deformation_and_fracture_of_materials_____________________2010_______woodha________________________________________zhang__junshan_____________________p
|
999 |
1 |
0 |
|i f481c86a-4805-4059-b647-7169cab9644a
|l 990050899520108501
|s US-NCD
|m high_temperature_deformation_and_fracture_of_materials_____________________2010_______woodha________________________________________zhang__junshan_____________________p
|
999 |
1 |
1 |
|l 990019949340106761
|s ISIL:US-MCM
|t BKS
|a SCI STACK
|b 39080035825618
|c TA417.7.H55 Z53 2010
|d 0
|x BOOK
|y 23485540100006761
|p LOANABLE
|
999 |
1 |
1 |
|l 990050899520108501
|s ISIL:US-NCD
|t BKS
|a PERKN PK
|b D04432126M
|c TA417.7.H55 Z53 2010
|d 0
|x BOOK
|y 23706091120008501
|p LOANABLE
|