力学与土木建筑学院

Material Science

1. Single Crystal 100%
2. Creep 96%
3. Superalloys 84%
4. Amorphous Metal 81%
5. Finite Element Method 68%
6. Fatigue of Materials 45%
7. Bulk Metallic Glass 45%
8. Indentation 42%
9. Surface (Surface Science) 40%
10. Composite Material 38%
11. Creep Property 31%
12. Film 31%
13. Strain Rate 31%
14. Density 29%
15. Nanoindentation 26%
16. Elastic Moduli 25%
17. Ni-based Single Crystal Superalloy 25%
18. Fatigue Behavior 24%
19. Nickel-Based Superalloys 23%
20. Crystal Plasticity 23%
21. Piezoelectricity 23%
22. Solder Joint 19%
23. Stress Relaxation 18%
24. Composite Laminate 18%
25. Low-Cycle Fatigue 18%
26. Crack Propagation 17%
27. Scanning Electron Microscopy 16%
28. Finite Element Modeling 16%
29. Lubrication 15%
30. Ultimate Tensile Strength 14%
31. Yield Stress 13%
32. Fatigue Crack 13%
33. Glass Transition Temperature 13%
34. Lead-Free Solder 12%
35. Plastic Deformation 12%
36. Residual Stress 12%
37. Snap-Through 12%
38. Crack Initiation 12%
39. Intermetallics 12%
40. Grain Boundary 11%
41. Tensile Property 11%
42. Activation Energy 11%
43. Young's Modulus 11%
44. Volume Fraction 11%
45. Silver Nanoparticle 11%
46. Shape Memory Effect 10%
47. Metamaterial 10%
48. Plasticity Theory 10%
49. Thermal Cycling 9%
50. Nucleation 9%
51. Crystal Orientation 9%
52. Stress Concentration 9%
53. Structural Heterogeneity 9%
54. Amorphous Alloys 9%
55. Aircraft 9%
56. Sintering 9%
57. Structural Relaxation 8%
58. Fracture Behavior 8%
59. Tensile Loads 8%
60. Surface Roughness 8%
61. Thin Films 8%
62. Heat Treatment 8%
63. Materials Property 7%
64. Fatigue Damage 7%
65. Deformation Mechanism 7%
66. High Entropy Alloys 7%
67. Damage Evolution 7%
68. Thermal Fatigue 7%
69. Oxide Compound 6%
70. Annealing 6%
71. Polysiloxane 6%
72. Corrosion Resistance 6%
73. Aluminum Alloy 6%
74. Corrosion 6%
75. Delamination 6%
76. Stress Field 6%
77. Point Defect 6%
78. Crack Growth 6%
79. Poisson Ratio 5%
80. Internal Friction 5%
81. Composite Material 5%
82. Hydrodynamics 5%
83. Silver Nanoparticle 5%
84. Fretting Fatigue 5%
85. Thermal Barrier Coating 5%
86. Carbon Fiber 5%
87. Rotor System 5%
88. Anisotropy 5%
89. Silver 5%
90. Glass Transition 5%
91. Physical Property 5%
92. Shear Band 5%
93. Amorphous Material 5%
94. Viscoelasticity 5%
95. Void Growth 5%
96. Dynamic Mechanical Analysis 5%
97. Mechanical Metamaterials 5%
98. Thermal Conductivity 5%
99. Bicrystal 5%

Engineering

1. Creep 71%
2. Single Crystal Superalloys 59%
3. Finite Element Analysis 57%
4. Blade Turbine 42%
5. Rotors 36%
6. Harvester 32%
7. Cooling Hole 32%
8. Constitutive Model 31%
9. Fatigue Life 29%
10. Rotor System 29%
11. Experimental Result 29%
12. Joints (Structural Components) 27%
13. Dynamic Response 25%
14. Piezoelectric 24%
15. Energy Harvesting 21%
16. Strain Rate 20%
17. Fatigue Behavior 20%
18. Indentation 19%
19. Low Cycle Fatigue 18%
20. Optimization Method 18%
21. Multidisciplinary Design Optimization 16%
22. Finite Element Modeling 16%
23. Bulk Metallic Glass 15%
24. Crystallographic Orientation 15%
25. Tensiles 15%
26. Design Optimization 15%
27. Resonant Frequency 14%
28. Dynamic Behavior 14%
29. Numerical Example 13%
30. Finite Element Simulation 13%
31. Simulation Result 13%
32. Reliability Analysis 13%
33. Band Gap 13%
34. Transients 12%
35. Nonlinear Response 12%
36. Anisotropic 12%
37. Slip System 12%
38. Engineering 12%
39. Creep Test 11%
40. Directional 11%
41. Creep Behavior 10%
42. Aerodynamics 10%
43. Mechanical Fatigue Test 10%
44. Numerical Study 10%
45. Stress Concentration 10%
46. Good Agreement 10%
47. Kriging Model 10%
48. Free Solder 9%
49. Failure Probability 9%
50. Crack Propagation 9%
51. Tensile Property 9%
52. Silver Nanoparticle 9%
53. Residual Stress 9%
54. Disc Turbine 9%
55. Resolved Shear Stress 9%
56. Genetic Algorithm 9%
57. Yield Point 9%
58. Optimal Design 8%
59. Maximum Stress 8%
60. Room Temperature 8%
61. Plasticity Theory 8%
62. Damage Evolution 8%
63. Proper Orthogonal Decomposition 8%
64. Boundary Condition 8%
65. Bearing System 8%
66. Experimental Investigation 8%
67. Crack Initiation 8%
68. Turbine 8%
69. Shape Memory Alloy 8%
70. Failure Mechanism 8%
71. Harmonics 8%
72. Optimisation Problem 8%
73. Wind Power 7%
74. Plastic Deformation 7%
75. Non-Linear Dynamics 7%
76. Fracture Surface 7%
77. Aero-Engines 7%
78. Objective Function 7%
79. Snap-Through 7%
80. Damage Model 7%
81. Modulus of Elasticity 7%
82. Tensile Test 7%
83. Fatigue Performance 7%
84. Blade Cooling 7%
85. Fatigue Property 7%
86. Porosity 7%
87. Crystal Orientation 7%
88. Tensile Loads 7%
89. Life Prediction 7%
90. Temperature Range 6%
91. Ultimate Tensile Strength 6%
92. Multiscale 6%
93. Fatigue Failure 6%
94. Intermetallics 6%
95. Stiffened Panel 6%
96. Performance Function 6%
97. Gas Turbine 6%
98. Young's Modulus 6%
99. Life Prediction Model 6%
100. Nonlinearity 6%