結構可控性與異質改質石墨烯之功能性材料研究及其於儲能及產能元件之應用(2/3)

Keyphrases

1. 3D Graphene 46%
2. Polymer-graphene Nanocomposites 40%
3. Interface Diffusion 40%
4. Interface Chemistry 40%
5. Chemistry Model 40%
6. Anti-corrosion 40%
7. Diffusion Model 40%
8. Graphene 40%
9. MoSx 40%
10. High Efficiency 40%
11. Hybrid Electrode 40%
12. Photocatalytic Hydrogen Generation 40%
13. Anticorrosive Coating 24%
14. Graphene-based Materials 22%
15. Graphene Flakes 21%
16. Functionalized Graphene 20%
17. Energy Devices 20%
18. 3D Porosity 20%
19. Controlled Nanostructures 20%
20. Graphene Electrodes 20%
21. Hydrogen Evolution Reaction 19%
22. Electrochemically Exfoliated Graphene 16%
23. Epoxy 16%
24. Miscibility 16%
25. Material Properties 13%
26. Heteroatom Doping 13%
27. Supercapacitor 13%
28. Graphene Structure 13%
29. Energy Storage 13%
30. Active Sites 13%
31. Water Splitting 13%
32. Polymer Composite Coating 8%
33. Galvanic Coupling 8%
34. Graphene-loaded 8%
35. Polymer-graphene Composite 8%
36. Nanocomposite Synthesis 8%
37. Percolation Network 8%
38. Graphene Additive 8%
39. Pristine Polymer 8%
40. Steel Substrate 8%
41. Surface Functionality 8%
42. Diffusion Coefficient 8%
43. High Chemical Stability 8%
44. Graphene Loading 8%
45. Polymer Matrix 8%
46. Waterborne Polyurethane 8%
47. Diffusion Path 8%
48. Well-dispersed 8%
49. Alternative Means 8%
50. Dispersibility 8%
51. Interfacial Reaction 8%
52. Casting Solvent 8%
53. Oxide Graphene 8%
54. Copper Substrate 8%
55. Lower Corrosion Rate 8%
56. Eco-friendly Method 8%
57. Bilayer Coating 8%
58. Strong Interaction 8%
59. Conductive Network 8%
60. Corrosion Rate 8%
61. Reduced Graphene Oxide 8%
62. Graphene Oxide 8%
63. Polyurethane 8%
64. Galvanic Corrosion 8%
65. Accelerated Corrosion 8%
66. Tafel Slope 6%
67. High Porosity 6%
68. Catalytic Materials 6%
69. (NH4)2MoS4 6%
70. Two Dimensional 6%
71. Conductive Electrode 6%
72. Low Density 6%
73. Hydrogen Energy 6%
74. Freeze-drying Method 6%
75. Reaction in Water 6%
76. Noble Metals 6%
77. Thiosalts 6%
78. Number of Active Sites 6%
79. Electrocatalytic Performance 6%
80. Catalyst Utilization 6%
81. Supporting Electrode 6%
82. Graphene Scaffold 6%
83. Crystallinity 6%
84. Molybdenite 6%
85. Thermolysis 6%
86. High Surface Area 6%
87. Annealing Temperature 6%
88. Electrocatalytic 6%
89. 3D Structure 6%
90. Hydrogen Production 6%
91. Planar Electrode 6%
92. Specific Surface Area 6%
93. Doping Technology 6%
94. Hierarchical Porosity 6%
95. Ultra-low Density 6%
96. Controlling Factors 6%
97. Superelastic 6%
98. Related Potentials 6%
99. Facile Approach 6%
100. Porous Graphene 6%
101. Production Approach 6%
102. Graphene Suspensions 6%
103. Ice Crystals 6%
104. High Activity 6%
105. Nanopore 6%
106. Catalytic Mechanism 6%
107. Induced Dipoles 6%
108. Scalable Fabrication 6%
109. Fuel Cell 6%
110. Biological Tissue 6%
111. Graphene Sheets 6%
112. Doping Concentration 6%
113. High Specific Surface Area 6%
114. Sub-micrometer 6%
115. Superelasticity 6%
116. Oxygen Reduction Reaction 6%
117. Bulk Material 6%
118. Active Metal 6%
119. Reaction Evolution 6%
120. 3D Graphene Structures 6%
121. Oxyhydrogen 6%
122. Hydrogen Evolution Reduction 6%
123. High Catalytic Activity 6%
124. Oxygen Reduction 6%
125. Generation Device 6%
126. Cost-effective Production 6%
127. Doped Graphene 6%
128. Concentration of Production 6%
129. Heteroatom 6%
130. Ice Physics 6%
131. Energy-related Applications 6%
132. Graphene Chemistry 6%
133. Good Electrical Conductivity 6%
134. Energy Generation 6%
135. Scalable Approaches 6%
136. Cellular Monoliths 6%
137. Porosity 6%
138. Ultra-high Density 6%
139. Spin Density 6%
140. Tissue Scaffolds 6%
141. Metal-free Catalyst 6%

Material Science

1. Graphene 100%
2. Polymer Nanocomposites 40%
3. Hydrogen Evolution 23%
4. Water Splitting 20%
5. Nanostructure 20%
6. Density 15%
7. Annealing 10%
8. Platinum 10%
9. Molybdenum 10%
10. Corrosion 8%
11. Polyurethane 5%