Hydrogen Storage Technologies

Index

A

• Absolute Hydrogen Adsorption, 268
• Activated carbon, obtention, 182
  • production, 185, 187–189
  • textural parameters, 190
• Activated Carbons, 270–273
• Adsorbed phase density, 269
• Amide/Imide Systems, 41
• Amorphous, 117–119, 123–133, 140–142

B

• Back donation process, 64
• Benificial effect of graphene: key results with light metal hydrides, Alanates as hs materials, 239
  • Borohydrides (tetrahydroborate) as hs material, 236
  • Magnesium hydride as hs material, 243
• BET method, 266

C

• C14 Laves phase, 118–119, 132, 134
• Capacity, discharge, 119, 129–130, 133–142
  • hydrogen, 124, 130–131
• Carbide-derived carbons, 289
• Carbon, fullerenes, 199, 203
  • graphene, 199, 202, 203, 220, 222
  • graphite, 199, 202, 203
  • mesoporous nanofibers, 200, 201
  • microporous activated (ACs), 219
  • multiwalled (MWCNTs), 198, 203–206, 222
  • nanofibers, 200, 201, 222
  • nanoporous, 198
  • nanostructures, 202
  • nanotube (CNTs), 198, 203, 205, 222
  • singlewalled (SWCNTs), 203
• Carbon Aerogels, 293–294
• Carbon Nanohorns, 292
• Carbon Nanomaterials, carbon nanofibers, 279–281
  • carbon nanotubes, 276–279
  • fullerenes, 276
  • graphene, 273–276
• Carbon nanorods, 291–292
• Carbon nanospheres, 292–293
• Carbon nitrides, 293
• Casting method, 119
• Catalyst, NH3 decomposition, 71
  • NH3 Synthesis, 63
• Chahine’s rule, 266
• Combustion, fossil fuels, 180
  • hydrogen, 180
• Composite materials, 210
• Crystal Structure, Calcium Amide/Imide, 49
  • Li-Mg-N-H, 55
  • Li-Na-N-H, 52
  • Lithium Amide/Imide, 41
  • Magnesium Amide/Imide, 47
  • Sodium Amide/Imide, 44

D

• Density Function ...