171
© National Technology & Engineering Solutions of Sandia, LLC 2021
M. Alston, T. N. Lambert (eds.), Energy-Sustainable Advanced Materials,
https://doi.org/10.1007/978-3-030-57492-5
A
Absorption enhancement methods, 134
Advanced superionic conductors, 89
Alkaline batteries, 8, 9, 18–20
Anion-exchange fuel cells, 87, 107, 108
Anodes, 45, 46
Anodized aluminum oxide (AAO), 132, 138,
143, 146–147
Anti-reflection (AR) nanostructures
coating, 134
fabrication methods, 140
Lambertian scatterer, 135
light absorption, 134
metallic nanoparticles, 136, 138
nanocone and nanospike, 136
nanocone array, PDMS, 138, 139
organo-metal halide perovskite
materials, 140
PDMS AR layer, 138
PDMS nanocone, 138, 140
perovskite films, 140, 141
plasmonic effect, 136
reflectance of film, 138
silicon solar cells, 135–137
strategies, 134
superhydrophobicity property, 140
3-D nanostructures, 135
Aqueous cathodes, 75, 76
Auger recombination, 135
B
Batteries
energy storage sector, 109
heavy lead-acid, 86
lithium ion, 93, 110, 111
magnesium ion, 110
MOFs, 114, 115
polymer nanocomposites
for Li-ion, 111, 112
magnesium ion, 113
PMMA, 113
sodium-based, 113
primary, 109
secondary, 109
supercapacitors, 116
traditional aqueous, 109
Battery design, 78
Battery systems, 1
Borates, 68, 70, 71
C
Cambridge Structural Database (CSD), 107
Carbon nanotubes (CNTs), 34, 97
Carbonate salts, 157
Carrier collection, 129, 130, 149
Cathode manganese oxide, 30
Cathodes
air (O 2 ), 76, 77
aqueous cathodes, 75, 76
ionic liquids, 75
molten metals, 77, 78
molten salts, 74
sodium battery technologies, 71
sulfur, 71, 72
Cation-exchange fuel cells, 91
Cellophane layer, 9
Ceramic particles, 112
Chloride salts, 157
Composite nanomaterials, 159
COMSOL Multiphysics software, 146
Index