Handbook of Energy Materials 2022
DOI: 10.1007/978-981-16-4480-1_18-1
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Metal Sulfides and Phosphides for Supercapacitors

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“…Pseudocapacitance arises from Faradaic redox reactions (not limited by solid-state diffusion and cognate with high rate capability and diffusion length) occurring at the nanoscale electrode surface . Conventional transition pseudocapacitive materials (oxides/sulfides/phosphides) possess a narrow potential window fostering high energy and power densities by means of mass, heat, and charge transfer with phase transitions. , These materials are exorbitant in terms of availability and exhibit profuse oxidation states at different potentials with elevated conductivity, promoted by the crystal lattice for efficient charge transport. However, oxide/hydroxide composites retain (i) a low power density caused by limited electrical conductivity, restricting the electron transfer rates, and (ii) poor cyclability attributed to morphological deterioration during cycling, such as particle swelling and agglomeration.…”
Section: Introductionmentioning
confidence: 99%
“…Pseudocapacitance arises from Faradaic redox reactions (not limited by solid-state diffusion and cognate with high rate capability and diffusion length) occurring at the nanoscale electrode surface . Conventional transition pseudocapacitive materials (oxides/sulfides/phosphides) possess a narrow potential window fostering high energy and power densities by means of mass, heat, and charge transfer with phase transitions. , These materials are exorbitant in terms of availability and exhibit profuse oxidation states at different potentials with elevated conductivity, promoted by the crystal lattice for efficient charge transport. However, oxide/hydroxide composites retain (i) a low power density caused by limited electrical conductivity, restricting the electron transfer rates, and (ii) poor cyclability attributed to morphological deterioration during cycling, such as particle swelling and agglomeration.…”
Section: Introductionmentioning
confidence: 99%