Multifaceted geometric 3D mesopolytope cathodes and its directional transport gates for superscalable LIB models
Source abstract
Abstract
In this study, we comprehensively describe the hotkeys of polytope geometrics in terms of heterogeneous and high-index components, surface mobility sites, and hollowness and meso-grooves in potential buildup lithium-ion battery (LIB) designs. We have been fabricated superscalable half-, full-, and large-modulated LIB models by using one dimensional nanorod-like capsules of TiO2@nanocarbon shells (1D-TO@C) as anodes and a diverse range of multifaceted exposure mesopolytopes based 3D-LiFePO4@C (3D-LFPO@C) geometrics as cathodes. Large-scale, multi-functional 3D-LFPO@C polytope cathodes can tailor function of variable LIB model geometrics with a wide range of charging/discharging cycles and excellent energy density. The integration of mesopolytope 3D-LFPO@C cathode and sustainable capsule1D-TO@C anode enables fabrication of superscalable LIB-CR2032 coin-cell models. Our powerful, full-scale LIB-CR2032-coin cell models are attained Coulombic performance efficacy of ∼99.89%, discharge capacity of 93.4% after 2000 cycles, and high specific energy density ≈186.98 Wh kg−1, which overrides the requirement for long-driving range of electric vehicles (EVs). Our finding also indicates that the large-scale pouch LIB model designed with dense packing of LIB-CR2032 coin-cells is technically the first polytope LIB-model that fulfilled the energy storage and tradeoff requirements for EVs.
Source: openaire · Quality: candidate unverified · Source record ↗
Research context
OpenAlex topics: Advancements in Battery Materials · Advanced Battery Technologies Research · Supercapacitor Materials and Fabrication
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References (90)
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