Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles

Abstract Modulation of lithium-ion battery (LIB) anodes/cathodes with three-dimensional (3D) topographical hierarchy ridges, surface interfaces, and vortices promotes the power tendency of LIBs in terms of high-energy density and power density. Large-scale meso-geodesics offer a diverse range of spa...

Descripción completa

Guardado en:

Detalles Bibliográficos
Autores principales:	H. Khalifa, S. A. El-Safty, A. Reda, M. A. Shenashen, M. M. Selim, O. Y. Alothman, N. Ohashi
Formato:	article
Lenguaje:	EN
Publicado:	Nature Portfolio 2019
Materias:	Medicine R Science Q
Acceso en línea:	https://doaj.org/article/88ea67cf18914b36a608eb31ead86542
Etiquetas:	Agregar Etiqueta Sin Etiquetas, Sea el primero en etiquetar este registro!

id	oai:doaj.org-article:88ea67cf18914b36a608eb31ead86542
record_format	dspace
spelling	oai:doaj.org-article:88ea67cf18914b36a608eb31ead865422021-12-02T15:09:15ZMeso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles10.1038/s41598-019-51345-z2045-2322https://doaj.org/article/88ea67cf18914b36a608eb31ead865422019-10-01T00:00:00Zhttps://doi.org/10.1038/s41598-019-51345-zhttps://doaj.org/toc/2045-2322Abstract Modulation of lithium-ion battery (LIB) anodes/cathodes with three-dimensional (3D) topographical hierarchy ridges, surface interfaces, and vortices promotes the power tendency of LIBs in terms of high-energy density and power density. Large-scale meso-geodesics offer a diverse range of spatial LIB models along the geodetically shaped downward/upward curvature, leading to open-ended movement gate options, and diffusible space orientations. Along with the primary 3D super-scalable hierarchy, the formation of structural features of building block egress/ingress, curvature cargo-like sphere vehicles, irregularly located serrated cuticles with abundant V-undulated rigidness, feathery tube pipe conifers, and a band of dagger-shaped needle sticks on anode/cathode electrode surfaces provides high performance LIB modules. The geodetically-shaped anode/cathode design enables the uniqueness of all LIB module configurations in terms of powerful lithium ion (Li+) movement revolving in out-/in- and up-/downward diffusion regimes and in hovering electron density for high-speed discharge rates. The stability of built-in anode//cathode full-scale LIB-model meso-geodesics affords an outstanding long-term cycling performance. The full-cell LIB meso-geodesics offered 91.5% retention of the first discharge capacity of 165.8 mAhg−1 after 2000 cycles, Coulombic efficiency of ~99.6% at the rate of 1 C and room temperature, and high specific energy density of ≈119 Wh kg−1. This LIB meso-geodesic module configuration may align perfectly with the requirements of the energy density limit mandatory for long-term EV driving range and the scale-up commercial manufactures.H. KhalifaS. A. El-SaftyA. RedaM. A. ShenashenM. M. SelimO. Y. AlothmanN. OhashiNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 9, Iss 1, Pp 1-17 (2019)
institution	DOAJ
collection	DOAJ
language	EN
topic	Medicine R Science Q
spellingShingle	Medicine R Science Q H. Khalifa S. A. El-Safty A. Reda M. A. Shenashen M. M. Selim O. Y. Alothman N. Ohashi Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
description	Abstract Modulation of lithium-ion battery (LIB) anodes/cathodes with three-dimensional (3D) topographical hierarchy ridges, surface interfaces, and vortices promotes the power tendency of LIBs in terms of high-energy density and power density. Large-scale meso-geodesics offer a diverse range of spatial LIB models along the geodetically shaped downward/upward curvature, leading to open-ended movement gate options, and diffusible space orientations. Along with the primary 3D super-scalable hierarchy, the formation of structural features of building block egress/ingress, curvature cargo-like sphere vehicles, irregularly located serrated cuticles with abundant V-undulated rigidness, feathery tube pipe conifers, and a band of dagger-shaped needle sticks on anode/cathode electrode surfaces provides high performance LIB modules. The geodetically-shaped anode/cathode design enables the uniqueness of all LIB module configurations in terms of powerful lithium ion (Li+) movement revolving in out-/in- and up-/downward diffusion regimes and in hovering electron density for high-speed discharge rates. The stability of built-in anode//cathode full-scale LIB-model meso-geodesics affords an outstanding long-term cycling performance. The full-cell LIB meso-geodesics offered 91.5% retention of the first discharge capacity of 165.8 mAhg−1 after 2000 cycles, Coulombic efficiency of ~99.6% at the rate of 1 C and room temperature, and high specific energy density of ≈119 Wh kg−1. This LIB meso-geodesic module configuration may align perfectly with the requirements of the energy density limit mandatory for long-term EV driving range and the scale-up commercial manufactures.
format	article
author	H. Khalifa S. A. El-Safty A. Reda M. A. Shenashen M. M. Selim O. Y. Alothman N. Ohashi
author_facet	H. Khalifa S. A. El-Safty A. Reda M. A. Shenashen M. M. Selim O. Y. Alothman N. Ohashi
author_sort	H. Khalifa
title	Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
title_short	Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
title_full	Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
title_fullStr	Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
title_full_unstemmed	Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles
title_sort	meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of lib electric vehicles
publisher	Nature Portfolio
publishDate	2019
url	https://doaj.org/article/88ea67cf18914b36a608eb31ead86542
work_keys_str_mv	AT hkhalifa mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT saelsafty mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT areda mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT mashenashen mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT mmselim mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT oyalothman mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles AT nohashi mesomacroscopicallymultifunctionalsurfaceinterfacesridgesandvortexmodifiedanodecathodecuticlesasforcedrivenmodulationofhighenergydensityoflibelectricvehicles
_version_	1718387886956478464

Meso/macroscopically multifunctional surface interfaces, ridges, and vortex-modified anode/cathode cuticles as force-driven modulation of high-energy density of LIB electric vehicles

Ejemplares similares