1989
DOI: 10.1016/0921-5107(89)90203-1
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Lithium insertion in layered materials as battery cathodes

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Cited by 38 publications
(11 citation statements)
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“…Copyright 1986 Kluwer Academic Press coordination that changes the octahedral one (TP ! Oh transition) [26][27][28]. The structure modification is accompanied by an increase of the M-X band ionicity in agreement with the respective stability of the new atomic arrangement, the Coulomb repulsion between partially charged ligands favoring the octahedral form.…”
Section: Lithium Intercalation In 2h-mossupporting
confidence: 56%
See 1 more Smart Citation
“…Copyright 1986 Kluwer Academic Press coordination that changes the octahedral one (TP ! Oh transition) [26][27][28]. The structure modification is accompanied by an increase of the M-X band ionicity in agreement with the respective stability of the new atomic arrangement, the Coulomb repulsion between partially charged ligands favoring the octahedral form.…”
Section: Lithium Intercalation In 2h-mossupporting
confidence: 56%
“…4.12) [31]. This superlattice formation was also observed in the incremental capacity dQ/dV obtained from electrochemical measurements [28] and in the Raman scattering spectra of Li 0.3 MoS 2 [32,33]. However, we do expect that the lithiation process is accompanied by the raising of the Fermi level due to the charge transfer from Li intercalation.…”
Section: Lithium Intercalation In 2h-mosmentioning
confidence: 54%
“…[ 5,6 ] Intercalation chemistry in layered compounds, where the van der Waals (vdW) gap of the host compound is filled with guest (intercalant) atoms [ 7 ] or molecules, [ 8 ] is a cornerstone in many processes and forms the basis of modern energy storage devices. [ 9,10 ] In some cases, the intercalation process is designed to modify the properties of the host material, [ 11 ] whereas in other cases, intercalation produces a continuous 2D material of interest, that would be hard to realize without the template of the confining environment of the vdW gap. For example, 2D gallium and indium that are grown by atomic intercalation at the interface of SiC and graphene, show potential for superconducting devices, topological phenomena, and advanced optoelectronic properties.…”
Section: Introductionmentioning
confidence: 99%
“…Furthermore, the weak van der Waals force between MoS 2 layers allows Li + ions to diffuse without a significant increase in volume expansion. These properties make MoS 2 an ideal electrode material for advanced LIBs [54, 55]. …”
Section: Moo2 and Mos2 As Promising Electrode Materials For Libsmentioning
confidence: 99%