VACANCY DIFFUSION IN THE INTERCALATION ELECTRODE LI-1-XNIO2

P G  BRUCE; A  LISOWSKAOLEKSIAK; M Y  SAIDI; C A  VINCENT

VACANCY DIFFUSION IN THE INTERCALATION ELECTRODE LI-1-XNIO2

P G BRUCE
, A LISOWSKAOLEKSIAK
, M Y SAIDI
, C A VINCENT

Research output: Contribution to journal › Article › peer-review

Abstract

The rate of lithium diffusion in the layered intercalation compound Li1-xNiO2 has been investigated. The variation of the chemical diffusion coefficient, D(Li), for lithium and the self diffusion coefficient, D(Li), for Li+ ions, with lithium content is presented. The maximum value for D(Li) = 2 x 10(-7) cm2 s-1 and is amongst the highest observed for a lithium intercalation compound. Within the composition range studied, 0.5 < (1 - x) < 1.0, the ions are transported by a vacancy mechanism. A vacancy diffusion coefficient, D(v), is defined and its variation with lithium composition described. In addition, large thermodynamic enhancement factors are observed.

Original language	English
Pages (from-to)	353-358
Number of pages	6
Journal	Solid State Ionics
Volume	57
Issue number	3-4
Publication status	Published - Oct 1992

Keywords

LI1-XCOO2

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title = "VACANCY DIFFUSION IN THE INTERCALATION ELECTRODE LI-1-XNIO2",

abstract = "The rate of lithium diffusion in the layered intercalation compound Li1-xNiO2 has been investigated. The variation of the chemical diffusion coefficient, D(Li), for lithium and the self diffusion coefficient, D(Li), for Li+ ions, with lithium content is presented. The maximum value for D(Li) = 2 x 10(-7) cm2 s-1 and is amongst the highest observed for a lithium intercalation compound. Within the composition range studied, 0.5 < (1 - x) < 1.0, the ions are transported by a vacancy mechanism. A vacancy diffusion coefficient, D(v), is defined and its variation with lithium composition described. In addition, large thermodynamic enhancement factors are observed.",

keywords = "LI1-XCOO2",

author = "BRUCE, \{P G\} and A LISOWSKAOLEKSIAK and SAIDI, \{M Y\} and VINCENT, \{C A\}",

year = "1992",

month = oct,

language = "English",

volume = "57",

pages = "353--358",

journal = "Solid State Ionics",

issn = "0167-2738",

publisher = "Elsevier",

number = "3-4",

}

TY - JOUR

T1 - VACANCY DIFFUSION IN THE INTERCALATION ELECTRODE LI-1-XNIO2

AU - BRUCE, P G

AU - LISOWSKAOLEKSIAK, A

AU - SAIDI, M Y

AU - VINCENT, C A

PY - 1992/10

Y1 - 1992/10

N2 - The rate of lithium diffusion in the layered intercalation compound Li1-xNiO2 has been investigated. The variation of the chemical diffusion coefficient, D(Li), for lithium and the self diffusion coefficient, D(Li), for Li+ ions, with lithium content is presented. The maximum value for D(Li) = 2 x 10(-7) cm2 s-1 and is amongst the highest observed for a lithium intercalation compound. Within the composition range studied, 0.5 < (1 - x) < 1.0, the ions are transported by a vacancy mechanism. A vacancy diffusion coefficient, D(v), is defined and its variation with lithium composition described. In addition, large thermodynamic enhancement factors are observed.

AB - The rate of lithium diffusion in the layered intercalation compound Li1-xNiO2 has been investigated. The variation of the chemical diffusion coefficient, D(Li), for lithium and the self diffusion coefficient, D(Li), for Li+ ions, with lithium content is presented. The maximum value for D(Li) = 2 x 10(-7) cm2 s-1 and is amongst the highest observed for a lithium intercalation compound. Within the composition range studied, 0.5 < (1 - x) < 1.0, the ions are transported by a vacancy mechanism. A vacancy diffusion coefficient, D(v), is defined and its variation with lithium composition described. In addition, large thermodynamic enhancement factors are observed.

KW - LI1-XCOO2

M3 - Article

SN - 0167-2738

VL - 57

SP - 353

EP - 358

JO - Solid State Ionics

JF - Solid State Ionics

IS - 3-4

ER -

VACANCY DIFFUSION IN THE INTERCALATION ELECTRODE LI-1-XNIO2

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