The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance

The current study investigated the effects of active material, conductive additives, and binder in a composite electrode on battery performance. In addition, the parameters related to cell performance as well as side reactions were integrated in an electrochemical model. In order to predict the cell...

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Main Author: Yoon Koo Lee
Format: Article
Language:English
Published: MDPI AG 2019-02-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/12/4/658
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spelling doaj-cd485979a2ad44eba00cad2fd3eef4292020-11-25T02:53:17ZengMDPI AGEnergies1996-10732019-02-0112465810.3390/en12040658en12040658The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery PerformanceYoon Koo Lee0Battery R&amp;D, LG Chem, Ltd., 36, Janggunmaeul 3-gil, Gwacheon 13818, KoreaThe current study investigated the effects of active material, conductive additives, and binder in a composite electrode on battery performance. In addition, the parameters related to cell performance as well as side reactions were integrated in an electrochemical model. In order to predict the cell performance, key parameters including manganese dissolution, electronic conductivity, and resistance were first measured through experiments. Experimental results determined that a higher ratio of polymer binder to conductive additives increased the interfacial resistance, and a higher ratio of conductive additives to polymer binder in the electrode resulted in an increase in dissolved transition metal ions from the LiMn<sub>2</sub>O<sub>4</sub> composite electrode. By performing a degradation simulation with these parameters, battery capacity was predicted with various fractions of constituents in the composite electrode. The present study shows that by using this integrated prediction method, the optimal ratio of constituents for a particular cathode composite electrode can be specified that will maximize battery performance.https://www.mdpi.com/1996-1073/12/4/658Lithium ion batterycathodecomposite electrodedegradationsimulationtransition metal dissolution
collection DOAJ
language English
format Article
sources DOAJ
author Yoon Koo Lee
spellingShingle Yoon Koo Lee
The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
Energies
Lithium ion battery
cathode
composite electrode
degradation
simulation
transition metal dissolution
author_facet Yoon Koo Lee
author_sort Yoon Koo Lee
title The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
title_short The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
title_full The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
title_fullStr The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
title_full_unstemmed The Effect of Active Material, Conductive Additives, and Binder in a Cathode Composite Electrode on Battery Performance
title_sort effect of active material, conductive additives, and binder in a cathode composite electrode on battery performance
publisher MDPI AG
series Energies
issn 1996-1073
publishDate 2019-02-01
description The current study investigated the effects of active material, conductive additives, and binder in a composite electrode on battery performance. In addition, the parameters related to cell performance as well as side reactions were integrated in an electrochemical model. In order to predict the cell performance, key parameters including manganese dissolution, electronic conductivity, and resistance were first measured through experiments. Experimental results determined that a higher ratio of polymer binder to conductive additives increased the interfacial resistance, and a higher ratio of conductive additives to polymer binder in the electrode resulted in an increase in dissolved transition metal ions from the LiMn<sub>2</sub>O<sub>4</sub> composite electrode. By performing a degradation simulation with these parameters, battery capacity was predicted with various fractions of constituents in the composite electrode. The present study shows that by using this integrated prediction method, the optimal ratio of constituents for a particular cathode composite electrode can be specified that will maximize battery performance.
topic Lithium ion battery
cathode
composite electrode
degradation
simulation
transition metal dissolution
url https://www.mdpi.com/1996-1073/12/4/658
work_keys_str_mv AT yoonkoolee theeffectofactivematerialconductiveadditivesandbinderinacathodecompositeelectrodeonbatteryperformance
AT yoonkoolee effectofactivematerialconductiveadditivesandbinderinacathodecompositeelectrodeonbatteryperformance
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