A. Sakunthala

Dr. A. Sakunthala


Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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22 January 2021 in Journal of Materials Science: Materials in Electronics
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Journal Article
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MSManjula R. Shenoy
Manjula R. Shenoy
ASA. Sakunthala
A. Sakunthala
VBVidhya Bhojan
Vidhya Bhojan
RSRajesh Swaminathan
Rajesh Swaminathan
NRNandhakumar Raju
Nandhakumar Raju
MRM. V. Reddy
M. V. Reddy

8 September 2020 in Journal of Materials Science: Materials in Electronics
Verified
Journal Article
Closed access
PDF file
MSManjula R. Shenoy
Manjula R. Shenoy
ASA. Sakunthala
A. Sakunthala
M V Venkatashamy ReddyM V Venkatashamy Reddy
M V Venkatashamy Reddy
GKGovindan Kadarkarai
Govindan Kadarkarai
JSJ Suryakanth
J Suryakanth
AJArout Chelvane Jeyaramane
Arout Chelvane Jeyaramane

19 May 2020 in Ionics
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Journal Article
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ASAshwini Swaminathan
Ashwini Swaminathan
RRRanjithkumar Ravi
Ranjithkumar Ravi
MSM. Sasikumar
M. Sasikumar
MDMahadevaiah Dasaiah
Mahadevaiah Dasaiah
GHG. Hirankumar
G. Hirankumar
ASA. Sakunthala
A. Sakunthala

13 March 2018 in ACS Omega
Verified
Journal Article
Open access
PKP. Senthil Kumar
P. Senthil Kumar
ASA. Sakunthala
A. Sakunthala
ETEng Soon Tok
Eng Soon Tok
Stefan AdamsStefan Adams
Stefan Adams
M V Venkatashamy ReddyM V Venkatashamy Reddy
M V Venkatashamy Reddy
Pristine trivanadate (LiV3O8) and doped lithium trivanadate (LiV3–xMxO8, M = Zn/Co/Fe/Sn/Ti/Zr/Nb/Mo, x = 0.01/0.05/0.1 M) compounds were prepared by a simple reflux method in the presence of the polymer, Pluronic P123, as the chelating agent. For comparison, pristine LiV3O8 alone was also prepared in the absence of the chelating agent. The Rietveld-refined X-ray diffraction patterns shows all compounds to exist in the layered monoclinic LiV3O8 phase belonging to the space group of P21/m. Scanning electron microscopy analysis shows the particles to exhibit layers of submicron-sized particles. The electrochemical performances of the coin cells were compared at a current density of 30 mA/g in the voltage window of 2–4 V. The cells made with compounds LiV2.99Zr0.01O8 and LiV2.95Sn0.05O8 show a high discharge capacity of 245 ± 5 mA h/g, with an excellent stability of 98% at the end of the 50th cycle. The second cycle discharge capacity of 398 mA h/g was obtained for the compound LiV2.99Fe0.01O8, and its capacity retention was found to be 58% after 50 cycles. The electrochemical performances of the cells were correlated with the electrical properties and the changes in the structural parameters of the compounds.

24 October 2019 in Journal of Materials Science: Materials in Electronics
Verified
Journal Article
Closed access
PDF file
PSPavithra Shanmugaraj
Pavithra Shanmugaraj
ASAshwini Swaminathan
Ashwini Swaminathan
RRRanjith Kumar Ravi
Ranjith Kumar Ravi
MDMahadevaiah Dasaiah
Mahadevaiah Dasaiah
PKP. Senthil Kumar
P. Senthil Kumar
ASA. Sakunthala
A. Sakunthala