Martin Britto Dhas S. A

Dr. Martin Britto Dhas S. A


Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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20 April 2020 in The Journal of Physical Chemistry C
Verified
Journal Article
Closed access
ASAswathappa Sivakumar
Aswathappa Sivakumar
SSShanmugam Soundarya
Shanmugam Soundarya
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A
KBK. Kamala Bharathi
K. Kamala Bharathi
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A

24 September 2020 in Journal of Nanostructure in Chemistry
Verified
Journal Article
Closed access
PDF file
ARA. Rita
A. Rita
ASA. Sivakumar
A. Sivakumar
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A

11 June 2020 in Crystal Growth & Design
Verified
Journal Article
Closed access
ASA. Sivakumar
A. Sivakumar
SDS. Reena Devi
S. Reena Devi
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A
RKR. Mohan Kumar
R. Mohan Kumar
KBK. Kamala Bharathi
K. Kamala Bharathi
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A

16 January 2019 in Materials Research Express
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Journal Article
Closed access
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ASA. Sivakumar
A. Sivakumar
CVC. Victor
C. Victor
MNM. Muralidhr Nayak
M. Muralidhr Nayak
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A

22 May 2018 in Journal of Electronic Materials
Verified
Journal Article
Closed access
PDF file
ASA. Sivakumar
A. Sivakumar
SSS. Suresh
S. Suresh
JPJ. Anto Pradeep
J. Anto Pradeep
SBS. Balachandar
S. Balachandar
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A

8 August 2019 in Journal of Nanostructure in Chemistry
Verified
Journal Article
Open access
PDF file
ARA. Rita
A. Rita
ASA. Sivakumar
A. Sivakumar
MAMartin Britto Dhas S. A
Martin Britto Dhas S. A
The present work is focused on stability of shock wave-exposed copper oxide (CuO) nanoparticles. CuO nanoparticles are synthesized by chemical reduction method and exposed to 100 shock pulses having Mach number 2.4. The table top semiautomatic pressure-driven shock tube is used to generate shock waves for the present experiment. The influence of shock waves on the treated and untreated CuO nanoparticles are explored and characterized by a variety of properties like structural, molecular and morphological details observed using powder XRD, FTIR and SEM, respectively. The powder XRD profile confirmed that there are no lattice defects or any deformation except negligible changes in grain size. SEM images established that the shock wave-loaded CuO nanoparticles have good structural and morphological stability. The obtained results showed that CuO nanoparticles can be used in aerospace, nuclear reactors and high-pressure applications which undergo extreme conditions. The details are presented intensely in the following sections. Graphic abstract