Dibya Jyoti Borah
Centre of Plasma Physics - Institute for Plasma Research (CPP-IPR), Dibrugarh University
About
Dr. Borah currently works at CIMPLE-PSI Laboratory, CPP-IPR, India. More recently, working towards the graphene-based transition metal oxides nanocomposites for achieving highly sensitive and selective sensors. He had also worked at Material Science Laboratory, Department of Physics, Dibrugarh University, Dibrugarh. Research focused on fabrication/synthesis of transition metal oxides thin films/quantum dots for application of optoelectronic and gas sensor devices. Growth of crystalline quantum dots employing a modified top-down approach. Gaining insight nature of defects, opto-structural relationships between thin film and quantum dots.
Employment
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Centre of Plasma Physics - Institute for Plasma Research (CPP-IPR) Postdoctoral Research Fellow2023 - Present
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Dibrugarh University Ph. D.2019 - 2023
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Dibrugarh University M. Phil.2017 - 2018
Education
Education history is unavailable.
Projects & Funding
Projects & funding information is unavailable.
Publications (8)
- Radio-frequency controlled crystalline phase transformation of MoS2 thin film fabricated by unique vapour-plasma mixing technique Save
- An investigation on the structural and optical properties of mercaptosuccinic acid capped cadmium telluride quantum dots Save
- Tailoring the crystalline phase and size of the MoO3 quantum dots via sonication induced modified top-down method Save
- Tuning temperature-dependent microstructural properties of tungsten oxide thin films for acetone sensor Save
- Influence of Cd content on structural and optical properties of chemical bath deposited Cd xPb1−xS thin films Save
- Investigation on dispersion parameters of Molybdenum Oxide thin films via Wemple–DiDomenico (WDD) single oscillator model Save
- Modified top-down approach for synthesis of molybdenum oxide quantum dots: Sonication induced chemical etching of thin films Save
- Effect of thickness and post deposition annealing temperature on the structural and optical properties of thermally evaporated molybdenum oxide films Save