
My research primarily focuses on applying surface engineering techniques to improve properties such as wear, corrosion, scratch resistance, aesthetics, adhesion, etc. In particular, my efforts are targeted towards developing novel protective coatings to design next-generation improved materials that can be employed in energy, automotive, defense, and aerospace. Recently, I have ventured into the field of template assisted nanofabrication. With a view that 3D template approach could lead to positive steps towards higher energy and power performance, I am working to develop supercapacitor electrode material through template assisted nanofabrication.
(i) development of ordered nanoporous alumina through two step anodisation process and synthesis of Ni nanowires (inside pores through electrodeposition route) for storage devices and bio-tribological applications.
(ii) utilize nanoporous alumina as template for fabricating 3-dimensional porous supercapacitor electrode material for electric mobility
(iii) computational modelling of steady state pore growth kinetics and self-ordering in nanoporous alumina
(i) Development of nanoporous metallic membranes
(ii) In-situ synthesis of nanoparticles inside hydrogel architecture
(iii) High toughness polymer foam though freeze drying technique
Mechanical characterization via micro and nano-indentation
Tribological characterization via fretting, micro-scratch and ball-on-disc
Phase analysis via X-ray Diffraction, Raman spectroscopy, UV-Vis Spectrophotometry
Microstructural characterization via optical, scanning electron microscopy and transmission electron microscopy
Surface characterization via optical profilometry
Softwares: Comsol Multiphysics, Abaqus, Matlab
Template Assisted nanofabrication, Computational Modelling of Nanostructures, Surface Engineering, Multiscale length Tribology, Electrochemistry