I am an independent Research Scholar at IIT Bombay, exploring theoretical, computational, and experimental mechanics. My research focuses on nonlinear waves in solids, unraveling phenomena like harmonic generation and scattering. I aim to quantify early-stage damage for structural health monitoring, including super-resolution imaging. Simultaneously, I design linear and nonlinear metamaterials to control elastic waves. My vision is to integrate diverse research domains for innovative solutions in structural damage detection and monitoring, forging a transformative research universe in nonlinear elastic metamaterials.

I am privileged to serve as an independent Research Scholar at the Indian Institute of Technology Bombay (IIT Bombay), where my academic pursuits revolve around the captivating realm of theoretical, computational, and experimental mechanics.

My research endeavors encompass a broad spectrum of exploration, spanning theoretical, computational, and experimental facets. Currently, I am immersed in a dynamic research journey centered on nonlinear waves within solids. This compelling pursuit delves into phenomena as intriguing as harmonic generation, wave mixing, and harmonic scattering, all viewed through the lenses of both theory and computation. My aspiration is to unravel the intricate physics underpinning these nonlinear effects, ultimately empowering us to quantify early-stage damages at the micro-meso scale within solid materials. This breakthrough not only aids in monitoring structural component health but also promises groundbreaking applications in structural and biomedical health monitoring, including the cutting-edge realm of super-resolution imaging. Notably, my research involves the development of bespoke experimental setups from scratch, unveiling the fascinating intricacies of nonlinear wave phenomena within metallic materials.

In parallel, my research takes an innovative turn as I embark on the design and control of linear and nonlinear metamaterials, employing a pioneering inverse design approach. These metamaterials are meticulously crafted to exert precise command over linear and nonlinear elastic waves, functioning adeptly within both the time and frequency domains. The characteristics of these inversely designed metamaterials are diverse, encompassing attributes such as multi-material compositions, periodic and quasi-periodic structures, direction-dependent and direction-independent properties, mode-independent behavior, concealed nonlinear inclusions, and temporal stretching pulses. My research extends to encompass forward design explorations of spatially intricate, functionally graded metamaterials and temporally evolving, 4D metamaterials. These investigations promise to unlock novel responses and functionalities, fueling advances in elastic wave manipulation.

My overarching vision is to seamlessly integrate multiple research domains to drive innovation in the field of health monitoring. I aspire to foster synergies between disparate areas, including Metamaterials, Nonlinear Waves, Inverse Design, Nonlinear Ultrasonics, Physical Acoustics, AI/ML for Structural Health Monitoring, NDE 4.0, IoT, 3D Printing/Additive Manufacturing, Composite Materials, Impact Mechanics, and Fracture Mechanics. By harnessing the collective potential of these domains, my aim is to pioneer innovative solutions for the early detection and monitoring of structural damages.

This journey marks the inception of a transformative research universe, one that revolves around nonlinear elastic metamaterials—a universe poised to redefine the boundaries of elastic wave manipulation.

I am enthusiastic about forging collaborations and connecting with like-minded individuals and organizations committed to advancing knowledge in the field of mechanics and beyond. Together, we can drive pioneering discoveries and innovations that will shape the future of health monitoring and structural integrity.