Research

My research pioneers the future of flexible electronics by merging materials science,
bioengineering, and advanced additive manufacturing. I develop scalable printing
technologies to create stretchable bio- and nano-electronic devices on accessible
substrates like paper and commercial plasters. Whether formulating novel functional
materials, refining high-resolution printing processes, or building mechanically robust 3D
architectures, my goal is to engineer cost-effective, high-performance technologies for
the healthcare and sustainability sectors.

Sustainable Green Electronics

Healthcare and Bioelectronics

Advanced Manufacturing Platforms

Materials for Functional Devices

Wearables and Smart Textiles

Sustainable Green Electronics

Engineering biodegradable and eco-friendly electronic materials to reduce global e-
waste and drive environmental responsibility in electronics.

Healthcare & Bioelectronics

Developing next-generation biostimulant platforms, drug delivery systems, and non - invasive health monitoring devices

Advanced Manufacturing Platforms

Leveraging aerosol jet, inkjet, and bioprinting technologies to scale high-precision, mechanically robust 2D and 3D device architectures.

Materials for Functional Devices

We are using green chemistry and scalable processes to design and synthesize novel material with functional properties without compromising biodegradability and biocompatibility.

Wearables & Smart Textiles

Translating flexible and stretchable nano-electronics onto everyday substrates like textiles, paper, plastics, and commercial plasters.

GRANTS AND PROJECTS

2025-2027 IEEE Distinguished Lecturer
2025-2028 IGSTC WISER grant, India
2025-2028 URB Startup grant, Ahmedabad University, India