Research Areas

We integrate biological systems, materials science, and process engineering to develop scalable solutions for regenerative medicine, carbon management, and the circular bioeconomy.

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Biomaterials & Regenerative Engineering

We engineer next-generation biomaterials by transforming biological resources into high-performance products for healthcare and regenerative applications. Our research integrates biomaterial extraction, molecular characterization, material processing, and product development to create functional collagen-based materials, injectable hydrogels, bioinks, wound care systems, and tissue engineering scaffolds. With an emphasis on scalable manufacturing and clinical translation, we develop biomaterials that combine biological functionality with engineering performance, bridging the gap between laboratory innovation and real-world biomedical products.

Collaborative / Funded Projects

Development of Sustainable and Indigenous Porcine Collagen Extraction Technology for Corneal and Bone Regeneration in Battlefield Injuries

Funding:DIA-COE, DRDOCollab:DRDO INMAS, KORE AMMR, AIIMS Rishikesh, IITD, Himedia

Lab Projects

  • 1.Development and Characterization of Hydrogel Bioinks for 3D Printing of Cell-laden Wound Patches – in collaboration with Kore Additive Manufacturing and Medical Reconstruction Pvt. Ltd.
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Bioprocess Scale-up & Product Recovery

Efficient recovery and manufacturing are essential for translating biological discoveries into commercially viable products. Our research focuses on designing robust downstream processing strategies for the extraction, purification, concentration, and stabilization of high-value biomolecules. We develop scalable bioprocesses that integrate recovery technologies, process optimization, pilot-scale validation, and manufacturing principles to improve product quality, yield, and cost-effectiveness. From laboratory-scale proof-of-concept to industrial production, we engineer processes that enable sustainable and economically feasible biomanufacturing.

Collaborative / Funded Projects

Downstream process development for microalgal metabolites as photo-antimicrobials

Funding:IITR (FIG)Collab:BRIC-NABI, EDNA Biolabs

Lab Projects

  • 1. Developing downstream process for the protein recovery from Spirulina biomass
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Algal Biomanufacturing & Decarbonisation

We harness the remarkable potential of microalgae as sustainable biological factories for producing high-value products while addressing environmental challenges. Our research spans photobioreactor design, algal cultivation, carbon capture and utilization, downstream recovery of proteins and bioactive compounds, and integrated biorefinery development. By combining biological engineering with process innovation, we develop scalable algal technologies for carbon-neutral/negative manufacturing, functional ingredients, environmental remediation, and climate-resilient industrial applications.

Collaborative / Funded Projects

Algal Biomanufacturing for production of functional ingredients and climate-resilient industrial applications

Funding:IITRCollab:Environ Algae,IITD
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Water Circularity and Environmental Health

Our research develops engineering solutions that transform water from a waste stream into a valuable resource. We design integrated systems for water and wastewater treatment, real-time monitoring, contaminant removal, resource recovery, and water reuse within circular economy frameworks. By combining biological treatment technologies with environmental sensing, process engineering, and data-driven management, we create sustainable solutions that improve water security while recovering nutrients, energy, and valuable products. Our work supports resilient water infrastructure and sustainable industrial practices across the Food-Water-Energy Nexus.

Collaborative / Funded Projects

Water Quality Assessment of Microbiological and Heavy Metal Contamination under the Roorkee Health Intelligence Pilot (RHIP

Funding:Asahi India Glass Ltd.