Dheeraj Gupta
Thapar Institute of Engineering and Technology (Deemed to be University), Instituto Superior Técnico, Indian Institute of Technology Roorkee
About
Dr. Dheeraj Gupta
Professor & Researcher in Advanced Materials Processing
Dr. Dheeraj Gupta is an internationally recognized researcher in Mechanical Engineering with over 19 years of academic and research excellence. His work focuses on microwave materials processing, advanced surface engineering, and the development of high-performance metallic and ceramic materials for demanding tribological and industrial applications.
He earned his B.E. in Mechanical Engineering from Shri Govindram Seksaria Institute of Technology and Science (SGSITS), Indore, and completed his M.Tech. and Ph.D. from the prestigious Indian Institute of Technology Roorkee (IIT Roorkee), India. He further strengthened his global research profile through active participation in a European Union–funded research project in Lisbon, Portugal, fostering international scientific collaboration and cross-border technology development.
Dr. Gupta’s research integrates advanced processing science with industrial relevance, particularly in:
Microwave cladding and casting technologies
Surface modification and functional coatings
Cavitation erosion resistance
Sustainable and energy-efficient materials processing
Tribological performance enhancement of bulk and composite materials
With over 110 publications in SCI-indexed journals and 60+ international conference presentations, his work demonstrates strong global visibility and citation impact. He has contributed 13+ book chapters to leading international publishers including Springer, Wiley, and Taylor & Francis, reflecting recognition within the global scientific community.
As an innovator, Dr. Gupta holds two Indian patents in microwave cladding and casting technology, contributing to scalable, industry-oriented manufacturing solutions. His recent completion of a DST-SERB (Government of India) funded research project underscores his ability to lead competitively funded research programs aligned with national and international priorities.
A committed mentor and research leader, he has successfully supervised 9 Ph.D. scholars (8 awarded, 1 ongoing) and 26 Master’s theses, building a strong research ecosystem and collaborative academic network.
In recognition of his sustained scientific influence, Dr. Gupta has been listed among the World’s Top 2% Scientists (2022, 2023, and 2024) as identified by Stanford University in partnership with Elsevier—an acknowledgment of both career-long and recent-year research impact.
Global Collaboration Interests
Dr. Gupta actively seeks international collaborations in:
Joint research projects (Horizon Europe, Indo-EU, Indo-US, Indo-UK programs)
Advanced manufacturing and surface engineering initiatives
Sustainable materials processing and green manufacturing technologies
Industrial-academia translational research partnerships
Joint supervision of Ph.D. scholars and postdoctoral researchers
International laboratory exchange programs
His research vision is centered on developing scalable, energy-efficient, and high-performance materials technologies that bridge fundamental science with real-world industrial deployment.
Employment
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Thapar Institute of Engineering and Technology (Deemed to be University) Professor2013 - Present
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Instituto Superior Técnico Researcher2007 - 2008
Education
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Indian Institute of Technology Roorkee Ph.D2009 - 2012
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Indian Institute of Technology Roorkee M.Tech2002 - 2004
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Shri Govindram Seksaria Institute of Technology and Science B.E.1997 - 2001
Projects & Funding
Projects & funding information is unavailable.
Publications (118)
- Surface Characterization, High‐Temperature Tribological Properties of Cu‐Based Tungsten Developed through Microwave Radiations Save
- Microstructural analysis of variable iron–molybdenum reinforcement in copper-based composite castings using microwave energy Save
- A sustainable and energy efficient approach for development of electrically conductive materials and their characterizations Save
- Enhanced microstructural properties of copper composites through Fe-W reinforcement via microwave heating Save
- Experimental investigation and parametric optimization of neurosurgical bone grinding under bio-mimic environment Save
- Green manufacturing of rGO-reinforced Cu-based MMCs with optimized properties through microwave hybrid heating process Save
- Investigation of Frictional Deformation on Mechanical and Metallurgical Properties of Ni-based Functionally Graded Materials Developed by Wire and Arc Additive Manufacturing Save
- Microwave-assisted in-situ fabrication of copper reinforced with molybdenum and tungsten particles Save
- ON MICROSTRUCTURE AND CAVITATION EROSION BEHAVIOR OF MICROWAVE-SYNTHESIZED Ni-Al2O3-BASED COMPOSITE CLADDINGS Save
- SURFACE MODIFICATION OF SS-316 TO ENHANCE CAVITATION RESISTANCE THROUGH COMPOSITE MICROWAVE CLADS Save