Emerging Trends in Energy Conversion and Thermo-Fluid Systems

Energy Harvesting Through a Low-Cost Device Using Reverse Electrowetting on Dielectric (REWOD).- Biomass Steam Gasification for Bio-hydrogen Production via Co2 Capture.- Numerically Analysis of Wave Force on a Moving Thin Plate in the Surging Direction.- Impact of Soiling on the Performance of Monocrystalline-Si Photovoltaic Modules Under Different Climatic Conditions in East-Central India.-  Design, Installation, and Performance of a Small Solar Thermal Power Station for Rural Energy Support

Dr. Dilip Sharma is currently a professor in the Department of Mechanical Engineering, Malaviya National Institute of Technology Jaipur (MNIT Jaipur), Rajasthan. He received his masters' degree in Thermal Engineering from IIT Roorkee, and Ph.D. from MNIT Jaipur in 2005. He is a senior academician with over 30 years of experience, and has published over 150 research articles in the international journals and conferences. His research interests include internal combustion engines, alternate fuels and emissions, non-conventional sources of energy, hydrogen energy, engine combustion, cogeneration/trigeneration system, biofuels, combustion generated emission, solar thermal systems, etc.
Dr. Somnath Roy is currently Associate Professor at Indian Institute of Technology Kharagpur. He received his masters' degree in Mechanical Engineering from IIT Kanpur in 2004, and Ph.D. in Mechanical Engineering from Louisiana State University, USA, in 2010. Before joining IITKharagpur, he worked as research associate and visiting faculty at Louisiana State University, USA, followed by Assistant Professor at Indian Institute of Technology Patna. His research interest is turbulence, arterial flows, moving boundary ow simulation, high-performance computing using cluster and GPGPUs. His primary area of work is computational uid dynamics (CFD). He has hosted two GIAN programs on computational methods and has also offered online course (NPTEL) on matrix solvers. His research group works on developing immersed boundary method (IBM)-based computationally efficient algorithms to solve moving boundary problems and on utilizing these implementations to predict flow and heat transfer in engineering and biological applications.