Neeraj Kumar
A.0 Thermal Science, I.1 General Engineering Thermal Science Heat Transfer and Boiling Studies Nanofluid Flow and Heat Transfer Radiative Heat Transfer Studies Heat Transfer and Optimization Fluid Dynamics and Heat Transfer Heat Transfer and Numerical Methods Micro-loop heat pipe Micro heat exchanger Heat sink Biomedical Engineering Computational Mechanics Mechanical Engineering Mechanics of Materials

Bio

Neeraj Kumar is a dedicated researcher in thermal sciences, affiliated with the National Institute of Technology, India. He holds an M.Tech degree and has focused his work on the analysis and simulation of micro channel heat sinks, particularly investigating thermal resistance and pumping power for different coolants and geometries. With three published works and 30 citations, his h-index of 2 and i10-index of 1 reflect his emerging influence in the field. In addition to his research, he serves as a reviewer for the Global Journal of Research in Engineering (GJRE), contributing his expertise to thermal science and general engineering domains.

Educational Journey

M.Tech

Experience

National institute of Technology

0 - 0

Research

Analysis of Thermal Resistance and Pumping Power of Rectangle Micro Channel Heat Sink for Upper Flow with Different Coolant

Article March 3, 2015

In this paper we optimise the performance of microchannel heat sink with upper flow arrangement of flow at entrance and exit. The performance of micro channel heat sink is directly affected by the pumping power and the thermal resistance. Here we flow from the upper section and optimise to be very low pumping power and thermal resistance. The aspect ratio and the hydraulic diameter of the microchannel are same for flow arrangement. Fluid flow and heat transfer are investigated on the basis of the simulation of the micro channel with number of channel in rectangular shapes. The aim of this work is to get an impression of the physical behaviour in small elements that enable the development of new liquid cooling systems with higher cooling ability and higher effectiveness.