Dr. Sunil Kumar; Current Position - Associate Research Scientist, Specialization – Thermal & Fluids Engineering; PhD – Nuclear Engineering
SUNIL KUMAR,
Texas A&M University Abstract Number: 784
Working Group: Meet the Job Seekers
AbstractDesired Position – Assistant Professor, Research Scientist, Engineer; Desired Area(s) – Aerosols Dispersion, Computational Fluid Dynamics, Process Optimization, Thermal Hydraulics, Thermal Management, and Energy Storage
Throughout my research career, I have embarked on eight diverse and significant projects, covering a wide range of scientific research and engineering applications. Project-1 focused on developing and characterizing Gas Electron Multiplier (GEM) detectors, with applications in particle physics experiments at CERN and practical uses in radiography and medical diagnostics. Project-2 involved designing electronic notch filters for a double Penning trap mass spectrometer, aiming to enhance mass measurement precision by suppressing unwanted ion species. In Project-3, I addressed the task of mitigating thermal stratification in a water pool with shrouds, proposing non-leaking shroud plates to delay pool saturation during a Station BlackOut condition in nuclear reactors' passive safety systems. Project-4 aimed at improving dry cooling platforms' efficiency using Latent Heat Thermal Energy Storage Systems with Phase Change Materials (PCM), enhancing the resiliency and reliability of dry cooling systems. Project-5 investigated the impact of meniscus shape on the local permeability of micropillar arrays, providing insights into heat transfer enhancement in electronic devices and optimizing flow conditions. In Project-6, I used CFD simulations to predict droplet dispersion during a sneeze event in a hospital room, exploring HVAC configurations and air curtains to mitigate airborne spread of diseases like COVID-19, offering valuable insights for safer public spaces. Project-7 introduced a novel CFD model to understand indoor airflow and droplet spreading patterns in meat processing plants' fabrication rooms, contributing to assessing infection risks for workers and stationary objects. Project-8 aimed to increase energy efficiency in cotton conveying and drying processes through CFD modeling, optimizing conveyor belt systems during cotton drying and contributing to more efficient ginning practices. These groundbreaking research endeavors have fueled my passion for pushing boundaries of scientific knowledge and practical applications, and I eagerly anticipate undertaking new challenges to continue driving innovation and progress in the fields of science and engineering.