Area of research
Computational Mechanics · Aerospace Engineering
Research interest
Research interests include Fluid Dynamics and Turbulent Flows, Aerodynamics and Acoustics in Jet Flows, Planetary Science and Exploration, and Heat Transfer Mechanisms.
Neural Network-Based Predictions of Crater Evolution During Plume Surface Interaction
Effect of Plume Conditions and Granular Bed Properties on the Temporal Transitions in Mechanisms Driving Plume-Surface Interactions
A Deep Learning Framework for Crater Identification and Classification Using Plume-Surface Interaction Experimental Data
Detection of Crater Profile Transitions to Discern Mechanisms During Plume-Surface Interactions
Ejecta behavior during plume-surface interactions under rarefied atmospheric conditions
Spatio-temporal relationship between three-dimensional deformations of a collapsible tube and the downstream flowfield
The Effect of Reduced Ambient Pressure on Plume-Surface Interaction Cratering Dynamics
Characterization of Ejecta Sheet Generated by Jet-Impulse During Plume-Surface Interactions
Flowfield and Noise Dynamics of Supersonic Rectangular Impinging Jets: Major versus Minor Axis Orientations
Non-intrusive, 3-D Crater Formation Measurements Due to Plume-Surface Interactions Under Sub-Atmospheric Pressure Conditions
Dynamics and Response to Control of Single and Dual Supersonic Impinging Jets
Theoretical model for coupled dual impinging jet aeroacoustic resonance
Dynamics and Response to Microjet Control of Dual Supersonic Impinging Jets
Experimental Characterization of Supersonic Single- and Dual-Impinging Jets
Active Flow Control of Single and Dual Supersonic Impinging Jets using Microjets
Effect of Relative Momentum and Temperature on the Aeroacoustic Characteristics of Dual Impinging Jets
Unsteady Characteristics of Resonant Supersonic Dual Impinging Jets
Experimental study of impinging jet flow field involving Converging and CD nozzle pair