Ms. Arahata Senapati - Multiphase Flow - Best Researcher Award
Indian Institute of Technology - India
Author Profile
🎓 Early Academic Pursuits
Ms. Arahata Senapati’s academic journey reflects a strong foundation in fluid dynamics and applied physics. From the beginning of her scholarly path, she demonstrated an exceptional aptitude for complex physical phenomena, with a particular focus on fluid mechanics. Her academic training provided her with the necessary analytical and experimental skills to investigate intricate systems, laying the groundwork for her future research into multiphase flow dynamics and fluid-structure interactions.
💼 Professional Endeavors
Ms. Senapati has actively contributed to high-impact research in the domain of fluid dynamics, collaborating with esteemed researchers such as Gaurav Singh, Arnab Atta, and Rajaram Lakkaraju. Her professional endeavors are marked by her involvement in cutting-edge studies on multiphase flow, particularly those published in renowned journals like the International Journal of Multiphase Flow and Physics of Fluids. These collaborations highlight her interdisciplinary approach and her ability to work within dynamic research teams, advancing the frontiers of experimental and computational fluid dynamics.
🔬 Contributions and Research Focus
Ms. Senapati’s research contributions have significantly enhanced the understanding of multiphase flow phenomena. In her 2025 publication titled Dynamics of Jet Formation in Inertial Droplet (International Journal of Multiphase Flow, DOI: 10.1016/j.ijmultiphaseflow.2025.105242), she explores the complex interactions within inertial droplet systems. Her 2024 work, Flexible Structures Enhance Fluid Mixing in a Channel Flow (Physics of Fluids, DOI: 10.1063/5.0186196), provides insight into how structural flexibility can augment mixing efficiency in confined flows. These studies are exemplary of her focus on jet dynamics, interfacial flows, and fluid-structure interactions within multiphase flow systems.
🌍 Impact and Influence
Ms. Senapati's work has begun to make a notable impact in the fluid dynamics community. Her contributions to the understanding of multiphase flow behavior under various physical conditions are gaining attention in both theoretical and applied contexts. By addressing challenges in droplet dynamics and mixing enhancement, her research offers implications for industrial applications, such as inkjet printing, spray cooling, and biomedical fluid systems. Her collaborations and publications have positioned her as a promising researcher influencing ongoing studies in the field.
🏆Academic Cites
Despite being early in her academic publishing career, Ms. Senapati’s work has already been cited by peers and referenced in further investigations into multiphase and complex fluid systems. Her rigorous experimental methods and detailed computational modeling are frequently acknowledged in studies exploring similar phenomena. Her growing citation footprint signifies the relevance and quality of her research contributions to multiphase flow literature.
🌟 Legacy and Future Contributions
Looking ahead, Ms. Arahata Senapati is poised to become a key figure in the field of fluid dynamics, particularly in multiphase flow and fluid-structure interaction research. Her future contributions are expected to further bridge the gap between experimental observations and theoretical modeling. With her innovative outlook and collaborative spirit, she is likely to influence the design of more efficient systems in engineering and biomedical applications, leaving a lasting legacy of scientific advancement.
📝Multiphase Flow
Ms. Arahata Senapati’s research in multiphase flow spans jet dynamics, fluid mixing, and droplet behavior, showcasing her expertise in experimental and computational techniques. Her studies in multiphase flow provide critical insights into the role of structural flexibility in enhancing transport processes. As she continues to advance in her career, her work in multiphase flow is expected to yield transformative results in both academic and applied sciences.
Notable Publication
📝Numerical Simulations of an Inline Rising Unequal-Sized Bubble Pair in a Liquid Column
Authors: A. Senapati, G. Singh, R. Lakkaraju
Journal: Chemical Engineering Science, Vol. 208, 115159
Year: 2019
Citations: 17
Focus: Numerical investigation of hydrodynamics and wake interactions between unequal-sized bubbles in a column.
📝Flexible Structures Enhance Fluid Mixing in a Channel Flow
Authors: G. Singh, A. Senapati, A. Sharma, A. Atta, R. Lakkaraju
Journal: Physics of Fluids, Vol. 36(2)
Year: 2024
Citations: 5
Focus: Use of flexible surfaces to improve mixing efficiency in channel flows.
📝Generating Periodic Vortex Pairs Using Flexible Structures
Authors: G. Singh, A. Senapati, A. Atta, R. Lakkaraju
Journal: Journal of Fluids and Structures, Vol. 127, 104126
Year: 2024
Citations: 1
Focus: Vortex dynamics induced by wall-mounted flexible structures to enhance periodic flow behavior.
📝Dynamics of Jet Formation in Inertial Droplet
Authors: A. Senapati, G. Singh, A. Atta, R. Lakkaraju
Journal: International Journal of Multiphase Flow, Article 105242
Year: 2025
Focus: Investigation of droplet deformation and jetting under inertial conditions via numerical modeling.
📝Optimizing Fluid Mixing in Channel Flow Using Wall-Mounted Flexible Structures
Authors: G. Singh, A. Senapati, A. Atta, R. Lakkaraju
Journal: Computers & Fluids, Vol. 291, 106590
Year: 2025
Focus: Simulation-based optimization of wall flexibility and placement for enhanced mixing in laminar flows.
📝Inertial Droplet Dynamics Inside a Quiescent Liquid Medium
Authors: A. Senapati, A. Atta, R. Lakkaraju
Conference: APS Division of Fluid Dynamics Meeting, Abstract T07.006
Year: 2024
Focus: Presented insights into internal jet and shape evolution in droplets moving in still fluid.
📝Exploring Droplet Deformation and Jet Formation within a Liquid Medium: A Numerical Investigation
Author: A. Senapati
Conference: APS March Meeting, Abstract Y40.007
Year: 2024
Focus: Solo contribution highlighting advanced simulations of jetting phenomena in deformable droplets.