As a Ph.D. student in Petroleum Engineering at Texas A&M University, my educational journey has been deeply shaped by my Indian heritage, perseverance, and my family’s emphasis on education despite financial limitations. I was born and raised in India and completed both my B.Tech. in Mining Engineering and M.Tech. in Petroleum Engineering at the Indian Institute of Technology Kharagpur. Growing up in India taught me the importance of discipline, resilience, and community. My family always viewed education as the most meaningful path toward creating opportunities and stability, and that belief continues to motivate me every day. My Indian background has strongly influenced both my academic goals and personal values. Coming from a culture that values hard work and collective responsibility, I learned early on that success is not achieved individually but through the sacrifices and support of family. During my time in India, I also participated in community-oriented activities such as organizing blood donation camps in rural West Bengal, which strengthened my sense of responsibility toward helping others through meaningful work. These experiences shaped my desire to pursue research that can contribute to solving real-world energy and sustainability challenges. Currently, my Ph.D. research focuses on transient wellbore and reservoir modeling for applications such as CO₂ injection, hydrogen systems, and flow assurance. I have maintained a strong academic record, including a 3.8 GPA at Texas A&M, and have been fortunate to receive merit-based scholarships in the past. However, pursuing graduate education in the United States has also brought significant financial challenges. I am currently managing educational loans and living expenses while pursuing my Ph.D. Although I actively seek internships, research support, and assistantship opportunities, financial uncertainty remains a major concern, especially during periods without guaranteed funding. In addition to supporting myself academically, I also try to contribute to my family’s financial responsibilities whenever possible. The cost of tuition, housing, health insurance, and daily expenses as an international graduate student creates constant financial pressure. Receiving the Neetu Watumull Scholarship would provide meaningful support toward reducing this burden and allowing me to focus more fully on my research and academic goals. More importantly, this scholarship represents encouragement for students of Indian origin who are striving to build a better future through education despite financial barriers. I would be sincerely grateful for the opportunity to be considered.

Engineering, to me, is about understanding how complex systems behave under real-world constraints—and using that understanding to design solutions that are both efficient and reliable. My passion for engineering took shape during my master’s in petroleum engineering at the Indian Institute of Technology Kharagpur, when I began working on geothermal wellbore systems. For the first time, I saw how pressure, temperature, and fluid behavior interact dynamically within a confined system and how small changes can significantly impact performance and safety. That experience defined my interest in fluid systems and set the direction for my career. What fascinated me most was the transient nature of these systems. Unlike simplified steady-state models, real engineering systems evolve continuously—especially during operations such as startup, shut-in, or flow rate changes. This realization led me to focus on transient multiphase flow behavior, where thermal and pressure fluctuations can influence everything from efficiency to structural integrity. Today, as a Ph.D. student in petroleum engineering at Texas A&M University, I build computational models to study these effects in hydrogen production and CO₂ injection systems. I specifically investigate near-wellbore dynamics, including Joule–Thomson cooling and rapid pressure variations, which are often overlooked but critical for safe and optimized operations. While my work is grounded in subsurface energy systems, I am deeply interested in broader engineering challenges involving transport phenomena. At their core, both subsurface flow and large-scale transportation systems deal with the movement of fluids, energy, or resources through constrained networks. Whether it is fluid flow in pipelines or traffic flow in transportation infrastructure, both require careful management of transients, optimization under uncertainty, and system-level thinking. This parallel motivates me to think beyond traditional disciplinary boundaries and approach engineering problems from a holistic perspective. To expand my knowledge, I am actively developing advanced numerical and computational skills. I work with simulation tools such as Python-based solvers, OLGA, and CMG, and I am increasingly integrating machine learning techniques to improve predictive modeling. I also seek to strengthen my understanding of high-performance computing and data-driven engineering, as these tools are becoming essential for solving complex, large-scale problems. Beyond technical development, I aim to engage in interdisciplinary collaboration, recognizing that impactful engineering solutions often require integration across domains such as economics, policy, and sustainability. My long-term vision is to contribute to the development of resilient and efficient energy systems that support a lower-carbon future. I am particularly motivated by challenges that involve dynamic system behavior—where transient effects can influence performance, safety, and environmental impact. Through research and industry collaboration, I hope to design solutions that improve reliability in hydrogen production, optimize CO₂ injection strategies, and enhance overall system efficiency. Like Dr. Hassan, whose life reflected dedication, innovation, and service, I view engineering as a responsibility. It is not only about advancing technology but also about applying knowledge to solve meaningful problems. My journey—from discovering fluid system dynamics in geothermal wellbores to advancing transient modeling in energy systems—has been driven by curiosity and purpose. I am committed to continuing this path and using engineering to make a lasting, positive impact.