DR. Prashantha S - Advance Materials - Best Researcher Award

Siddaganga Institute of Technology,Tumkur - India

Author Profile

Early academic pursuits 🎓

Prashantha s embarked on his academic journey with a bachelor’s degree in mechanical engineering from b.i.e.t, davanagere, under kuvempu university in 1999. his early inclination towards engineering and design laid the foundation for his future research. he continued to pursue an m.tech in machine design at ubdt college of engineering, davanagere, where he graduated with first-class distinction. his academic achievements culminated in a ph.d. from jntua, anantapur, where he focused on the synthesis and characterization of cu-al-be shape memory alloys. his projects across degrees demonstrated his innovative thinking, especially his m.tech work with isro and b.e project sponsored by kscst bangalore.

Professional endeavors 🏫

Currently serving as an assistant professor in the department of mechanical engineering at siddaganga institute of technology, tumkur, prashantha brings his expertise in mechanical engineering and material science to the classroom and laboratory. with over two decades of teaching and research experience, he has consistently contributed to both the academic and professional development of his students. his professional roles emphasize not only instruction but also mentorship in advanced mechanical concepts.

Contributions and research focus 🔬

Prashantha's research centers around advanced materials, particularly shape memory alloys and smart materials. his ph.d. dissertation on cu-al-be shape memory Advance Materials alloys highlights his expertise in material synthesis and characterization. his work also delves into shape memory composites and the corrosion of materials, areas that are crucial for modern engineering applications. these interests have led him to develop innovative solutions in mechanical engineering, such as his m.tech analysis for satellite solar panels at isro.

Accolades and recognition 🏅

Prashantha's scholarly contributions have earned him recognition in academic circles. his involvement in groundbreaking projects, particularly in collaboration with esteemed organizations like isro, showcases his ability to apply theoretical knowledge to real-world challenges. his dedication to advancing knowledge in shape Advance Materials memory alloys and smart materials reflects his passion for pushing the boundaries of mechanical engineering research.

Impact and influence 🌍

through his teaching and research, prashantha has significantly impacted both academia and industry. his work in shape memory alloys and smart materials addresses critical challenges in material science and mechanical engineering. his research on corrosion and shape memory composites contributes to the Advance Materials development of durable and innovative engineering solutions, directly influencing the future of smart technologies and their applications in various industries.

Legacy and future contributions 🔮

Prashantha’s legacy is one of academic excellence and innovative research. as an expert in shape memory alloys, he continues to contribute to the development of new materials with transformative potential. his work not only advances academic knowledge but also has practical implications for industries like aerospace, automotive, and smart technology. prashantha’s ongoing dedication ensures that his contributions will have a lasting impact on both students and the field of mechanical engineering for years to come.

Notable Publications

Title: Synthesis and Evaluation of Machining Characteristics of Cu-Al-Mn Ternary Shape Memory Alloys Using CNC Wire Electric Discharge Machining
Authors: Praveen, N., Mallik, U.S., Shivaramu, L., Suresh, R., Prashantha, S.
Journal: AIP Conference Proceedings, 2020, 2247, 0003846
Title: Corrosion Behaviour of Cu-Al-Be Based Shape Memory Alloy with and Without Coating
Authors: Prashantha, S., Shivasiddaramaiah, A.G., Mallikarjun, U.S.
Journal: Materials Today: Proceedings, 2019, 17, pp. 147–154
Title: Evaluation of Biocompatibility of Cu-Al-Be-Mn Quaternary Shape Memory Alloys Using Antibacterial Test by Agarwell Diffusion Method
Authors: Shivasiddaramaiah, A.G., Mallik, U.S., Mahato, R., Shivaramu, L., Prashantha, S.
Journal: Materials Today: Proceedings, 2019, 17, pp. 61–69
Title: Synthesis and Evaluation of Fracture Behaviour of Cu-Al-Be-Mn Quaternary Shape Memory Alloy
Authors: Shivasiddaramaiah, A.G., Mallikarjun, U.S., Jeevan, Prashantha, S.
Journal: Materials Today: Proceedings, 2018, 5(11), pp. 24457–24465
Title: Evaluation of Biocompatibility of Cu-Al-Be-Mn Quaternary Shape Memory Alloy
Authors: Shivasiddaramaiah, A.G., Mallikarjun, U.S., Praveen, N., Prashantha, S., Anupama, C.
Journal: Materials Today: Proceedings, 2018, 5(11), pp. 24799–24808

Early Academic Pursuits

Shidvash Vakilipour's academic journey began with a strong focus on mechanical engineering, obtaining a B.Sc. from Sharif University of Technology in September 2000. He further specialized in aerodynamic engineering with an M.Sc. from Tarbiat Modares University, completed in January 2003. His pursuit of advanced knowledge led him to earn a Ph.D. in Power and Propulsion from Sharif University of Technology in September 2008. This academic background laid the foundation for his expertise in computational fluid dynamics, thermo-fluid science, and propulsion systems.

Professional Endeavors

Vakilipour's professional career is marked by significant academic and research positions. He is an Associate Professor at the College of Interdisciplinary Science and Technology, University of Tehran, where he also served as Executive Vice President. His experience includes a post-doctoral research fellowship at the University of Manitoba, where he contributed to the Computational Thermo-Fluid Science Lab. His roles have allowed him to mentor graduate students and lead significant research projects in computational fluid dynamics and thermo-fluid sciences.

Contributions and Research Focus

Vakilipour has made notable contributions to computational thermo-fluid science, focusing on numerical simulations of multi-phase flows, aero-thermal flow calculations in turbomachinery, turbulence flow modeling, and molecular dynamics simulations. His research extends to power and propulsion systems, Engineering including engine condition trend monitoring and performance enhancement of gas turbine-based power plants. He is also involved in renewable energy technologies, such as wind turbine blade design and combustion modeling for sustainable energy applications. His work is supported by extensive use of scientific computing software like OpenFOAM, Fluent, and CFX.

Accolades and Recognition

Vakilipour's achievements include membership in the Canadian Society for Mechanical Engineering and a post-doctoral research fellowship at the University of Manitoba. He founded The Center for High Performance Computing at the University of Tehran, Engineering demonstrating his leadership in advancing computational research infrastructure. His role as a visiting researcher at the University of Manitoba underscores his international recognition and collaboration in the field of mechanical engineering.

Impact and Influence

Vakilipour's research has had a significant impact on the fields of thermo-fluid dynamics and propulsion systems. His work on numerical simulations and turbulence modeling has contributed to advancements in the efficiency and performance of engineering systems. His academic contributions are further amplified by his role in mentoring Ph.D. and M.Sc. students, guiding their research in complex fluid dynamics and energy systems. His publications and collaborations reflect his influence on both the academic community Engineering and industry applications.

Legacy and Future Contributions

Shidvash Vakilipour's legacy is characterized by his dedication to advancing computational and experimental methods in mechanical engineering. His ongoing research projects, such as the development of interface tracking methods for two-phase flows and the aerodynamic assessment of wind turbine airfoils, promise to push the boundaries of current engineering knowledge. His future contributions are anticipated to further enhance the understanding and application of thermo-fluid dynamics in renewable energy and propulsion systems.