Design and Development of Bioinspired Ocimum Sanctum-Graphene Helical Microswimmers: Agitation and Mobility in Microfluidic Channel
Salient Outcomes of Ph.D. Research
Developed bioinspired helical microswimmers using sustainable Ocimum Sanctum (holy basil) biomaterials reinforced with graphene for enhanced functionality in microfluidic environments.
Investigated the agitation, propulsion, and mobility behavior of microswimmers under controlled microfluidic conditions.
Explored the integration of bio-composites, nanomaterials, and smart manufacturing techniques for sustainable microswimmer fabrication.
Contributed to the advancement of micro-robotics and biomedical microdevices through innovative helical microbot fabrication methodologies.
Proposed and validated concepts related to magnetic actuation and pathfinding dynamics for microswimmer navigation in Newtonian and non-Newtonian fluids.
Published multiple high-impact research articles and conference papers in areas including microswimmers, graphene composites, biomaterials, and microfluidics.
Clinical Implications of the Ph.D. Research
Potential applications in targeted drug delivery systems through controlled microswimmer navigation in biological fluids.
Supports future development of minimally invasive biomedical procedures using magnetically actuated microbots.
Contributes to advancements in micro-scale diagnostics and therapeutic systems for precision medicine.
Sustainable bio-composite microswimmers may reduce toxicity and improve biocompatibility in biomedical applications.
Findings can aid in the design of next-generation bioinspired medical devices, including micro-robots for vascular and localized treatment applications.
The research provides foundational knowledge for interdisciplinary applications in bioengineering, regenerative medicine, and intelligent healthcare systems.
Supervisors
Supervisor: Dr. Hymavathi Madivada, Department of Mechanical Engineering, National Institute of Technology Andhra Pradesh, India
Co-Supervisor: Dr. Sreeramulu Dowluru, Aditya Institute of Technology and Management, Tekkali, India
Design and Analysis of a New Conceptual Car using CFD to improve Aerodynamic Performances
Salient Outcomes of M.Tech Thesis
Developed strong expertise in Computational Fluid Dynamics (CFD) and aerodynamic analysis through the design and simulation of an innovative conceptual car model.
Achieved proficiency in advanced engineering software tools including ANSYS, CATIA, and CAE platforms for modeling, simulation, and performance optimization.
Strengthened analytical and research capabilities in aerodynamics, fluid mechanics, and vehicle performance optimization, leading to multiple research publications in the area of automotive CFD analysis.
Gained practical experience in design validation, simulation-driven engineering, and optimization techniques applicable to automotive and mechanical systems.
Enhanced interdisciplinary problem-solving skills by integrating mechanical design concepts with computational analysis methodologies.
Built a strong foundation in research methodology, engineering simulations, and product development, which later contributed to advanced doctoral research in microswimmers, biomaterials, and microfluidics.
Published and presented research works related to vehicle aerodynamics and CFD analysis in reputed journals and conferences, demonstrating academic and technical excellence.
Supervisors
Supervisor: Dr. B. V. Ramana Murty, Department of Mechanical Engineering, GVP College of Engineering, Visakhapatnam (JNTUK), Andhra Pradesh, India
Analysis and Fabrication of a Solar Water Purifier Pump (Major Project - (E. Srinivas Rao, Supervisor, Sasi Institute of Technology and Management, Tadepalligudem, India))
Study of Compacting and Binding Machine (Minor Project - (Rolling Block, Steel Plant, Visakhapatnam))