About
Enthusiastic 3D CAD specialist with over 8 years of experience in 3D modeling and engineering. Skilled in designing and prototyping since 2018. Proven track record in developing innovative design solutions, conducting comprehensive
thermal and fluid flow analyses, and optimizing mechanical components for enhanced performance.
Experience
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Mechanical Engineer
AiTA Bio · Internship
Jun 2024 –
Jun 2024
0 mos
New York, NY, United States
Developed a test method compliant with USP 791 standards, conducted a TMV and analyzed results using
advanced statistical methods on Excel and Minitab, producing a robust gauge R&R report.
• Analyzed hydraulic resistance of the microfluidic path in a drug delivery device, enabling a data-driven
approach to optimize design parameters.
• Improved measurement accuracy by 25% by designing a custom fixture in SolidWorks and integrating a
pressure sensor with Arduino for micropump delivery and occlusion pressure analysis.
• Designed and developed a 3D-printed enclosure for the drug delivery device, ensuring compliance with ISO
13485 standards and FDA regulations.
• Re-engineered and optimized compression ratio for O-rings, conducted rigorous pressure testing on
micropump and baseplate sealing; utilized injection molding for manufacturing base plates.
• Designed and executed Design of Experiments (DOE) to optimize parameters in Instron and Keyence to
measure the PZT chamber deflection in the BioMEMS 2-in-1 drug delivery device.
• Drafted a standard operating procedure (SOP) for Instron, including Blue hill software, trouble shooting
and testing guidelines, to ensure consistent performance and ease of use for other team members.
Education
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New York University
Masters, Mechanical Engineering, 3.4
2022 – 2024
Activities and Societies:
• NYU International Student Advisory Board: Supported incoming students in adapting to the new environment.
• Applied Ergonomics (2017) - IIT Kanpur
• Principles of Metal Forming Technology (2019) - IIT Roorkee
• Awards: NYU Graduate Scholarship.
During my projects, I focused on enhancing the structural integrity and durability of a concrete canoe through advanced topological optimization techniques. By integrating a 3D printed skeletal framework with reinforced concrete, I aimed to create a structure capable of withstanding heavy loads in wet and moist conditions. Utilizing ntopology software, I generated various topological structures for the framework and conducted tests to evaluate their bending and compressive strengths. The optimization process involved varying the lattice structures while maintaining a constant material volume to achieve superior performance. Each lattice configuration was subjected to a three-point bending flexural test to determine its modulus of elasticity, flexural stress, strain, and stress-strain response. Among the tested structures—square honeycomb, re-entrant honeycomb, and hexagonal honeycomb—the hexagonal honeycomb exhibited exceptional resistance to layer separation and underwent plastic deformation without failing. The deflection graphs from these tests were compared with finite element analysis (FEA) results, confirming the enhanced performance of the hexagonal lattice. This project demonstrated the potential for mass customization and optimization in structural elements, significantly contributing to the field of additive manufacturing and materials science.