Pranav is a forward-thinking Aerospace/Mechanical Engineer dedicated to crafting solutions that blend innovation with functionality.


Together, we can build a future that's not just about what's next!

Together, we can build a future that's not just about what's next!

Experiences

Product Design and Development Intern - Healthcare

Mechanical Design Engineer Intern - Automotive

Research Graduate Student - Master’s Thesis

The Integrated Health Stretch Device (IHSD) revolutionizes physiotherapy for lower limb disorders by reducing the physical strain on therapists. Traditionally requiring manual stretching, the IHSD automates this process, offering four mechanical degrees of freedom from the hip joint to the ankle. It allows precise control over limb positioning and can maintain stretched positions for extended periods using an automatic lock feature.

Equipped with advanced sensors, the IHSD collects performance data during sessions to generate detailed reports, aiding in the customization of subsequent treatments. This not only improves treatment efficacy but also prevents joint contractures from neuromuscular disorders, enhancing patient outcomes. The device empowers therapists to focus more on patient care and less on the physical demands of traditional physiotherapy methods.

Punar Rehab Solutions

Product Design and Devlopment Intern // Manufacturing Optimization // Cross-Functional Collaboration

Since 2006, the Thayer School of Engineering at Dartmouth has hosted the annual Formula Hybrid competition at New Hampshire Motor Speedway. University students design and build hybrid or electric racecars for a series of challenges.

Formula Student Hybrid (FSAE) -Team Uttejit

Mechanical Engineering Intern // CAD Design Engineer // Structural and Aerodynamic testing // Prototype Manufacturing

Continuous Fiber Additive Manufacturing Research

The research aims to enhance carbon fiber sandwich structures' performance using CF3D technology, focusing on optimizing fiber layup orientations for improved tensile and compressive strength. By identifying the best layup configurations, the study seeks to leverage additive manufacturing's advantages to produce stronger, more efficient carbon fiber composites than traditional methods.

University Of Illinois Urbana Champaign

Research Projects

  • Thermal - Fluid Film Cooling of a Gas Turbine engine

    Numerical Analysis of Jet-Film Cooling over a GasTurbine End-wall

  • Aeropropulsion Laboratory

    Hands-on experimentations to validate computational results

  • Data Analysis & Prediction using conditional Dynamic Mode Decompostion

    Constrained Dynamic Mode Decomposition (DMDc) to analyze vortex shedding in 2D flow over an oscillating cylinder using python