Robotics & Research
F1 in Schools
As Manufacturing Engineer and Head of Strategy at F1 in Schools India, I spearheaded the design, production, and testing of a miniature Formula 1 car for the national championships, where our team ranked among the Top 15 in India twice and received awards for Best Research and Best Digital Media.
​
I oversaw the complete engineering and manufacturing pipeline—from 3D CAD modeling in Fusion 360 and CFD-based aerodynamic optimization, to 3D printing, sanding, and surface finishing workflows. I also designed and constructed a custom wind tunnel to experimentally validate drag coefficients and pressure zones, ensuring performance aligned with simulation results.
​
On the strategic side, I managed resource planning, risk assessment, and engineering documentation, creating Gantt charts, WBS frameworks, and risk registers to align the technical and enterprise divisions. My leadership extended to COâ‚‚ cartridge launch testing, axle alignment precision systems, and the evaluation of new lightweight materials for improved thrust-to-drag efficiency.
​
This experience strengthened my ability to bridge mechanical design with materials innovation and project management, embodying the interdisciplinary essence of modern engineering.
​
The car you see on the right can reach a maximum speed of 45 miles/hour!
Integrated Ultrasonic Pest Repellent — Research and Prototype
Born in Bathinda, Punjab — once India’s “Cotton Belt,” now known as the “Cancer Belt” for its pesticide-driven decline — I set out to design a cleaner alternative for local farmers. My research led me into bioacoustics, where I engineered AgriNad, a solar-powered ultrasonic device that deters agricultural pests using sound frequencies between 38–42 kHz.
​
The system, built around an ESP32 microcontroller, emits waves at intelligent intervals to prevent both device overheating and pest adaptation. Working closely with Bathinda’s farming community, I deployed AgriNad across 60+ farms and grain storage units, with the help of nationally recognised NGO- KrushiVikas, reducing chemical dependency and restoring soil health.
​
The project earned the CREST Gold Award and was published in the IJCSE journal. Today, AgriNad stands as a blend of engineering, empathy, and environmental renewal — proof that innovation can heal the very land that inspired it.
Smart Grain Storage Solution with IoT-Based Environmental Control and Integrated Pest Repellent
In India, nearly 44% of agricultural produce is lost post-harvest, often due to moisture buildup and pest infestations in traditional storage setups. To understand this issue firsthand, I conducted a field study across rural Punjab, interviewing 50+ farmers about their storage practices and the challenges they face in preserving grains through seasonal humidity and heat.
​
Drawing from these insights, I designed an IoT-enabled, solar-powered grain storage model equipped with humidity and temperature sensors that automatically regulate internal conditions to prevent spoilage. The system’s modular architecture allows it to be adapted for small-scale farmers, ensuring affordability and scalability.
​
Published as “Modern Grain Storage Facilities in the 21st Century” in the Curieux Academic Journal, this project represents my commitment to building sustainable, human-centered engineering systems — where innovation begins not in the lab, but in the fields that feed us.
Composite Tile for Particle Accelerators — Research Project
When I first watched Mangalyaan lift off, I was captivated not just by the mission — but by the materials that made it possible. Years later, that fascination evolved into a research project exploring how advanced composites can withstand the intense radiation and thermal stresses of aerospace and defense environments.
​
Leading a 7-member research team, I investigated radiation-shielding composites combining PEEK, boron nitride, graphite, and molybdenum, conducting electron-beam simulations to model displacement damage, thermal fatigue, and radiation attenuation. Using simulation-driven optimization, we identified composite ratios that maximized shielding efficiency without compromising structural integrity — a critical balance for space applications.
​
Our findings were submitted to CERN’s Beamline for Schools Competition and later published on the Sigma Xi Research website, recognized for demonstrating a scalable approach to high-performance shielding materials.
Wharton Investment Challenge
Markets, much like engineering systems, run on data, risk, and equilibrium — and the Wharton Global Investment Competition became my laboratory to explore that dynamic. Leading a team of five, I developed a sustainable investment strategy centered on companies integrating renewable materials, circular design, and clean manufacturing into their operations.
Using fundamental analysis, DCF modeling, and macro–micro risk assessment, we built a diversified portfolio that balanced financial return with environmental resilience. My role combined quantitative evaluation with narrative strategy, crafting a research-backed pitch that tied market growth to real-world sustainability outcomes.
Technical Skills
-
Programming Languages: Python, JavaScript, HTML/CSS
-
Frameworks & Tools: React Native (App Development), Arduino IDE, MATLAB (basic), Figma (UI/UX)
-
CAD & Simulation: SolidWorks, Fusion 360, CFD, wind tunnel analysis
-
Research & Documentation: Technical writing, academic formatting, experimental design
Interests
I'm passionate about sustainable engineering, product design, and infrastructure innovation. I enjoy exploring how technology—especially CAD, IoT, and programming—can solve real-world problems. My work in F1 in Schools sparked a deep interest in aerodynamics and manufacturing, while my research projects in agriculture and environmental systems deepened my focus on low-cost, scalable solutions for underserved communities. I’m especially drawn to building systems that are not only efficient, but also impactful and sustainable.