Connecting mechanical fundamentals, automotive hardware, computational modeling, and data-driven AI systems into high-performance industrial engineering structures.
I build engineering systems that connect mechanical design, intelligent automation, and data-driven problem solving.
My work combines automotive engineering, manufacturing systems, CAD automation, machine learning, and computational analysis to create practical solutions for real industrial environments.
From optimizing production workflows and developing predictive engineering tools to designing functional products and analyzing complex systems, I approach engineering with a strong focus on first-principles thinking, scalability, and real-world impact.
Combining mechanical engineering with automation, data analysis, and machine learning to build smarter industrial systems.
Developing scalable engineering pipelines using CAD automation, PLM integration, and data-driven process optimization.
Applying CFD, sensor analysis, and computational modelling to validate designs and improve engineering performance.
My journey across automotive engineering, industrial automation, manufacturing systems, and intelligent product development has shaped a multidisciplinary approach focused on solving real-world engineering challenges through practical innovation, system-level thinking, and computational engineering.
Built early design phase predictive models and automated CAD pipelines to speed up vehicle engineering workflows.
Optimized precision manufacturing bending controls using real-time sensor processing and spatial profile analysis algorithms.
Managed end-to-end design, rapid prototype iterations, embedded microcontrollers, and airflow simulations for portable purification hardware.
Completed rotational practical training across diagnostics modules, performing fault tree tests on active chassis systems.
My engineering journey began with a curiosity for how machines work and evolved into a passion for building intelligent systems that combine mechanics, software, data, and automation. The capabilities presented below have been developed through academic research, industrial projects, product development, manufacturing environments, and real-world problem solving. Each skill represents a layer of experience gained from designing, analysing, optimizing, and integrating systems across multiple engineering disciplines, forming the foundation of my multidisciplinary approach to engineering and innovation.
Specialized in advanced automotive systems, intelligent mechatronics, vehicle electronics, functional safety, simulation-driven engineering, and engineering management. The program combines mechanical, electrical, and software engineering disciplines with modern mobility technologies, providing a multidisciplinary foundation for developing next-generation automotive systems.
Click for details & Formula Student parametersDeveloped a strong foundation in mechanical engineering through coursework covering machine design, manufacturing systems, thermodynamics, fluid mechanics, materials engineering, and product development. The program emphasized practical engineering problem solving, research, and design-oriented thinking while preparing students for multidisciplinary industrial environments.
Click for thesis & publication detailsEstablished the core engineering foundation that sparked my interest in mechanical systems, manufacturing technologies, energy systems, and product design. The program combined theoretical fundamentals with practical laboratory and workshop experience, providing early exposure to engineering development and innovation.
Click for robotic & energy prototype logsDesigned and simulated a front impact attenuator system to optimize crash energy absorption and safety for Formula Student.
VIEW FULL LOGSSimulated vehicle-to-everything communication scenarios in Vector CANoe to analyze network interactions in connected mobility.
VIEW FULL LOGSDeveloped an electric vehicle powertrain model in MATLAB/Simulink and validated it using WLTP driving cycle data.
VIEW FULL LOGSConducted Hazard Analysis and Risk Assessment (HARA) and determined the ASIL safety rating under ISO 26262 guidelines.
VIEW FULL LOGSBuilt a predictive ML pipeline utilizing engineering parameters and CAD variables to forecast vehicle component costs.
VIEW FULL LOGSProgrammed deep learning object classification pipelines in MATLAB using the YOLO framework to track target boundaries.
VIEW FULL LOGSEngineered a Python points cloud processing utility to parse and map raw 3D spatial telemetry LiDAR data.
VIEW FULL LOGSProgrammed a custom text comparison tool in Python to evaluate document duplication against reference databases.
VIEW FULL LOGSContributed to sheet metal precision inspection routines using high-accuracy laser counter metrology systems.
VIEW FULL LOGSDeveloped an automation pipeline to extract critical geometric and metadata configurations from PLM databases.
VIEW FULL LOGSCoded dynamic Creo parameter extraction bridges in Python using Creoson APIs to parse CAD design variables.
VIEW FULL LOGSCreated an OCR-driven technical drawing interpreter to automatically read and catalog visual CAD annotations.
VIEW FULL LOGSBuilt a virtual materials transport digital twin using Unity to simulate product routing inside production facilities.
VIEW FULL LOGSPrototyped a portable environmental system integrating sensor loops (CO2, PM, humidity) with Arduino control boards.
VIEW FULL LOGSDesigned parametric models of Geneva indexing drives to analyze kinematic motion profiles and synchronization stress.
VIEW FULL LOGSEvaluated chemical-to-electrical energy conversion characteristics and integration parameters for fuel cells.
VIEW FULL LOGSConstructed a remote robotic rover with rugged spatial suspension components to navigate complex terrain profiles.
VIEW FULL LOGSDeveloped an intelligent framework combining engineering data analytics and machine learning to automatically identify key factors influencing component costs in early product design phases.
VIEW FULL LOGSDesigned and developed a compact air purifier with HEPA filtration, UV sterilization, and Arduino-based real-time air quality monitoring for improved indoor environments.
VIEW FULL LOGSPublished academic research exploring vehicle exhaust waste heat recovery loops to power sustainable absorption refrigeration cycles.
VIEW FULL LOGSEvery project, role, and academic experience has introduced me to new ideas and challenged me to look beyond what I already knew. Along the way, I explored topics that sparked my curiosity and helped me better understand how engineering systems are designed, built, and improved. The certifications below represent some of those learning experiences that have contributed to my growth as an engineer and broadened the way I approach technical challenges.
Open to opportunities involving automotive engineering, intelligent manufacturing, industrial automation, product development, and data-driven engineering systems. Whether it’s advanced R&D, engineering innovation, or multidisciplinary problem solving, I’m always interested in working on impactful technologies and real-world engineering challenges.