• Designed and developed mechanical oscillators with enhanced frequency adjustment means• Invented innovative solutions leading to patent applications recognizing my role as inventor• Conducted detailed research on the state-of-the-art solutions, patents and articles• Utilised CAD and finite element analysis (FEA) to model and optimise watch mechanisms • Achieved performance objectives by creating and implementing innovative design solutions• Analysed and processed data to optimize new concepts and enhance their performance • Exhibited project management skills and autonomy by proactively putting forward proposals

• Offered weekly tutorials to aid students in understanding the course material and the exercises• Demonstrated proficiency in mathematics, analytical thinking and problem solving• Exhibited clear communication of complex concepts by teaching university students• Provided constructive feedback to support student learning and development

• Responsible for producing critical carbon-fibre aerodynamic components of a Formula Student race car including undertray, side-wings, splitter, and bargeboards• Demonstrated a deep understanding of materials, and manufacturing techniques• Accumulated practical, hands-on expertise with manufacturing tools in workshop settings • Successfully managed production processes and ensured assembly into the car’s chassis• Conducted rigorous testing of manufactured car components to assess structural rigidity and ensure compliance with safety standards and design specifications• Successfully managed multiple projects simultaneously, meeting tight deadlines• Maintained strict adherence to safety protocols and regulations while working in a high-pressure, fast-paced environment

• Responsible for designing critical aerodynamic components of a Formula Student race car including undertray, side-wings, splitter, and bargeboards• Demonstrated a deep understanding of aerodynamic principles and fluid mechanics to create cutting-edge designs• Utilized CFD (Computational Fluid Dynamics) simulations and wind tunnel testing to refine designs and achieve optimal downforce and drag balance• Achieved a groundbreaking 57% increase in downforce through an innovative undertray design concept exploiting ground effect• Developed and implemented a genetic algorithm to optimize wing profiles, leading to significant improvements in aerodynamic performance and design efficiency• Developed a drag reduction system (DRS) for the rear wing• Collaborated with a multidisciplinary team of engineers to optimize car performance• Contributed to a culture of innovation, creativity, and excellence• Conducted thorough analysis of competitors' designs to identify areas for improvement

• Monitored teams of students in the mechanical design of an orange pressing machine• Assisted students in effectively utilizing CATIA, enhancing their proficiency in computer-aided design (CAD)