● Contributed to electronics discussions by researching microcontroller platforms and proposing potential system architectures. ● Supported record growth and met strict client needs by developing and executing project and process plans, while staying ahead of technology trends. ● Identified and optimized key design parameters for stators, achieving 5% reduction in acoustics using Response surface methodology with DoE in Ansys.

● Conducted material study to understand the influence of different materials and material properties on the vibrations and acoustics of the motor and optimized them to achieve the desired results. ● Proposed three innovative design concepts and two new lamination materials for stator to mitigate vibrations and noise in motors, showcasing proactive problem-solving skills and engineering creativity. ● Developed detailed simulation models for motor-driven systems, integrating control algorithms to optimize speed regulation and vibration damping, improving tool handling and operator comfort in fluid control applications.

● Conducted structural, thermal, and dynamic simulations to validate motor-driven system performance, focusing on optimizing thermal dissipation and mechanical integrity for enhanced durability in mechatronic systems. ● Collaborated with the design team to refine motor geometries and material selection based on simulation results, leading to better power efficiency, reduced heat generation, and minimized vibration in high-powered motor systems. ● Developed and validated motor models in FEM software (such as ANSYS Mechanical), ensuring the accuracy of system behaviour and performance under operational stress, with a focus on compliance with DIN EN 60034 and VDE 0580 standards.