Allan Javid

Led the development of components for the new energy vehicle market, including electronic oil pumps and cooling fan motors. Managed cross-functional teams, optimized production lines, and implemented cost-reduction strategies. Developed BLDC motor control algorithms and conducted simulations to enhance system performance. Collaborated with clients, filed patents, and introduced innovative cooling technologies to improve product reliability, reduce costs, and strengthen the company’s market position.

As a Senior Mechanical Product Engineer, I led projects for OEMs like Audi, BMW, and Tesla, designing BLDC motors, pumps, and PCBs. Skilled in SolidEdge, Ansys SPEED, and ICEPAK, I conducted simulations to optimize performance. Managed DFM, FMEA, and NPI processes, ensuring on-time prototype delivery. Utilized Microsoft Project for scheduling and reporting, and coordinated motor testing with overseas teams. Oversaw mass production quality control, ensuring efficiency and adherence to high standards.

Performed detailed thermal simulation analysis of motors, pumps, and braking systems using Ansys ICEPAK and Spaceclaim, covering stages from modeling to analysis. Delivered comprehensive reports on fluid flow conditions and their effects on product performance, aiding in optimization. Managed experimental lines with rigorous quality control, ensuring accuracy. Contributed to NVH testing, collaborating with engineers to resolve vibration issues and improve reliability.

As a research assistant at Northwestern Polytechnical University, I led fluid mechanics lab activities, improving models and advancing research. I developed a C solver to analyze fluid flow around mechanical parts and airfoils. Published papers, including one in the Journal of Computational Physics on vortex problems. Proposed a new vortex model for large eddy simulations, improving accuracy. Contributed to PRO-E aircraft design, optimizing performance with fluid dynamics principles.

Mechanical engineering cover a broad range of topics, including statics, dynamics, thermodynamics, fluid mechanics, materials science, and mechanical design. Students study the principles of force, motion, and energy, as well as how materials behave under stress and heat. Other key subjects include heat transfer, control systems, vibration analysis, and manufacturing processes. Practical skills like CAD, computational simulations, and prototyping are also integral to the curriculum.