Saravanan A T

1. Designed and developed mechanical components and systems for food processing equipment, ensuring compliance with industry standards and safety regulations. 2. Created detailed 3D models, handling large assemblies, sheet metal design, engineering drawings, and assembly layouts using Autodesk Inventor, and AutoCAD. 3. Developed proposal layouts and P&ID diagrams to support equipment design and integration. 4. Conducted design feasibility studies and reviewed risk assessment documents to align machinery design with safety, reliability, and compliance requirements. 5. Collaborated with cross-functional teams, including electrical and automation engineers, to integrate mechanical systems seamlessly. 6. Interacted with global engineering teams for design alignment, technical clarifications, and project coordination across multiple regions. 7. Led a 6 member design team: allocated resources, trained engineers, reviewed designs, and ensured adherence to project timelines and quality. 8. Managed SAP documentation, including BOM creation, material management, and engineering change processes. 9. Led cost optimization initiatives to improve design efficiency and reduce material waste. 10. Provided technical support for manufacturing, assembly, and on-site installation of designed systems. 11. Assisted in troubleshooting and resolving mechanical design challenges, ensuring product performance and durability. 12. Trained and mentored junior engineers, fostering knowledge sharing and skill development within the team.

1. Prepared accurate steel detailing and erection drawings using Tekla, complying with AISC and ASTM standards. 2. Reviewed fabrication/shop drawings and coordinated with cross-functional teams to ensure structural accuracy and safety. 3. Supported quality control efforts to minimize rework and ensure timely project delivery.

1. Led a project to reduce First Time Quality (FTQ) issues in nozzle machining using Tsugami machines. 2. Focused on minimizing head diameter and length variations in diesel fuel injection components. 3. Reduced FTQ from 0.14% to 0% by identifying root causes and implementing effective countermeasures. 4. Improved process capability, reduced scrap costs, and minimized tool changeover time. 5. Gained practical experience in Six Sigma, 8D methodology, Process Capability studies, and Statistical Process Control (SPC). 6. Strengthened understanding of quality control and design-for-manufacturing principles in a real-world setting.