R&D/PRODUCT DVL ENGINEER II

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R&D/PRODUCT DVL ENGINEER II

5/19/26

At TE, you will unleash your potential working with people from diverse backgrounds and industries to create a safer, sustainable and more connected world.  ​

The Opportunity Join TE Connectivity's innovative Passive Optics organization as a Mechanical Engineer and help design the next generation of precision optical connector systems powering AI and hyperscale computing infrastructure. You'll solve complex mechanical engineering challenges in sub-micron precision design, working with advanced materials to create products that enable the world's most demanding optical interconnect applications. Why This Role Matters As AI workloads demand unprecedented reliability and performance, precision mechanical design of optical connectors has become mission-critical. You'll be at the forefront of solving complex mechanical challenges involving metals, plastics, and innovative latching mechanisms that directly enable the optical revolution while advancing TE's leadership in high-performance connectivity solutions.   Please note: operations are currently based at a temporary site in Webster, NY. The team will transition to a permanent Rochester location (near RIC) upon completion. Job Requirements

What You'll Engineer: Advanced Optical Connector Design & Development • Ganged Blind Mate Systems: Develop innovative fiber optic connectors featuring ganged blind mate ferrule configurations for high-density box-to-box attachment and cable assemblies  • Mechanical Float Engineering: Design sophisticated backplane mechanical float systems enabling self-alignment of ganged ferrule arrays during blind mating operations, accounting for manufacturing tolerances  • Alignment Architecture: Engineer precision alignment mechanisms for multi-fiber ferrule systems, including guide pin configurations, centering features, and compliance structures for reliable blind mate engagement  Materials & Structural Engineering  • Materials Selection: Evaluate and specify advanced metals and engineering plastics for precision optical connector applications with focus on dimensional stability and wear resistance  • Compliant Structures: Design innovative compliant mechanisms for connector alignment, engagement, and stress relief while maintaining optical precision  • Mechanical Validation: Design and execute comprehensive test protocols for static and dynamic loading, fatigue resistance, and environmental stress validation Advanced Mechanical Concepts   • Latching Mechanisms: Develop innovative latching and