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Required Signal/Power Integrity Engineer, PhD Graduate
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
Responsibilities:
Simulate high speed interface electrical behavior using HSPICE or other circuit simulators.
Generate precise electrical models (e.g., S-parameters, SPICE models) for components such as packages, PCBs, and connectors for use in simulations.
Collaborate extensively with cross-functional teams, including ASIC architects, digital/analog designers, physical design/layout engineers, and system engineers, to define specifications and resolve integration challenges.
Execute lab measurements utilizing test equipment like oscilloscopes, Vector Network Analyzers (VNA), Time Domain Reflectometers (TDR) , Spectrum analyzers to validate simulation outcomes and debug signal and power-related issues on silicon prototypes and boards.
Establish robust design rules and guidelines for optimal signal/power integrity during PCB and package layout, ensuring high production yield and reliability.

Lead hands-on lab debugging to fix complex silicon performance, characterization, and yield issues. Use bench findings and board-probing data to give feedback directly to the architecture and design teams. Lead ASIC bring-up on validation boards, focusing heavily on SerDes, high-speed interfaces, and power/clock domains. Run characterization across PVT (Process, Voltage, Temperature) conditions and analyse large datasets to resolve performance bottlenecks and improve chip yield. Write and optimize clean Python code to automate lab equipment and test internal chip logic. Serve as the technical lead for complex hardware debug, defining validation methodologies, and advanced lab measurement techniques for the team.

As SIPI engineer youll be required to design and analyze high speed analog/digital signals for networking products, with emphasis on high speed signal and power analysis of ASIC, Package and PCB. Model/simulate/characterize high speed systems, including high speed I/Os, chip packages, printed circuit boards, and system interconnects. Overcome the challenges of ultra-high data rate and cutting-edge technology. We use the latest silicon technologies and processes to build largest scale and most complex devices at the edge of feasibility.

You will own the complete EVB hardware bring-up process from initial power‑on through release to internal engineering teams. This role is highly practical and technical, responsible for identifying and resolving complex board- and ASIC-level hardware issues, documenting findings, and driving corrective actions.

Key responsibilities
Own and execute complete EVB hardware bring-up, validation, and qualification activities in the lab.
Perform initial board power‑up, verify power rails and sequencing, validate clocks and resets, and exercise interfaces.
Lead hands‑on debugging and root‑cause analysis of board‑level and ASIC-related hardware failures.
Read and use complex hardware schematics and PCB layout data as primary debugging tools; review PCB manufacturing data when investigating failures.
Perform detailed lab measurements (oscilloscopes, VNAs, logic analyzers, power supplies, electronic loads) and correlate results with schematics, layout, ASIC requirements, and simulations.
Collaborate with SI and PI teams to investigate signal-quality, channel-loss, reflections, power-delivery, and noise issues.
Work with FPGA and BSP/SW engineers during initial system bring-up and debugging.
Document bring-up procedures, debug findings, measurements, known issues, workarounds, and solutions.
Support manufacturing and assembly debug (PCB, SMT, soldering, component and assembly-related failures).
Drive hardware issues through identification, root‑cause analysis, corrective action, implementation, and final validation.