Tenstorrent Lead post-silicon power characterization and correlation activities for semiconductor products. Develop and execute power measurement strategies and collaborate across teams to ensure silicon meets power and performance specifications.
Responsibilities
Own post-silicon power measurement strategy across operating modes, voltages, frequencies, and workloads
Build and maintain lab infrastructure, automated workflows, and data analysis pipelines for power characterization
Correlate silicon power data to pre-silicon models and drive root-cause analysis
Characterize power across PVT corners and work with bring-up/validation teams to debug power anomalies
Qualification
A strong debugger and collaboratorBuild and maintain lab infrastructureWhat you will learnHow to influence power architectureBest practices for building scalable
Required
A Principal-level engineer with 8+ years in silicon power analysis and characterization, and a Master’s or PhD in EE, CE, or related field.
Deep understanding of digital and mixed-signal power domains, including DVFS, leakage vs. dynamic power, and power gating.
Highly proficient in lab-based power measurement using oscilloscopes, current probes, power analyzers, and SMUs, plus Python/Perl/MATLAB for automation and analytics.
A strong debugger and collaborator, comfortable driving cross-functional investigations and clearly communicating technical findings.
Own the post-silicon power measurement strategy end-to-end across operating modes, voltages, frequencies, and workloads.
Build and maintain lab infrastructure, automated workflows, and data analysis pipelines for high-fidelity, repeatable power characterization.
Correlate silicon power data to pre-silicon models (RTL, gate-level, sign-off), drive root-cause analysis, and refine power estimation methodologies with design and modeling teams.
Characterize power across PVT corners and work with bring-up/validation teams to develop test content, debug power anomalies, and ensure products meet power and performance specs.
What you will learn
How state-of-the-art SoCs behave in real silicon across diverse workloads, system configurations, and operating conditions.
How to influence power architecture, RTL design, and modeling flows by feeding silicon insights directly back into early design phases.
Best practices for building scalable, automated post-silicon power infrastructures that support multiple products and generations.