Senior architecture architect

NVIDIA is seeking a Compute Kernel Performance Architect with a unique blend of skills: someone who can write, profile, and analyze CUDA kernels with a laser focus on power consumption and current draw — and who understands how those kernels interact with the GPU's Power Delivery Network (PDN) at a system level. This is not a typical performance role. You will be writing stress workloads that deliberately push GPU power to its limits, partnering with hardware architects to validate power integrity assumptions, and helping ensure that our chips survive the harshest real‑world di/dt scenarios. This position is an opportunity to have real impact on the GPU power architecture of future NVIDIA products, working at the boundary of GPU architecture, software and silicon.
What You’ll Be Doing Design and develop CUDA kernels purpose‑built to enhance GPU power consumption — targeting worst‑case current draw across compute, memory, and I/O subsystems
Collaborate with hardware power architects to validate PDN assumptions, di/dt specs to appropriately target weak points
Build and maintain a library of power stress microbenchmarks that sweep power profiles across GPU functional units — tensor cores, memory controllers, I/O interfaces — to stress PDN resonance and droop conditions across GPU families
Analyze trade‑offs between kernel throughput, power efficiency, and voltage stability, contributing insights that feed directly into future GPU architecture decisions
What We Need to See MS or PhD in Computer Science, Electrical Engineering, or Computer Engineering (or equivalent experience)
5+ years of experience in GPU kernel development, CUDA programming, or high‑performance computing
Strong CUDA and C++ programming skills, with hands‑on experience writing and optimizing kernels at the assembly or PTX level
Experience with GPU performance profiling tools — Nsight Compute, Nsight Systems, nvprof, or equivalent
Solid understanding of GPU architecture — SMs, memory hierarchy, power states, and how they map to current draw profiles
Working knowledge of Power Delivery Networks (PDNs) — including board‑level PDN design, package inductance, decoupling capacitors, and their role in voltage droop and overshoot
Conceptual understanding of di/dt — how rapid current transitions cause voltage transients, and how software workloads can be designed to control or stress those transitions
Strong programming skills in Python for scripting, data analysis, and automation of power characterization workflows, using vibe coding effectively
Excellent communication skills and comfort working across hardware and software disciplines
Ways to Stand Out from the Crowd Hands‑on experience writing GPU power stress microbenchmarks — synthetic workloads designed to hit worst‑case power consumption on specific GPU functional units
Direct experience with post‑silicon power characterization — measuring VDD voltage droop, di/dt slew rates, and power supply transient response using oscilloscopes, sensors, or equivalent lab tools
You will also be eligible for equity and benefits.
Applications for this job will be accepted at least until July 3, 2026.
As we highly value diversity in our current and future employees, we do not discriminate (including in our hiring and promotion practices) on the basis of race, religion, color, national origin, gender, gender expression, sexual orientation, age, marital status, veteran status, disability status or any other characteristic protected by law.

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