Machine Learning Performance Engineer - CUDA Python - REMOTE with Travel

Job Description

Job Description :

Machine Learning Performance Engineer - CUDA Python

Duration : 6 month contract with the likelihood to extend

Location : Remote but candidates must be willing to travel to different customer sites.

• Must be willing to travel
• Must have strong pre-sales abilities i.e. presentation skills, communication skills, etc.
• Must be willing to help train WWT employees and customers

We are needing very strong technical CUDA Python ML engineers. They can sit anywhere in the US but must be willing to travel 30% of the time. They will be very client facing so professionalism and presentation skills are very key to this role.

Your part here is optimizing the performance of our models – both training and inference. We care about efficient large-scale training, low-latency inference in real-time systems, and high-throughput inference in research. Part of this is improving straightforward CUDA, but the interesting part needs a whole-systems approach, including storage systems, networking, and host- and GPU-level considerations. Zooming in, we also want to ensure our platform makes sense even at the lowest level – is all that throughput actually goodput? Does loading that vector from the L2 cache really take that long?

Requirements

Your part here is optimizing the performance of our models – both training and inference. We care about efficient large-scale training, low-latency inference in real-time systems, and high-throughput inference in research. Part of this is improving straightforward CUDA, but the interesting part needs a whole-systems approach, including storage systems, networking, and host- and GPU-level considerations. Zooming in, we also want to ensure our platform makes sense even at the lowest level – is all that throughput actually goodput? Does loading that vector from the L2 cache really take that long? An understanding of modern ML techniques and toolsets The experience and systems knowledge required to debug a training run’s performance end to end Low-level GPU knowledge of PTX, SASS, warps, cooperative groups, Tensor Cores, and the memory hierarchy Debugging and optimization experience using tools like CUDA GDB, NSight Systems, NSight Compute Library knowledge of Triton, CUTLASS, CUB, Thrust, cuDNN, and cuBLAS Intuition about the latency and throughput characteristics of CUDA graph launch, tensor core arithmetic, warp-level synchronization, and asynchronous memory loads Background in Infiniband, RoCE, GPUDirect, PXN, rail optimization, and NVLink, and how to use these networking technologies to link up GPU clusters An understanding of the collective algorithms supporting distributed GPU training in NCCL or MPI An inventive approach and the willingness to ask hard questions about whether we're taking the right approaches and using the right tools