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Himalayas · Partner listing

AI Researcher — Inference Optimization

Featherless AI

⌖ WorldwideSalary not providedRemoteNot specified · Full-time

Source: Himalayas ↗

Location & working arrangement

Working arrangement is supplied by the provider. Check the original advert for attendance and travel requirements.

Provider location / applicant eligibility: Worldwide

About the role

Role Overview We are seeking an AI Researcher with deep experience in inference optimization to design, evaluate, and deploy high-performance inference systems for large-scale machine learning models. You will work at the intersection of model architecture, systems engineering, and hardware-aware optimization, improving latency, throughput, and cost efficiency across real-world production environments. Key Responsibilities Research and develop techniques to optimize inference performance for large neural networks. Improve latency, throughput, memory efficiency, and cost per inference. Design and evaluate model-level optimizations (quantization, pruning, KV-cache optimization, architecture-aware simplifications). Implement systems-level optimizations (dynamic batching, kernel fusion, multi-GPU inference, prefill vs decode optimization). Benchmark inference workloads across hardware accelerators. Collaborate with engineering teams to deploy optimized inference pipelines. Translate research insights into production-ready improvements. Required Qualifications Strong background in machine learning, deep learning, or AI systems. Hands-on experience optimizing inference for large-scale models. Proficiency in Python and modern ML frameworks (e.g., PyTorch). Experience with inference tooling (e.g., Triton, TensorRT, vLLM, ONNX Runtime). Ability to design experiments and communicate results clearly. Preferred / Nice-to-Have Qualifications Experience deploying production inference systems at scale. Familiarity with distributed and multi-GPU inference. Experience contributing to open-source ML or inference frameworks. Authorship or co-authorship of peer-reviewed research papers in machine learning, systems, or related fields. Experience working close to hardware (CUDA, ROCm, profiling tools). What Success Looks Like Measurable gains in latency, throughput, and cost efficiency. Optimized inference systems running reliably in production. Research ideas successfully translated into deployable systems. Clear benchmarks and documentation that inform product decisions. Relevant Research Areas (Bonus) Long-context inference optimization Speculative decoding KV-cache compression and paging Efficient decoding strategies Hardware-aware inference design Originally posted on Himalayas

Skills mentioned in the listing

PythonMachine learningDeep learningPyTorchPruning

Recognised skills are extracted from the supplied description using canonical names and aliases. They are mentions, not verified essential requirements. Check the source advert for the employer’s full requirements and location restrictions.

Why these skills appear

Python · requirement-context
nds-on experience optimizing inference for large-scale models. Proficiency in Python and modern ML frameworks (e.g., PyTorch). Experience with inference tooling (e.g., Triton, TensorRT, vLLM, ONNX Runtime). Ability

Machine learning · mentioned
design, evaluate, and deploy high-performance inference systems for large-scale machine learning models. You will work at the intersection of model architecture, systems engineering, and hardware-aware optimization, impr

Deep learning · requirement-context
improvements. Required Qualifications Strong background in machine learning, deep learning, or AI systems. Hands-on experience optimizing inference for large-scale models. Proficiency in Python and modern ML frame

PyTorch · requirement-context
for large-scale models. Proficiency in Python and modern ML frameworks (e.g., PyTorch). Experience with inference tooling (e.g., Triton, TensorRT, vLLM, ONNX Runtime). Ability to design experiments and communicate

Pruning · mentioned
t per inference. Design and evaluate model-level optimizations (quantization, pruning, KV-cache optimization, architecture-aware simplifications). Implement systems-level optimizations (dynamic batching, kernel fusio