Expertise

Production ML systems.

Models become products only when inference, infrastructure, observability, and operations work together. Sudhanva Narayana builds that production path for data-intensive and scientific ML workloads.

What production ML means here

Production ML is the engineering system around a model: how data reaches it, how it runs at the required throughput, how versions are delivered, how failures are detected, and how teams reproduce an output. The system boundary includes data pipelines, model execution, orchestration, deployment, monitoring, and cost—not only training code.

Batch inference emphasizes input throughput, accelerator utilization, repeatability, and end-to-end completion time. Online inference and model serving add latency, availability, rollout, and failure-isolation constraints. Both depend on the same operational foundation: versioned workloads, observable infrastructure, safe resource limits, and a clear recovery path.

Kubernetes, Ray, and Flyte can provide a useful platform substrate, while TensorFlow and PyTorch provide model execution. Those technologies are means rather than the outcome. The outcome is a reliable service or pipeline that moves scientific and product teams from an experiment to a measured, repeatable production workflow.

Engineering capabilities

Production ML Platforms
Kubernetes, Ray, Flyte, Airflow, infrastructure as code, environment management, and observability that give models a repeatable path to production.
Inference and Serving
Batch inference, real-time prediction, multi-GPU execution, model serving, input-pipeline optimization, performance tuning, and deployment automation.
Reliability and Operations
Monitoring, alerting, safe rollouts, recovery, data validation, resource management, and cost control for long-running ML systems.
Scientific and Data-Intensive ML
Large-scale prediction, geospatial analytics, vector search, scientific workloads, data pipelines, experiment tracking, and model evaluation.

Evidence

Production ML case studies

01 1B+ rows

Billion-Row Batch Inference

A production TensorFlow prediction pipeline processed more than one billion rows end to end in under three hours, helping scientific teams evaluate candidates and iterate faster.

  • TensorFlow
  • Kubernetes
  • Ray
  • Flyte
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02 $50K+ annual cloud-cost reduction

Kubernetes ML Platform

An autoscaling Kubernetes platform with Ray, Flyte, observability, experiment tracking, and model versioning gave cross-functional teams an on-demand path to production ML workloads.

  • Kubernetes
  • Ray
  • Flyte
  • Prometheus
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03 50% shorter deployment time

Multi-GPU Deployment System

A multi-GPU build system, automated tuning, and CI/CD reduced model deployment time by 50% and saved about ten engineering hours each week.

  • Multi-GPU systems
  • TensorFlow
  • PyTorch
  • CI/CD
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04 1M+ daily interactions

Real-Time Transformer Serving

At Autodesk, a high-throughput transformer ran on a real-time event pipeline that analyzed more than one million daily user interactions for next-click prediction.

  • Transformers
  • Real-time event processing
  • Model serving
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05 1TB+ daily

Geospatial ML Infrastructure

At Pixxel, multi-regional ML infrastructure improved inference efficiency by 75%, reduced map-rendering latency by 50%, and supported ETL and ML pipelines processing more than 1 TB each day.

  • Geospatial ML
  • ETL
  • GPU scheduling
  • Multi-region cloud infrastructure
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Related engineering notes

Explore the evidence or start a conversation.

Review the professional timeline and résumé for context, or reach out about production inference, ML infrastructure, and AI-platform engineering work.