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ORBITRONOPS

AI Infrastructure

Build infrastructure your AI workloads can actually scale on.

AI workloads break the assumptions most cloud platforms were designed around. We design and build GPU-aware, Kubernetes-native infrastructure for training, inference and everything between.

ai-infrastructure.topology live topology
  1. 01Developer
  2. 02Model / Application
  3. 03Model Serving
  4. 04Kubernetes
  5. 05GPU Scheduler
  6. 06GPU Compute
  7. 07Observability
Reference flow for GPU-backed AI workloads on Kubernetes.

The problem

What's actually going wrong.

● SYMPTOM

GPUs sit idle while jobs queue

Expensive accelerators are allocated statically, fragmented across teams, and rarely shared well. Utilization is invisible until the bill arrives.

● SYMPTOM

Inference is bolted on

Models are served from ad-hoc containers without autoscaling, batching, canary rollouts or latency budgets.

● SYMPTOM

Scheduling was built for web apps

Default Kubernetes scheduling doesn't understand gang scheduling, queues, quotas or topology-aware GPU placement.

● SYMPTOM

No observability for models

Teams can see CPU and memory, but not GPU saturation, token throughput, queue depth or per-model cost.

What we do

AI Infrastructure capabilities.

GPU infrastructure

Node pool design, accelerator selection, MIG/time-slicing strategies, driver and device-plugin lifecycle.

GPU scheduling & queuing

Batch and gang scheduling with Kueue or Volcano, fair-share quotas and priority classes across teams.

AI workloads on Kubernetes

Training jobs, distributed workloads and pipelines running reliably on shared clusters.

Model serving & inference

Serving stacks with autoscaling, request batching, rollout strategies and latency SLOs.

Workload orchestration

Pipelines and job orchestration that move models from experimentation into repeatable production runs.

AI observability

GPU telemetry, inference latency, throughput and cost attribution wired into your existing stack.

Cloud AI platforms

Pragmatic integration of managed services such as SageMaker or Vertex AI where they fit the problem.

AI infrastructure optimization

Right-sizing, spot/preemptible strategies and utilization improvements for compute-heavy workloads.

Technical capabilities

Technologies and practices.

Examples of tools we work with. Listed as capabilities, not certifications or partnerships.

  • Kubernetes
  • Kubeflow
  • Volcano
  • Kueue
  • NVIDIA GPU Operator
  • KServe
  • Ray
  • SageMaker
  • Vertex AI
  • Prometheus
  • Terraform

Outcomes

What changes.

  • Shared, scheduled GPU capacity

    Teams draw from governed queues instead of hoarding dedicated nodes.

  • Production-grade inference

    Models served with autoscaling, safe rollouts and latency objectives.

  • Visible AI cost

    Compute spend attributable to models, teams and workloads.

How we engage

Assessment → Architecture → Implementation → Enablement.

  1. 01

    Discover

    Understand the architecture, constraints and engineering bottlenecks.

  2. 02

    Architect

    Define the target architecture and implementation roadmap.

  3. 03

    Build

    Implement infrastructure, automation, platforms and reliability improvements.

  4. 04

    Enable

    Transfer knowledge and create sustainable engineering practices.

FAQ

Common questions.

Related insights

Further reading.

Related services

Often combined with.

See case studies

Talk to an Infrastructure Expert.

Tell us what you're building and where infrastructure is getting in the way. You'll talk directly to a senior engineer.