Cloud native for AI workloads: what’s actually different.

Build · Cloud Native & AI System Design

Cloud native for AI workloads:
what’s actually different.

Cloud-native architecture for teams running AI and ML workloads in production — where the infrastructure is the product and getting it wrong costs GPU-hours rather than CPU-hours.


The AI platform is not a side project

Most AI platforms were assembled by a data science team that needed somewhere to run a notebook and grew from there. The result is a collection of services that were never designed as a system: a training cluster that takes two days to provision, a model registry nobody enforces, serving infrastructure that cannot scale below one expensive GPU, and a monitoring gap between the MLOps dashboard and the SRE dashboard that nobody owns.

Cloud-native patterns — containerisation, declarative infrastructure, service mesh, GitOps — solve the operational problems, but only if they’re adapted for workloads that behave differently from web services. Model serving has a different scaling profile. Training jobs have a different failure mode. GPU resources have a different cost structure. Applying the Kubernetes playbook from your web tier without adjusting for these differences produces an expensive, complicated way to run the same disorganised platform.


What we do

  • AI platform architecture. GPU and accelerator capacity strategy, model-serving infrastructure, vector and feature stores, and a data plane that does not require a ticket to read from.
  • Cloud-native design for ML workloads. Containerised training and serving, autoscaling tied to inference load, spot/preemptible scheduling for batch, and cost controls that prevent a forgotten training job from running up a five-figure bill overnight.
  • Kubernetes for AI. Cluster topology, GPU scheduling, node affinity, resource quotas, and the operational playbook for running GPU workloads on Kubernetes without turning every incident into a platform team escalation.
  • MLOps and model lifecycle. Model registry, promotion pipelines, A/B and shadow deployment, rollback, and the monitoring that tells you the model has degraded before the business metrics do.
  • FinOps for compute-heavy workloads. GPU utilisation tracking, commitment strategy, workload scheduling, and the financial model that tells you when self-hosted training is cheaper than API calls.

Tell us what’s stuck.

First conversation is a working session with an engineer, not a pitch.

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