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Implementing Multi‑Tenant GPU Sharing on SageMaker HyperPod with EKS

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SageMaker HyperPod now includes a reference architecture for sharing a single GPU‑powered EKS cluster across multiple teams with isolation, fair scheduling, and cost attribution. This lets engineers consolidate expensive hardware while maintaining security boundaries and operational independence.

Amazon SageMaker HyperPod now supports a documented pattern for sharing a single GPU‑rich EKS cluster across multiple internal teams while preserving isolation, fair scheduling, and per‑team cost visibility. The change matters because it lets data‑science, computer‑vision, and research groups consume the same high‑cost hardware without risking uncontrolled usage, tangled permissions, or opaque billing.

Why Multi‑Tenant GPU Clusters Matter

GPU resources are expensive and often under‑utilized when provisioned per team. A shared HyperPod cluster reduces capital waste, but only if the platform can enforce clear boundaries between teams. Without such controls, a single team could monopolize GPUs, obscure spend, and expose workloads to accidental interference.

Key Architectural Pieces

The reference design layers several AWS services to achieve isolation and governance:

  • AWS IAM Identity Center provides a single sign‑on portal that federates to external identity providers. Each team receives a distinct permission set, which the service translates into an IAM role (TeamA-permissionset-role, TeamB-permissionset-role).
  • SageMaker AI domains are created per team (e.g., SageMaker AI domain Team A). Each domain runs its own Studio UI and is associated with a team‑specific execution role (TeamA-role, TeamB-role).
  • Kubernetes namespaces on the HyperPod‑managed EKS cluster act as the isolation boundary. All resources a team can create—pods, services, PVCs—are confined to its namespace.
  • Access entries map the IAM roles from Identity Center and the Studio execution roles to Kubernetes RBAC policies scoped to the appropriate namespace. This ensures that whether a user works from the CLI (aws sso login → kubectl) or from Studio, the API server only permits actions inside the team’s namespace.
  • HyperPod Task Governance sits on top of the scheduler to enforce fair GPU allocation across namespaces. The service distributes compute slots according to configured policies, preventing one namespace from starving others.
  • HyperPod Observability provides cluster‑wide metrics and dashboards, useful for tracking utilization and detecting anomalies.

Implementation Steps

Practitioners should follow these high‑level actions:

  1. Configure AWS IAM Identity Center with a permission set per team and enable federation to the corporate IdP.
  2. Create a SageMaker AI domain for each team, attaching the corresponding execution role.
  3. Provision a single HyperPod‑backed EKS cluster. Enable the HyperPod Observability and Task Governance add‑ons.
  4. Define a Kubernetes namespace for each team and create access entries that bind the team’s IAM roles to namespace‑scoped RBAC policies.
  5. Activate namespace‑level cost allocation tags so that usage reports can be broken out by team.

Operational and Security Implications

From an operations perspective, the shared cluster simplifies lifecycle management—updates, node health checks, and fault recovery are handled centrally by HyperPod. However, the model also introduces new responsibilities:

  • RBAC hygiene: Access entries must be kept in sync with any changes to permission sets or execution roles to avoid privilege creep.
  • Governance tuning: Task Governance policies should be reviewed regularly to reflect evolving workload priorities and to prevent inadvertent denial of service within a namespace.
  • Cost attribution: Namespace‑level tags enable chargeback, but accurate reporting depends on consistent tagging of all GPU‑consuming resources.
  • Observability integration: Teams should subscribe to the HyperPod Observability dashboards to monitor their own utilization and to detect unexpected spikes that could indicate misconfiguration.

Related CloudNinjas coverage: AWS.

What This Means For Practitioners

Adopting the multi‑tenant HyperPod pattern lets you consolidate GPU spend while preserving the isolation required for independent development cycles. Start by mapping each internal team to a SageMaker AI domain and a dedicated Kubernetes namespace, then enforce namespace‑scoped IAM access and enable Task Governance. Monitor the observability feeds and cost tags to verify that the fairness controls are effective, and adjust RBAC or governance policies as team workloads evolve.

Originally published atAWS Machine Learning Blog