Edge Inference Cluster
Small GPU footprints at many sites where data is produced. Constraints are power, physical space, intermittent connectivity, and fleet management — not raw scale.
Customize in DesignerRun inference close to where data is generated for latency, bandwidth, or data-residency reasons, managed as a fleet.
- ·Sites are power- and space-constrained; low-TDP GPUs.
- ·Connectivity to the core is intermittent; sites must run degraded-but-functional.
- ·Many sites — fleet management and remote update are essential.
Rendering diagram…
Compute
Low-TDP inference GPUs (e.g. 72W-class) that fit facility power and space; quantized/distilled models to fit small memory.
Network
Store-and-forward: sites operate offline and sync models/telemetry when connectivity returns. Local ingress for on-site clients.
Storage
Local cache for models and buffered results; central object store as source of truth synced opportunistically.
Kubernetes
Lightweight distributions (MicroK8s/k3s/RKE2) managed centrally via GitOps and fleet tooling (e.g. Fleet/Arc).
Security
Hardened, remotely-attested nodes; signed model updates; minimal local secrets; assume physical exposure at sites.
Observability
Central telemetry hub aggregating fleet health with tolerance for gaps; per-site heartbeat and model-version tracking.
- highFleet update/rollback failures brick remote sites that are hard to service.
- mediumModel too large for edge memory/power, forcing distillation late.
- mediumPhysical security of remote nodes.
- 1
Reference site
One site: lightweight K8s, low-TDP GPU, model serving validated within power budget.
- 2
Fleet control
GitOps rollout/rollback, signed updates, central telemetry.
- 3
Offline resilience
Store-and-forward sync; validate degraded operation during disconnect.
- 4
Scale-out
Roll to N sites with staged/canary fleet updates.
- Site serves within its power/space budget.
- Site keeps serving through a simulated core outage, then re-syncs.
- Fleet rollback recovers a bad model update remotely.