Deploy AI workloads directly on-site using resilient, scalable edge infrastructure — without relying on cloud latency or cost-heavy compute.
Trusted by SaaS, industrial and edge-first teams.
Real-time AI becomes impractical when every inference round-trips through a distant region.
Cloud GPU usage and egress fees escalate sharply as inference volume scales.
Remote sites and edge cases mean intermittent connectivity that breaks centralised systems.
Sensitive and regulated data increasingly cannot leave the site of origin.
Centralised architecture makes the entire operation dependent on one region's availability.
For many workloads, AI needs to run closer to where data is created.
A simple, repeatable architecture you can deploy node-by-node.
A pre-configured server-in-a-box gets you from prototype to production in hours, not months.
| Dimension | Cloud AI | Edge AI |
|---|---|---|
| Latency | High | Ultra-low |
| Cost | Variable | Predictable |
| Connectivity | Required | Optional |
| Data Control | External | Local |
| Resilience | Medium | High |
Assess in 2 minutes whether your workloads should run in the cloud, at the edge, or hybrid.
Deploy local compute nodes with optional cloud sync for aggregation.
Discuss your resultFrom design and hardware to ongoing management — explore how we deliver edge infrastructure at scale.
An end-to-end model for designing, deploying and managing edge infrastructure at scale.
Architecture, hardware selection and proof-of-concept design for edge AI deployments.
Pre-configured, ready-to-deploy edge hardware tested for production workloads.
Centralised provisioning, monitoring and OTA updates for distributed fleets.
Fully operated edge infrastructure with SLAs, monitoring and remediation.
Real-world deployments across industrial, retail, logistics and smart buildings.
The team behind ScalerPi and our mission to simplify edge infrastructure.
Book a 30-min architecture call, get a tailored deployment plan, or review your current setup.
Edge AI infrastructure runs AI workloads on compute located close to where data is generated — on-site or near-site — rather than in a centralised cloud region. It typically combines local compute nodes, containerised runtimes, local data pipelines and optional cloud sync.
Run at the edge when you need millisecond latency, work offline, generate large data volumes, or have data sovereignty requirements. Use the cloud for large-scale model training and aggregated analytics. Most production systems are hybrid.
Costs are predictable: upfront hardware plus ongoing management. At scale, edge inference is typically significantly cheaper than per-request cloud GPU usage and avoids egress charges.
From low-cost ARM clusters (Raspberry Pi CM5) up to GPU mini-nodes (NVIDIA Jetson, industrial edge servers). Hardware is matched to workload complexity and environmental constraints.
Yes. A well-designed edge architecture keeps inference, data capture and decisioning fully operational without internet connectivity, syncing back to the cloud opportunistically.
Edge clusters can sync data, telemetry and model artefacts to AWS, Azure or GCP for storage, retraining and aggregation — without making the cloud a runtime dependency.
Not strictly, but lightweight Kubernetes distributions like K3s are the standard for orchestrating containerised AI workloads at the edge, enabling consistent updates and scale-out.
Through a centralised device management platform that handles provisioning, monitoring, OTA updates, secrets and remote access across every node.
A complete 2026 guide to running AI workloads at the edge.
Latency, cost and performance compared — and when each wins.
A step-by-step technical guide from use case to production.
How K3s and lightweight orchestration power distributed AI.
What they are, where they fit, and when to deploy one.
Architecting for intermittent or zero connectivity environments.