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Engagement scopeA realistic Physical AI engagement architecture showing decisions, delivery phases and handoff. Illustrative, not a delivered client project.
Energy & EV Charging

EV-Charging Network AI: From One Depot to an Operated Fleet

How an incident-prediction pilot can move from one charging depot to an operated, network-wide product

Representative scenario
Timeline: A modelled 12-week engagement
July 2026

Operating context

A European charge-point operator context spanning mixed OCPP fleets, unreliable site connectivity and incident workflows that still depend on manual intervention.

Size: Representative: a European charge-point operator, 500–5,000 charge points

The Challenge

An availability and incident-prediction model works at one depot; scaling to the network means intermittent connectivity, OCPP fleet heterogeneity, and operations that cannot depend on a data scientist being awake.

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An indicative starting point: one depot's chargers feeding a model that flags failures before they strand drivers — accurate locally, unproven across hardware generations

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The charger fleet spans OCPP 1.6J and 2.0.1 hardware from multiple vendors; the pilot assumed one vendor's telemetry

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Sites with poor backhaul lose cloud connectivity for hours; the pilot assumes always-on links

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No incident-response loop: predictions land in a dashboard nobody owns at 3 a.m.

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Grid-side constraints — load management, demand-response windows — are not represented in the pilot's data

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No definition of which incident classes may be remediated automatically and which must page a human

My Solution

A representative engagement would design the edge-first production architecture — site-level inference tolerant of backhaul loss, bounded autonomous incident workflows with human escalation, fleet-wide observability — drawing on Auralink as Hyperion's pre-production reference platform. Research boundary: 78% autonomous incident resolution in a controlled-environment evaluation reported in arXiv preprint 2603.08736.

Edge-first by design: the network keeps working when the cloud is unreachable, and automation stays inside deterministic guards.

Implementation Phases

1

Production readiness review

The depot pilot assessed against the network's real hardware and telemetry diversity — the blocker map and the scale decision.

Weeks 1–2
2

Edge-first architecture

Site-level inference tolerant of backhaul loss; OCPP-version-agnostic telemetry normalisation; offline-tolerant sync.

Weeks 3–6
3

Autonomous incident workflows

Bounded automated remediation for defined incident classes, deterministic guards around every action, human escalation paths — the pattern class proven in Auralink's simulated operations.

Weeks 7–10
4

Operate & transfer

Network dashboards, per-site health scoring, and operator handover to the CPO's own team.

Weeks 11–12

Technologies & Approaches

Site-level edge inferenceOCPP 1.6J/2.0.1 telemetry normalisationAutonomous incident workflowsDeterministic safety guardsFleet observabilityOffline-tolerant syncPer-site health scoringLoad-management awarenessDemand-response windowsEscalation routingCharger-vendor abstraction layerIncident-class taxonomy

Designed outcome

The intended outcome is bounded autonomous incident handling with explicit human escalation, fleet-wide observability and operational ownership transferred to the CPO's team.

Services in a Representative Engagement

Product Decision Review
Product Leadership Mission
Executive Product Leadership for Physical AI
Edge AI Architecture
Autonomous Incident Workflow Design

Facing a Situation Like This?

Every engagement starts with a 30-minute diagnosis. Describe your situation, and I will tell you — honestly — whether I can help and how fast.

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EV-Charging Network AI: From One Depot to an Operated Fleet — Engagement Playbook