technology

The architecture behind the operations console

The architecture underneath the operations console: one correlated event timeline, one semantic model of a multi-vendor estate, and the telecoms and security layers that span both.

platform_architecture

Built to sit above any vendor, not beside one

smoc.cloud is not a dashboard bolted onto a head-end system. It is an operational intelligence platform with its own correlation engine, its own semantic information model, and its own multi-tenant security architecture — which is what allows it to sit above any combination of meters, head-ends, communications networks and enterprise systems you already operate.

Each layer below is independently useful and deliberately ordered. Correlation makes events comparable. The information model makes a multi-vendor estate queryable as one estate. Telecommunications intelligence applies both to the largest single cause of unresolved reads. Security architecture spans every layer, because a platform holding operational data for multiple utilities has to isolate them by design rather than by configuration.

architecture_model

Five layers, two cross-cutting disciplines

Telemetry is ingested from any network and any vendor, correlated onto one timeline, given consistent meaning by the semantic model, and only then used for prediction and simulation. Security spans every layer; telecoms intelligence draws on all of them.

L5Utility Digital TwinAsset, topology and behaviour model for simulation and what-if analysis.
L4AI Network IntelligenceAnomaly detection, failure prediction and operational prioritisation.
L3Semantic Information ModelDLMS/COSEM OBIS registers mapped onto an IEC CIM-aligned model.
L2Operational Correlation EngineEvery meter, network, head-end and enterprise event on one ordered timeline.
L1Multi-Protocol Telemetry IngestionCellular, RF mesh, PLC, satellite and hybrid networks; any head-end, any vendor.
Multi-tenant security architecturespans L1–L5
Telecommunications intelligencedraws on L1–L4
digital_twin_framework

The Utility Digital Twin Framework

A live, topology-aware model of the estate that bridges the field and the enterprise — so a field event is judged against what the estate should be doing, not only against what it reported.

Field Reality
  • Smart meters
  • Gas, water and heat
  • EV charge points and PV generation
  • Concentrators
  • Bearers — RF, cellular, PLC
The Twin Framework
  1. 01 · Observe

    Every device and every event ingested from any network, any head-end, any vendor — including devices you have not procured yet.

  2. 02 · Correlate

    Field, network, head-end and enterprise events ordered onto one timeline per device and per population, so cause is derived rather than assumed.

  3. 03 · Model

    Each device bound to its asset, feeder, site, service point and customer in the CIM-aligned semantic model.

  4. 04 · Mirror

    A continuously updated twin of asset, topology and behaviour state, kept current as the estate is commissioned, replaced or reconfigured.

  5. 05 · Simulate

    Expected-behaviour comparison and what-if analysis run against the real estate, not a spreadsheet approximation of it.

Operational Systems
  • HES — head-end system
  • MDMS — meter data management
  • ADMS — advanced distribution
  • GIS — geographic information
  • SIEM — security
  • Billing / ERP

Nothing travels from a meter into an enterprise system as an isolated reading. Each event is resolved to a canonical device, placed on the correlated timeline and bound to its asset and topology — which is why the same twin can answer an operational question, a regulatory question and a network-planning question without being rebuilt for each.

layer_5

The twin framework in detail

Coverage across meters, communications, distribution assets, customer premises and operational workflows — and what impact analysis, what-if modelling and predictive planning look like on top of it.

Utility digital twin
technology_areas

The layers in detail

Each area is documented on its own page, in dependency order. Correlation and the information model underpin everything above them.

next_step

See your estate in smoc.cloud.

A demo walks through your utility types, your vendors and your compliance obligations — not a generic slide deck.