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Enterprise utilities operational intelligence. Not dashboards.

Governed outage intelligence, asset observability frameworks, infrastructure monitoring, and operational KPI platforms — engineered by Unolabs so water, energy, and utility operators act on live grid and field signals instead of lagged reports.

ARCHITECTURE FLOWUTILITIES INTELLIGENCE
INFRASTRUCTURE SIGNALS

SCADA, GIS, AMI, OMS

Operational telemetry + real-time infrastructure signals

UTILITIES INTELLIGENCE ARCHITECTURE

UTILITY DOMAIN INTELLIGENCE

Outage orchestration + asset observability

OPERATIONAL OUTCOME

OPERATIONS, COMPLIANCE, AUTONOMY

Operational intelligence + automated response systems

Expertise in Enterprise Ecosystems
Azure
AWS
Databricks
Snowflake
SAP
MS Fabric
10–14 week first intelligence release
Grid · Asset · Outage · Customer domains
Azure · Databricks · Snowflake · Power BI · MS Fabric
Definition

What is Utilities Intelligence Accelerator?

A utilities intelligence accelerator is a pre-built set of governed data domains, KPI definitions, and analytics models for grid and field operations — asset, outage, customer, and crew entities aligned to how SCADA, GIS, AMI, and OMS estates actually describe the network. Instead of modelling the utility from scratch, teams configure proven domain templates, landing a first operational release in 10–14 weeks with regulatory reporting lineage designed in from the start.

For the CIO

One operational truth across SCADA, GIS, AMI

Your control room, field crews, and regulators each see a different version of the network, and every outage replays the reconciliation. The utilities accelerator lands governed asset, outage, and KPI domains in a 10-14 week first release — with the compliance lineage regulators ask for designed in rather than assembled afterwards. Operational systems stay untouched; the intelligence layer unifies them.

Utilities Transformation Failure

Why utilities transformation initiatives fail

Fragmented Operational Systems

SCADA, GIS, AMI, outage management, work management, and billing systems operate without a unified operational intelligence layer, preventing cross-domain decisions.

Disconnected Infrastructure Intelligence

Asset health, outage events, weather signals, and crew availability exist in isolated systems with no joined operational context for prioritisation or response.

Siloed Field Operations

Field crews and control room operators operate from different data sources, creating misalignment during outage events and maintenance cycles.

Weak Observability Frameworks

Absence of real-time operational cockpits means utility leadership makes decisions on stale, aggregated reporting rather than live infrastructure intelligence.

Delayed Incident Response

Without automated outage impact scoring and restoration prioritisation, operations teams lose critical response time coordinating across disconnected platforms.

Poor Governance Standardisation

Without governed KPI taxonomies and data stewardship models, operational teams report conflicting metrics and waste cycles reconciling regulatory evidence.

Strategic Impact

Business Outcomes Enabled by Utilities Operational Intelligence

Faster Operational Decision-Making

Enable infrastructure operators and field teams to act on live outage, asset, and grid signals rather than lagged operational reports.

Improved Infrastructure Visibility

Eliminate blind spots across SCADA, GIS, AMI, and outage management systems with a unified operational intelligence layer.

Reduced Operational Downtime

Shift from reactive outage response to predictive asset health monitoring and proactive maintenance prioritisation.

Enhanced Field Operations Intelligence

Equip crews with real-time work order intelligence, asset criticality context, and restoration prioritisation frameworks.

Improved Operational Resilience

Build infrastructure observability ecosystems that sustain operational continuity during outage events and grid stress scenarios.

Regulatory Readiness

Establish governed reporting lineage for service quality, reliability, billing, and compliance evidence without manual assembly.

Data Architecture Design

How Utilities Intelligence Accelerator delivery works

The view below shows how work moves through the delivery flow — from inputs, through governed controls, to operational outputs.

Engineering Flowchart

Utility Operational Intelligence Data Flow

Read left to right: source systems enter, Unolabs applies engineering treatment and control gates, then production assets are served to users, applications, or AI.
Input

Source Layer

01
SCADA, GIS, AMI, OMS

Grid, asset, and customer-facing systems emit meter, outage, location, and service events via SCADA and AMI connectors on Azure and Databricks.

Batch + Streaming
Treatment

Engineering Layer

02
Governed Utility Intelligence Domains

Asset, grid, outage, customer, crew, and billing domains are standardised into governed enterprise utility intelligence templates.

Industry template
03
Outage, Asset & Grid Features

Features support outage impact scoring, asset health monitoring, restoration prioritisation, crew dispatching, and regulatory evidence.

Feature mart
Output

Activation Layer

04
Operations, Compliance, Agents

Control room operators, field crews, regulatory teams, and autonomous agents receive prioritised actions via Power BI, MS Fabric, and operational cockpits.

BI + workflow
What enters

SCADA, GIS, AMI, OMS

What Unolabs does

Governed Utility Intelligence Domains -> Outage, Asset & Grid Features

What exits

Operations, Compliance, Agents

Control Points

Field Signals -> Domain Model -> Intelligence -> Action

Access

Identity, RBAC, purpose, and least privilege.

Quality

Freshness, completeness, validity, and anomaly checks.

Lineage

Source, transformation, owner, and consumer traceability.

Operations

Monitoring, retry, alerting, runbooks, and evidence.

Our Approach

How Unolabs engineers Utilities Intelligence Accelerator

01

Utility Domain Model Fit

We map your asset, grid, customer, premise, outage, crew, work order, and billing entities to governed, reusable utility intelligence templates on Azure, Databricks, and Snowflake.

02

Operational Signal Integration

We combine SCADA, GIS, AMI, outage management, work management, weather, and customer systems into standardised intelligence layers powered by Power BI and MS Fabric.

03

Asset Observability

We build asset health indicators, failure risk scores, maintenance criticality rankings, and infrastructure performance signals for field and control room teams.

04

Outage Intelligence Architecture

We connect event signals, asset history, weather context, crew availability, and customer impact into a unified outage intelligence and restoration prioritisation framework.

05

Semantic BI Layer

We define governed measures for outage frequency, restoration time, asset reliability, service quality, and compliance metrics across Power BI and MS Fabric environments.

06

Operational KPI Governance

We establish standardised KPI taxonomies and data stewardship models that eliminate conflicting operational reporting across functions and regulatory teams.

Strategic Assessment

Enterprise Utilities Intelligence Maturity Model

Where does your organisation sit on the path to autonomous operations? Use this model to identify your current stage and the critical engineering gaps preventing progression.

Level 1

Fragmented operational reporting

Isolated, manually assembled operational reports from SCADA, GIS, and billing with no unified infrastructure intelligence or standardised KPI definitions.

Level 2

Department-level infrastructure analytics

Asset and outage analytics exist but remain siloed, with limited cross-domain operational visibility or joined intelligence between field and control room.

Level 3

Governed enterprise utility intelligence

Standardised asset, outage, and operational KPI models with governed taxonomy and cross-functional infrastructure observability.

Level 4

Real-time operational observability

Live grid, asset, and outage signals power operational decisions across control rooms, field crews, and regulatory reporting teams.

Level 5

Autonomous utility intelligence ecosystems

Agentic infrastructure orchestration and self-optimising operational intelligence that adapts to real-time grid and field signals.

Industry Benchmarking

Outage Response Speed
Typical Pattern
Manual/Delayed
Our Design Target
Automated Intelligence
Intelligence Deployment
Typical Pattern
12–18 Months
Our Design Target
10–14 Weeks (Templated First Release)
Asset Visibility
Typical Pattern
Lagged Reporting
Our Design Target
Real-Time Observability

Transformation Progression

1

Utility Intelligence Audit

Assessment of current operational data estate, outage signal coverage, asset data gaps, and infrastructure observability maturity.

2

Architecture Design

Designing the enterprise utility domain model, outage intelligence layer, and infrastructure observability framework.

3

Domain Model Deployment

Deploying standardised asset, grid, outage, customer, crew, and billing domains with governed KPI definitions.

4

Intelligence Activation

Publishing outage analytics features, asset health scores, and infrastructure performance cockpits for operational teams.

5

Autonomous Utility Operations

Enabling agentic infrastructure orchestration, automated maintenance signals, and self-optimising operational intelligence workflows.

Vertical Expertise

Utilities Operational Intelligence Use Cases

Outage Intelligence Systems

Automated outage impact scoring, restoration prioritisation, and crew dispatch intelligence

Infrastructure Monitoring

Real-time asset health monitoring, failure risk scoring, and maintenance prioritisation frameworks

Operational KPI Visibility

Governed utility KPI taxonomy across reliability, service quality, and compliance reporting

Field Operations Intelligence

Work order context, crew availability, and field asset intelligence for operational teams

Utility Asset Observability

SCADA, GIS, and AMI signal integration for transformer, feeder, and grid asset observability

Regulatory Compliance Analytics

Governed lineage and reporting marts for reliability, service quality, and billing compliance evidence

In Depth

What this means in practice

Operational Context Requires an Asset Graph

Utility intelligence depends on traversable relationships — which meters hang off which transformer, which feeder an outage isolates, which crew holds the nearest switching context. The accelerator builds that graph from GIS connectivity and asset history, reconciling the as-built network with the as-operated one so impact scoring and restoration prioritisation reflect the grid as it actually runs.

From Reporting to Orchestration

The same governed data products power outage dashboards, field crew alerts, and asset maintenance signals — and, where utilities operate ADMS or DERMS, the analytical context those systems consume. One intelligence layer feeds human decisions and agentic workflows alike, so orchestration becomes an extension of the estate rather than a parallel build.

Regulation Is Designed In

Reliability marts carry lineage from OMS event to filed SAIDI/SAIFI number, exclusion logic is codified rather than analyst-dependent, and retention schedules match filing cycles. Compliance evidence becomes a by-product of daily operation — not a manual assembly exercise before each reliability or rate submission.

Dynamic Data Flow

Utility Operational Intelligence Data Flow

The utility intelligence flow shows how field, grid, asset, and customer signals converge into governed outage, asset, and infrastructure intelligence ecosystems.

Utilities Intelligence AcceleratorData Flow Architecture
1
Field Signals

SCADA, GIS, AMI, OMS

Grid, asset, and customer-facing systems emit meter, outage, location, and service events via SCADA and AMI connectors on Azure and Databricks.

Batch + Streaming
2
Domain Model

Governed Utility Intelligence Domains

Asset, grid, outage, customer, crew, and billing domains are standardised into governed enterprise utility intelligence templates.

Industry template
3
Intelligence

Outage, Asset & Grid Features

Features support outage impact scoring, asset health monitoring, restoration prioritisation, crew dispatching, and regulatory evidence.

Feature mart
4
Action

Operations, Compliance, Agents

Control room operators, field crews, regulatory teams, and autonomous agents receive prioritised actions via Power BI, MS Fabric, and operational cockpits.

BI + workflow
Lineage tracked
Policy enforced
Outputs reusable
Flowchart

Utilities Intelligence Accelerator: from input to operational asset

The flowchart turns the service into a delivery sequence so buyers can see the real work, not just the promise.

1

Business Input

Faster Operational Decision-Making

2

Architecture Decision

Utility Domain Model Fit

3

Data Treatment

Governed Utility Intelligence Domains

4

Controls Applied

Outage, Asset & Grid Features

5

Operational Output

Operations, Compliance, Agents

Deliverables

Visible work products, not vague advice

Each deliverable is designed to be used by executives, architects, engineers, data owners, and operations teams after the engagement ends.

Enterprise utility intelligence architecture
CIM-aligned governed domain model (asset, grid, outage, customer, crew)
Outage analytics and restoration prioritisation framework
Asset health scoring and observability system
AMI interval data pipeline and load views
Reliability KPI marts (SAIDI/SAIFI/CAIDI) with governed lineage
Operational cockpits for control room and field teams
Regulatory compliance reporting layer
Roadmap

The delivery path

1

Discover

Audit operational data estate, outage signal coverage, asset data gaps, regulatory reporting conflicts, and infrastructure observability maturity.

2

Design

Define the enterprise utility domain model, governance taxonomy, outage intelligence architecture, and infrastructure observability framework.

3

Build

Deploy governed domain templates, asset health features, outage analytics, and operational dashboards across Azure, Databricks, Snowflake, and Power BI.

4

Scale

Expand the utility intelligence architecture across new grids, asset classes, and operational regions through configuration rather than custom engineering.

Outcomes

What changes after the work

Faster operational decision-making

Improved infrastructure visibility

Reduced operational downtime

Better outage response coordination

Improved asset monitoring

Increased operational resilience

Enhanced field operations intelligence

Faster regulatory compliance readiness

FAQ

Frequently Asked Questions

How do you get OT data out without widening the CIP perimeter?

Through one-way, outbound-only replication: historian and SCADA-derived data is mirrored into a collection tier in the CIP DMZ, and the analytics platform reads from that tier on the corporate side. No inbound connections into the electronic security perimeter are created, no analytics tooling is installed on OT assets, and the existing CIP asset scope is left unchanged — the accelerator consumes only what the boundary already permits to flow outward.

Do you integrate with our existing ADMS, OMS, and GIS?

Yes — the accelerator reads from them rather than replacing them. Outage events come from OMS, network topology and connectivity from GIS, and switching or state context from ADMS where an interface exists. Domains are aligned to IEC CIM (61968/61970), which keeps those mappings stable across vendor upgrades. Any write-back into operational systems goes through their existing APIs and operator review, never directly from the analytics layer.

How is AMI interval data handled at scale?

Interval reads are extracted from the AMI head-end or MDM — preferring VEE-processed reads so validation and estimation flags survive into analytics. At 15-minute granularity a million meters produce roughly 96 million reads a day, so lakehouse zones are partitioned by meter and read timestamp, late and re-issued reads are versioned rather than overwritten, and multi-year retention is tiered to keep rate-case analysis affordable.

What does the first release include?

A typical 10–14 week first release lands the governed asset, outage, and customer domains; reliability KPI marts computing SAIDI, SAIFI, and CAIDI with codified exclusion logic; asset health and outage-impact scoring; and operational cockpits for control-room and field teams. The week-one scoping audit confirms which domains and source systems make the first cut, based on extract availability and reporting priorities.

Engagement Mechanics

How an engagement starts

A 45-minute scoping call with a utilities data lead — bring your outage and asset reporting gaps; leave with a read on template fit and a proposed first-release scope.

What you bring
An operations sponsor plus control-room and field SMEs for week 1
Access to SCADA, GIS, AMI, and outage-system extracts for domain fit
A regulatory reporting owner to confirm compliance KPI definitions

Bring your outage reporting gaps. Leave with a scoped first release.