Technology & architecture

Built around the constraints of the real world.

An architecture for forecasting uncertain conditions, making feasible decisions and coordinating distributed resources within explicit operating limits.

DELVRIN / LOGICAL ARCHITECTUREDESIGN PRINCIPLES
01

Energy Forecasting Intelligence

Anticipate demand, renewable generation, prices and network pressure before they shape the next operating window.

02

Distributed Energy Asset Intelligence

Bring asset state, availability, customer requirements and operating limits into one decision-ready model.

03

AI Flexibility Optimization

Evaluate feasible actions across the portfolio. Balance energy objectives with the physical limits of every connected resource.

04

Automated Energy Orchestration

Translate the plan into scheduled, asset-level actions. Track instructions, acknowledgements and changing conditions.

05

Market & grid layer

Aggregate eligible flexibility into capacity for grid services and market participation, subject to local programme requirements.

Measurement and feedback connect every layer.

Integration architecture

Designed to work
with your energy systems.

Existing operational systems carry essential context. Delvrin’s integration architecture brings that context into a shared model for coordination.

PHYSICAL SYSTEMS
Smart meters & IoT telemetry+
SCADA & DERMS+
EV charging networks+
Battery & asset platforms+
DELVRINOne intelligence
layer.
Ingest · Model · Coordinate
OPERATING CONTEXT
+Weather & generation forecasts
+Energy markets & price signals
+Utility billing & customer systems
+Energy management & asset APIs

Integration architecture. Protocols, control permissions and data access are scoped to each deployment.

Engineering principles

01

Constraints before actions.

Customer requirements, physical limits and operating permissions define the feasible decision space.

02

Uncertainty stays visible.

Forecasts inform decisions. Confidence, changing conditions and reserve requirements remain part of the operating context.

03

Control has boundaries.

The architecture separates recommendations, authorized control workflows and measured acknowledgements. Deployment permissions are explicitly scoped.

04

Delivery must be measured.

A dispatch instruction is not proof of response. Verification connects requested actions with observed asset behavior.

Decision intelligence

Optimization within
an operating envelope.

Designed to support multi-objective scheduling, portfolio allocation and grid-aware coordination. Exact models and integrations are scoped to the operating environment.

EXPLORE THE TRADE-OFF

Different constraints.
A different decision.

Adjust the operating envelope to see how available flexibility changes the coordinated demand curve.

Reference optimization scenario. Not an energy forecast or an operational recommendation.

Coordinated peak demand2.88 GW1.04 GW shifted from peak
Reference portfolio 24-hour demand and generation forecast, showing reduced demand in the evening peakPEAK WINDOW01234GW00:0004:0008:0012:0016:0020:0023:00
Coordinated demandBaseline demandRenewable generation18:00 · 2.72 GW
Customer requirementsGrid limitsAsset availability

The next operating layer

Let’s coordinate
what comes next.

Explore what distributed energy orchestration could mean for your organization.

Talk to Delvrin