The EnerVectum Platform

A modular platform for lower-cost, more flexible site-energy operation

EnerVectum coordinates selected electrical and thermal assets around the needs of each site, combining storage, conversion, generation, flexible loads, metering and control into one site-level operating strategy.

Each configuration starts from site data, constraints and economics. The objective is to reduce avoidable energy costs, manage peaks, improve asset utilisation and increase the value of local energy, using only the technologies that can be justified by the business case.

Platform principle Better energy economics through coordinated flexibility.

EnerVectum integrates electricity, heat, storage, conversion and flexible demand around site cost drivers, technical constraints and measurable operating value.

Platform architecture

One site, coordinated as one energy system

EnerVectum connects site conditions, flexible assets and useful energy demands through a common coordination layer. The architecture is modular: each project includes only the technologies that are justified by the site’s technical needs and economic case.

This is a platform-level architecture, not a fixed equipment package. Individual projects may use only a subset of the assets shown, selected according to site needs, technical constraints and expected economic value.

Different assets, different roles

Electrical and thermal technologies provide different forms of flexibility. EnerVectum combines them where their interaction can improve site economics, operating flexibility or use of available infrastructure.

Electrical flexibility

BESS, PV, grid electricity, EV charging and flexible electrical loads can respond to electrical demand, tariffs, local generation and grid conditions.

Thermal flexibility

Thermal storage, heat pumps, recovered heat and flexible thermal loads can shift heating and cooling energy in time and reduce pressure on electrical infrastructure.

System coordination

EnerVectum connects the relevant assets so that operating decisions can be made around whole-site economics, constraints and priorities rather than individual equipment.

TES and BESS may be used independently or together. Their role depends on the site’s demand profile, duration needs, tariffs, technical constraints and whether the resulting business case justifies the investment.

Coordination layer

From connected assets to coordinated operation

EnerVectum’s current platform development focuses on the functions needed to understand site conditions, evaluate available flexibility, coordinate asset operation and measure both technical and economic performance.

01

Forecast

Use available information such as weather, PV production, demand, tariffs, prices and operating constraints to anticipate future site conditions.

02

Optimise

Evaluate available flexibility and determine preferred operating strategies around energy cost, site priorities and technical constraints.

03

Dispatch

Coordinate charging, discharging, conversion and flexible loads according to site priorities, energy economics, technical limits and operating objectives.

04

Measure & validate

Track technical performance, energy-cost impact, customer value and replication learning so that pilot results can guide future deployment.

Where the platform can improve economics

  • Sites with high energy cost, tariff exposure or expensive demand peaks
  • Properties with high PV export or limited local self-use
  • Buildings with heating demand and constrained electrical capacity
  • Light-industrial sites with useful thermal loads or recovered heat
  • Properties preparing for EV charging or wider electrification
  • Sites where better coordination can defer or reduce infrastructure pressure

Designed for measurable technical and economic value

EnerVectum starts with the customer site’s economics as well as its technical profile. The platform is configured around energy costs, tariffs, demand patterns, heating and cooling loads, grid capacity, local generation, EV charging plans and operational constraints.

The objective is to identify where coordinated flexibility can reduce avoidable cost, improve asset utilisation, increase the value of local energy and make better use of existing or planned infrastructure.

Modular by design

Configured around the site, not a fixed equipment package

An EnerVectum project does not require a predetermined combination of TES, BESS, PV, heat pumps or EV charging. The configuration is developed from the customer problem, cost drivers, available infrastructure and measurable value opportunities.

This allows the platform to support different site types while keeping interfaces, control logic and validation methods structured for future replication.

Start with the energy profile Understand energy cost, demand, local generation, thermal loads, tariffs, operating patterns and grid constraints.
Select the relevant flexibility Identify which storage, conversion and controllable loads can create justified technical and economic value.
Define interfaces and control Structure metering, communications, operating boundaries and coordination between assets.
Validate before replication Measure technical performance and commercial learning before scaling a configuration to additional sites.

From site assessment to measured pilot

EnerVectum uses pilot projects to validate integrated flexibility under real operating conditions, measure technical performance and economic value, and build the learning needed for future replication.

  • Site data and energy baseline
  • Technical concept and architecture
  • Asset and interface definition
  • Economic value and implementation assessment
  • Measured validation and replication plan