Energy Providers

EV load is decided outside the energy business.

Plug-in time, state of charge, departure requirements, charger limits and driver behaviour determine when energy actually moves.

Vampire.Energy is designed to give providers the charger context and software control needed to move demand while protecting the customer's mobility requirement.

Map the EV control layer arrow_forward See the control architecture

Illustrative demand context

Different needs. One coordinated energy view.

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home

Residential charging

Vehicle ready for the morning

Flexible window

local_shipping

Fleet and depot charging

Departures protected by schedule

Operational window

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Business charging

Site capacity shapes delivery

Capacity aware

Demand

Visible

Window

Controllable

Outcome

Protected

Energy shift

Value is moving toward the moment energy is consumed.

Providers already control sourcing, tariffs, metering, billing and market access. EV charging creates a new contested layer: the decision of when energy moves into the vehicle.

01 / Relationship

Electricity contract

south

Mobility relationship

The provider can become part of the driving experience, not only the bill.

02 / Demand

Additional consumption

south

Time-bound energy need

Charging has a required outcome, a deadline and often room to move between them.

03 / System value

Concentrated peak load

south

Flexible load

Managed charging can shift demand into preferred windows while preserving mobility.

Control boundary

Define which charging decisions the energy business owns directly and which are delegated to a platform partner.

Demand visibility

Know how much energy is needed — and when.

Charging demand is more than a consumption curve. Each vehicle brings a required energy outcome, an available charging window and constraints set by the vehicle, charger, customer and site.

Historical behaviour and live availability provide useful context. They inform decisions; they do not imply perfect demand forecasting.

Charging requirement

Energy need with time and operating context

battery_charging_full

Required energy

What the journey or operation needs

Need

schedule

Readiness time

When the vehicle must be ready

Deadline

ev_charger

Vehicle and charger availability

When charging can physically occur

Window

electrical_services

Site capacity

What the connection can support

Limit

history

Charging history

Observed behaviour over time

Context

Individual

One customer's required outcome

Aggregate

Demand across a site or portfolio

Charging windows

Move charging without compromising mobility.

Most customers care about the outcome: the vehicle must be ready when they need it. Vampire.Energy is designed to orchestrate the charging window around that requirement and the energy conditions around it.

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Need

Required energy and ready-by time

rule

Constraints

Customer, charger, site and tariff rules

tune

Orchestration

Choose when and how energy is delivered

electric_car

Outcome

Vehicle ready as requested

payments

Electricity price and tariff rules

electrical_services

Household, depot or site capacity

energy_savings_leaf

Renewable energy availability

cell_tower

Applicable grid or external signals

account_tree

Portfolio and product requirements

event_available

Vehicle availability and schedules

front_hand

Customer control

Protect the mobility outcome first. Optimise inside the flexibility the customer provides.

Defines the outcome

Required energy and ready-by time.

Sees the status

Scheduled, charging or complete.

Can override

Plans can change without losing control.

Mobility stays first

Completion priority governs optimisation.

Energy products

Make charging part of the energy product.

The same orchestration capability can support different customer propositions. Suppliers define the product, tariff and customer experience; the platform connects those rules to real charging behaviour.

These are examples the platform can enable, not fixed Vampire.Energy packages.

01 / Tariffs

EV tariff

Connect price windows and charging rules to the customer outcome.

02 / Managed

Managed charging plan

Coordinate charging inside an agreed customer window.

03 / Overnight

Overnight charging

Prioritise delivery during defined overnight periods.

04 / Renewable

Renewable-linked charging

Use renewable availability as one input to the charging plan.

05 / Business

Fleet and business proposition

Coordinate operational schedules with commercial energy terms.

06 / Bundle

Charger + energy + software

Bring infrastructure, tariff and customer workflow into one offer.

Residential & Business

One orchestration model. Different operating contexts.

Home charging and business charging share the same fundamentals: understand the energy need, respect the operating constraints and deliver the required mobility outcome.

Residential

One driver, one household context.

home

ev_charger

Home charger and vehicle capability

schedule

Desired departure and readiness

price_change

Customer tariff and product rules

solar_power

Household constraints and solar where available

Business / Fleet

Many vehicles, one operating plan.

local_shipping

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Multiple vehicles and charging points

event_available

Departure and operational schedules

electrical_services

Depot or site capacity constraints

contract

Aggregate demand and commercial energy terms

Shared platform logic

Need + window + constraints + energy signals

The data scale and business workflow change; the underlying charging and energy orchestration does not.

Portfolio flexibility

Coordinate demand across a portfolio.

When charging load is controllable, providers can coordinate demand across customers or sites in response to energy and system conditions.

The objective is to move charging toward preferred windows while maintaining each customer's requirements. Portfolio coordination is a capability layer and a commercial option, not a promise of automatic market participation.

Read our energy-aware charging research arrow_forward

home

Homes

Individual requirements

domain

Sites

Capacity envelopes

local_shipping

Fleets

Operating schedules

Coordination layer

Aggregate context without losing individual constraints.

hub

payments

Wholesale

energy_savings_leaf

Renewables

network_node

Grid

show_chart

Demand peaks

cell_tower

External signals

Charging context

The energy layer has to understand the charging layer.

An energy signal only becomes a reliable charging action when it is applied with live charger capability, vehicle demand and session progress. That context lets the platform move energy without losing the customer's required outcome.

See the underlying architecture arrow_forward

A practical maturity path

See. Control. Monetise.

The near-term value is visibility and controlled charging. Market-facing flexibility becomes credible only after the platform can protect each customer requirement and verify the response.

01 / See

Understand the EV population.

Know when vehicles connect, what energy they require and where the available windows sit.

02 / Control · relevant now

Move load inside the mobility envelope.

Apply price, capacity and system signals without compromising the requested ready-by outcome.

03 / Monetise

Aggregate verified flexibility.

Turn a controlled portfolio into balancing, congestion or future bidirectional value where markets permit.

Define the control boundary for EV demand.

Map the customer requirement, charger estate, energy signals and existing platforms. Then define the smallest deployment that can prove controllable demand.

Discuss controllable EV load arrow_forward Explore the Platform

See how deployments are commercially scoped arrow_forward