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Across Europe, the electricity grid is under increasing pressure as companies electrify faster than infrastructure can keep up. Fleets are going electric, heat pumps are replacing gas, and solar and storage are being added at scale — often on sites that were never designed for this level of demand.

For many businesses, the result is familiar: connection limits, delayed projects, and years of waiting time for grid reinforcement. While cables and transformers will eventually be upgraded, they won’t solve the immediate problem. The real challenge is not how much energy we have, but how intelligently we use it.

This is where EnergyHubs come into play.

TL;DR

EnergyHubs help businesses grow when the grid can’t.

Instead of every site managing energy in isolation, an EnergyHub coordinates generation, storage, and demand across multiple participants behind a shared constraint. This reduces grid pressure, improves the use of local renewables, and unlocks flexibility that individual sites can’t access on their own.

The key isn’t more hardware; it’s control. EnergyHubs only work at scale when an Energy Management System (EMS) continuously optimises energy flows, enforces shared limits, and resolves conflicts automatically.

In short: local coordination beats waiting for grid upgrades.

Why capacity alone won’t save us

Grid congestion is usually framed as a lack of capacity. In practice, it is a lack of coordination.

Most sites still operate their energy assets independently. Batteries charge when rules allow, EVs plug in when drivers arrive, and solar exports whenever production exceeds local demand. Each decision makes sense in isolation, but together they create peaks that overload the grid.

Expanding the grid helps, but it is slow, costly, and increasingly constrained by space, permits, and public opposition.

In the meantime, businesses need ways to grow within the limits they already have. That requires smarter control, not just more infrastructure.

What is an EnergyHub?

An EnergyHub is a local energy system in which multiple organisations share and coordinate energy assets behind a common grid connection or constraint.

Instead of each company optimising only its own site, energy flows are managed across the group. One participant’s surplus solar generation can supply another’s demand. Storage can be charged or discharged based on what the hub needs as a whole, not just what works for a single building.

Typical EnergyHub assets include solar PV, battery storage, EV chargers, heat pumps, and flexible industrial loads. The grid connection remains in place, but it becomes a boundary that is actively managed rather than passively endured.

What EnergyHubs are not

EnergyHubs are often confused with other concepts, which leads to unrealistic expectations.

They are not simply industrial parks with solar panels on every roof. They are not automatically legal energy communities, and they do not manage themselves once assets are connected.

Without coordination, an EnergyHub is little more than shared complexity, and sometimes shared frustration.

The difference lies not in ownership, but in how energy decisions are made.

Why EnergyHubs matter now

EnergyHubs are gaining traction because several trends are accelerating at the same time.

  • Electrification is moving faster than grid expansion, making connection limits a direct business risk.
  • Energy prices are more volatile, which means timing consumption and storage matters financially.
  • At the same time, regulators are increasingly enabling local energy sharing and flexibility as alternatives to large-scale grid reinforcement.

Together, these forces make local optimisation not just attractive, but necessary.

The real value of EnergyHubs

When designed and operated well, EnergyHubs unlock value in three key ways.

Lower pressure on the grid

By coordinating peaks across participants, the hub reduces simultaneous demand and keeps total load within contracted limits. This allows businesses to expand operations without triggering costly upgrades or penalties.

Better use of renewables

Local solar generation is used where it is needed instead of being curtailed or exported at low value. Self-consumption increases across the hub, improving both economics and carbon performance.

Fairer economics for participants

Flexibility is shared rather than siloed. Smaller sites gain access to storage and optimisation benefits that would not make sense on their own, while larger sites improve the return on their investments.

Kempisch Bedrijvenpark: EnergyHub in practice

Kempisch Bedrijvenpark (KBP) faced a challenge common to many industrial parks: multiple companies competing for limited grid capacity, with no realistic short-term upgrade available.

Rather than treating this as an individual problem per site, the park was structured as an EnergyHub. Solar installations, batteries, EV charging infrastructure, and shared assets were coordinated at hub level instead of being optimised separately.

Through Tibo Energy’s Energy Management System (EMS), KBP’s participants coordinate their consumption and generation. The system predicts peaks, shifts load where possible, and optimises based on costs, emissions, and grid pressure. This creates capacity on the existing grid without physical expansion.

As a result, grid limits are respected without limiting daily operations. Companies use locally generated renewable energy more effectively, and individual investments deliver collective value.

The key insight from KBP is that once assets are managed as part of a shared system, control becomes the main lever for unlocking capacity.

Where EnergyHubs fail in practice

Many EnergyHub initiatives struggle not because the concept is flawed, but because the operational complexity is underestimated.

Conflicting priorities between participants, manual coordination, and static rules quickly break down as assets and stakeholders increase. Without a clear mechanism for resolving trade-offs — who charges, who discharges, and when — the hub becomes inefficient or unstable.

In other words, EnergyHubs do not fail because they are too ambitious. They fail because they lack the tools to manage complexity at scale.

Why control is the missing layer: from shared assets to shared outcomes

Energy assets create potential, but control determines whether that potential turns into real value.

In an EnergyHub, decisions must be made continuously. Energy needs to be allocated dynamically based on demand, production, prices, and agreed limits. Doing this manually or with static rules is not feasible once systems grow beyond a few assets.

This is where an Energy Management System (EMS) becomes essential. An EMS is software that predicts, optimises, and controls energy flows across sites and assets, adjusting decisions in real time as conditions change.

How an EMS enables EnergyHubs

A properly designed EMS allows EnergyHubs to function as coherent systems rather than collections of individual sites.

By forecasting demand and generation, it prevents conflicts before they arise.

By continuously optimising decisions, it ensures assets are used where they deliver the most value.

And by enforcing shared constraints automatically, it keeps the hub stable even under changing conditions.

This is what makes EnergyHubs scalable beyond pilot projects.

When an EnergyHub makes sense and when it doesn’t

EnergyHubs work best in industrial parks, logistics hubs, and mixed-use sites where multiple participants share grid constraints and have energy profiles that complement each other. In these environments, coordination creates value that no single site could unlock on its own.

They are less suitable when participants are unwilling to coordinate, or when expectations are left implicit. Without clear agreements, every optimisation decision becomes a discussion, and Energy Hubs cannot run on meetings and goodwill

Before optimisation can happen, the EnergyHub needs a defined setup that determines how energy is allowed to flow between participants. In practice, this usually takes one of three forms.

Grid Transport Operator (GTO) arrangement

In some cases, an EnergyHub is organised under a Grid Transport Operator (GTO) structure. This allows energy to be shared between connected parties, but it comes with strict limitations. For example, regional grid operators currently allow only a limited number of GTO arrangements, which makes this option scarce and not always scalable.

As a result, GTOs tend to be the exception rather than the default for Energy Hubs.

Closed Distribution System (GDS)

A more common setup is a Closed Distribution System (GDS), where energy assets and users are connected within a clearly defined private network, such as a campus or industrial site.

Within a GDS, participants can share generation, storage, and loads under one controlled infrastructure. This structure works well when assets and buildings are physically close and managed as a coherent system.

Direct asset connections (cable-pulling)

In some situations, Energy Hubs are enabled by directly connecting specific assets rather than entire buildings.

While regulations do not allow arbitrary connections between separate cadastral plots, they do allow assets to be connected across sites. For example, a solar installation on one building can be connected to another building’s consumption, or EV chargers can be supplied from a shared connection.

This approach allows flexibility without creating a full private grid and is often used as a pragmatic first step toward an Energy Hub.

EnergyHubs as grid strategy: local optimisation with system-level impact

EnergyHubs are not about disconnecting from the grid. They are about using it more efficiently.

By optimising energy locally, congestion at higher grid levels is reduced. Flexibility becomes predictable and verifiable. Growth can continue without waiting years for infrastructure projects to catch up.

The bottom line

EnergyHubs are not defined by how many assets they contain, but by how well those assets are coordinated.

As energy systems become more decentralised, the ability to control and optimise locally will determine who can grow and who has to wait. In that sense, EnergyHubs are less about hardware and more about decision-making, and that is where their long-term value lies.

FAQ

An Energy Hub is a local energy setup where multiple organisations share and coordinate energy assets — such as solar, batteries, EV chargers, and flexible loads — behind a common grid constraint. Instead of acting alone, participants optimise energy use together.

In a standard industrial park, each site manages its own energy independently. In an EnergyHub, energy flows are coordinated across participants, allowing surplus energy, storage, and flexibility to be shared rather than wasted.

No. Energy Hubs still rely on the grid. They simply use the available grid capacity more efficiently by smoothing peaks and optimising when energy is consumed, stored, or shared.

Electrification is accelerating faster than grid expansion, energy prices are more volatile, and regulators are encouraging local flexibility. EnergyHubs address all three by turning coordination into a practical alternative to waiting for grid reinforcement.

EnergyHubs help:

  • Reduce grid congestion
  • Increase local use of renewable energy
  • Avoid or delay costly grid upgrades
  • Share flexibility fairly between participants

An EMS is the control layer that makes EnergyHubs work. It forecasts demand and generation, continuously optimises energy flows, and enforces shared constraints automatically. Without an EMS, EnergyHubs remain pilot projects.

No. While they are common in industrial parks and logistics hubs, EnergyHubs also make sense in mixed-use sites and campuses where participants have complementary energy profiles and shared constraints.

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