EU Electrification Action Plan Puts Smart Charging and Bidirectional EVs Deeper Into the Energy System

INDUSTRY NEWS
|   August 16, 2026
|   Smart Charging, Electrification & V2G

The European Commission’s new Electrification Action Plan is placing electric vehicles, smart charging and bidirectional energy flows more firmly within Europe’s wider electricity strategy as the EU seeks to accelerate the shift from fossil fuels to clean electricity.

Europe sets a broader electrification objective

The European Commission published its Electrification Action Plan on July 17, 2026, outlining measures intended to accelerate the transition from fossil fuels to electricity across transport, buildings and industry.

Electricity currently represents around 23% of final energy consumption in the European Union.

The new plan sets an indicative objective for that share to reach 46% by 2040. The Commission says the target will be assessed as part of the post-2030 Energy Union package.

According to the Commission, achieving that level of electrification could reduce the EU’s annual fossil-fuel import bill by approximately €260 billion by 2040.

The plan focuses on several barriers to faster electrification, including high electricity costs relative to fossil fuels, lengthy grid-connection processes, investment requirements and difficulties bringing some technologies to commercial scale.

Transport is central to the electrification challenge

Transport remains one of the most important sectors in the European electrification strategy.

The European Commission estimates that transport is responsible for around 25% of total greenhouse-gas emissions and that approximately 90% to 95% of the energy consumed in the transport sector still comes from fossil fuels.

Road transport represents the largest share, followed by aviation and maritime transport.

Electric vehicles are therefore becoming important not only from a transport-decarbonisation perspective but also because they create a direct connection between mobility and the electricity system.

Smart charging links EV demand to grid conditions

The Commission specifically highlights smart charging as a way of making EV electricity demand more flexible.

Instead of every vehicle beginning to charge as soon as it is connected, smart-charging systems can shift charging sessions according to factors such as electricity prices, renewable-energy availability and electricity-network conditions.

That flexibility can reduce grid congestion and allow a larger share of EV charging demand to coincide with periods of abundant renewable generation.

How those inputs are implemented varies by charging site, electricity market and software architecture.

Bidirectional charging gives EV batteries a second role

The Commission also highlights bidirectional charging as a potential source of energy-system flexibility.

With compatible vehicles, chargers and market arrangements, electricity stored in an EV battery can potentially be supplied back to a building or electricity grid.

The Commission describes this as a way for EVs to operate as distributed energy storage during periods of peak demand or reduced renewable-energy production.

In practice, large-scale deployment will depend on several technical and regulatory factors.

• Vehicle support for bidirectional power transfer
• Compatible charging equipment
• Interoperable communication standards
• Grid-connection requirements
• Electricity-market rules
• Metering and settlement
• Cybersecurity and customer authorisation

Charging software becomes part of the flexibility layer

The policy direction also has implications for EV charging-management systems.

A traditional charging backend primarily needs to communicate with charging stations, users, payment systems and roaming platforms.

In a more energy-aware environment, software may also need to coordinate with site energy-management systems, electricity tariffs, grid signals, distributed energy resources and vehicle energy requirements.

This does not mean the European Commission has prescribed one mandatory software architecture.

Instead, it illustrates why charging software is becoming increasingly connected to energy management.

These are technical implications of the broader market transition, rather than universal requirements introduced directly by the Action Plan.

Grid capacity remains a major constraint

Electrification increases electricity demand, making grid capacity an important part of the charging-infrastructure discussion.

The European Commission identifies grid connections as one of the barriers that can slow the adoption of electricity-based technologies.

This is particularly relevant to high-power EV charging sites.

A location with multiple DC fast chargers may have a theoretical charger capacity far above the site’s available grid connection.

Software-based energy management can help allocate available power between active charging sessions, but it does not eliminate the underlying need for appropriate grid infrastructure.

Smart meters are also part of the strategy

The Commission’s wider electricity package published alongside the Electrification Action Plan also seeks faster deployment of smart meters.

Smart-meter infrastructure can give consumers and energy systems better visibility into electricity use and support more dynamic energy-management models.

For EV charging, more granular energy information can support time-based tariffs, energy optimisation and coordination between charging demand and the wider electricity system.

The next phase is implementation

The Electrification Action Plan establishes strategic direction rather than immediately creating a universal V2G market across Europe.

The development of smart and bidirectional charging will continue to depend on technical standards, vehicle and charger capability, grid rules, data exchange, market access and national implementation.

However, the plan provides further evidence that European energy policy increasingly views EV charging infrastructure as a flexible part of the electricity system rather than only as transport infrastructure.