At the ChargeTec Conference
2026 in Munich, charging infrastructure was discussed less as a rollout project
and more as a business-critical layer of mobility, logistics and energy
systems. The central question was no longer only where new charge points should
be installed. It was whether charging can operate reliably, integrate with
grids and fleets, support data-driven processes and scale economically in
everyday use.
Why is charging infrastructure entering the operational
phase?
The ChargeTec Conference 2026 made clear that the industry
is moving from infrastructure expansion into operational maturity. The number
of new charge points still matters, but it is no longer the main measure of
progress. What counts now is whether charging sites are reliable, commercially
viable, grid-compatible and integrated into real transport processes.
MAN’s Sven Steckhan captured this shift by pointing out that
the industry is no longer talking only about plugs. Charging battery-electric vehicles is becoming part of fleet
operation, energy planning and logistics reliability. For transport companies,
the first concern is often not the charger itself, but access to energy,
regulation, operating efficiency and driver conditions. Toilets, showers and
working environments matter because charging only scales when it functions as
part of a complete system.
Why is heavy-duty charging becoming the stress test?
Heavy-duty charging showed most clearly why the charging
industry is entering a new phase. An electric truck is not simply another power
consumer. It is a test of whether electromobility can move from pilot projects
into industrial use. If a truck charging process fails, the result is not just
a lost charging session. It can mean a missed delivery, a disrupted route and
direct economic damage.
The conference was not pessimistic about the technology.
Several contributions showed that the business case can already work in defined
use cases. Accenture pointed to growing market potential, with more than
300,000 electric trucks expected in Europe by 2030 and possible energy demand
of up to 40 terawatt hours. At the same time, the market remains fragmented,
capital-intensive and shaped by the interaction between OEMs, fleet operators
and charging infrastructure providers.
Fryte Mobility’s Maximilian Zähringer summed up the shift:
the main challenge is no longer primarily technical, but operational.
Electrifying one vehicle is not the difficult part. Bringing 100 electric
trucks reliably into daily operation is. Cost parity can be achieved in
specific use cases, but only when energy demand, charging locations, routes,
reservations and grid connections are planned together.
That also explains why Megawatt Charging remains important
without being the immediate answer to every scenario. In many depot-to-depot
applications, 400-kW charging can already fit well with driver rest periods.
The decisive factor is not maximum charging power alone, but the fit between
charging windows, route planning, working time and site logic.
Lindholmen Science Park’s Gunnar Ohlin showed how
systemically the next development step has to be understood. Swedish
demonstration projects such as REEL and E-Charge do not test individual
vehicles in isolation, but logistics systems: dozens of battery-electric trucks
across real transport flows, supported by research, data analysis and partner
networks. The core question is where and when which charging power is actually
needed.
Why is the power grid becoming a business-case factor?
If the electric truck is the stress test for charging
infrastructure, the power grid is its quiet judge. For a long time, charging
infrastructure was discussed mainly through visible hardware: charger, plug and
site. ChargeTec showed that the economic core increasingly lies deeper, in grid
connections, load profiles, grid fees and the ability to reflect local capacity
constraints.
Neon Neue Energieökonomik’s Dr Johanna Bronisch raised a
question that is becoming increasingly important: who is thinking about grid
fees? These charges already account for a substantial share of electricity
costs and may rise further. That makes them a factor in fleet total cost of
ownership, charging prices and business models.
This becomes especially visible in bidirectional charging.
Vehicle-to-grid promises flexibility, additional revenue and better integration
with energy markets. Yet without suitable regulation, the cost logic can
undermine the business case. Progress on balancing and time-variable grid fees
is visible, but practical metering concepts and simple regulatory combinations
are still missing. From 2029, grid-fee reform is likely to intensify these
questions.
For the industry, the conclusion is clear: the charger alone
does not decide the business case. What matters is whether site selection,
connection capacity, load management, energy procurement and grid-fee logic
work together.
Why are software, data and interfaces becoming part of
charging infrastructure?
Another major shift at ChargeTec was the way charging infrastructure is increasingly understood as an
orchestrated system rather than a physical asset. The charge point is
only the visible surface. Beneath it sit CPMS platforms, energy management,
roaming, billing, reservations, monitoring, interfaces, data models and,
increasingly, AI-supported maintenance.
ChargeTec 2026: key takeaways for charging infrastructure
Operational shift: Charging infrastructure is moving from a construction challenge to an
operational system that must work reliably every day.
Heavy-duty pressure test: E-truck charging exposes whether infrastructure can support logistics, schedules
and fleet utilisation at industrial scale.
Grid dependency: The business case increasingly depends on grid connection capacity, load
management, energy procurement and grid-fee logic.
Software layer: CPMS, billing, reservations, monitoring, data analytics and interfaces are
becoming core parts of charging infrastructure.
Use-case logic: The right charging solution depends on the operating pattern, whether for
airports, public transport, ridepooling, depots, fleets or public charging.
Bottom line: The industry is no longer aiming only for more charge points. The real focus is shifting towards charging systems that are reliable in daily operation, data-driven in their management, scalable across locations and use cases, and economically sustainable for operators, utilities and users alike.
Hamburger Energienetze illustrated this shift from the
perspective of a grid and former charge point operator. The CPMS was described
as the operational heart of the charging system, covering remote control,
support, roaming, fleet management, virtual load management, data analytics,
enterprise integration and billing. Real operating data becomes the basis for
innovation that is derived from usage patterns rather than assumptions.
That changes planning as well. Airports, public transport,
ridepooling, logistics hubs, passenger-car fleets and public charging sites do
not simply have different charging volumes. They have different time patterns,
availability requirements, grid constraints, user groups and revenue logic. In
logistics, charging infrastructure only becomes predictable when routes,
freight flows and transport demand are translated into energy demand.
This is also why reservation is becoming strategically
important. For electric trucks, a booking is not just a reserved parking space.
It is a reservation of energy and connection capacity. In that context,
reservation becomes a requirement for industrial reliability rather than a
convenience feature.
Virta’s Johannes Dachs also focused less on individual
charge points and more on availability, total cost of ownership and automation.
Depot charging can be expensive; the decisive factors are energy management,
utilisation, reservation and reliability. Self-healing functions, automatic
notifications and predictive maintenance may sound like technical details. In
daily operation, they can decide whether a fleet stands still or keeps moving.
The Instellix contribution added another layer to this
operational logic. Backend IT can no longer be treated as a secondary function.
Dynamic tariffs, multi-party settlements, compliance,
e-invoicing and contract-based pricing models are becoming strategic
infrastructure in their own right.
Which charging use case determines the right solution?
The key distinction is not simply between truck and
passenger-car charging. It lies in the usage pattern. Airports involve short,
frequent journeys, several user groups and central charging hubs. Public
transport is shaped by timetables and high energy demand. Ridepooling services
follow algorithmic demand patterns influenced by weekdays, events and city
traffic.
Electric trucks depend on route planning, driver breaks,
loading and unloading windows, depot logic and route availability.
Passenger-car fleets often charge in different time windows, frequently with
alternating-current charging and different priorities. That means the use case
should determine the system design, not the hype around a specific technology.
Hamburger Energienetze derived a clear principle from this:
tailored solutions are better than overcomplex systems. Not every fleet needs
every solution. The operating case should define the architecture.
This also applies to bidirectional charging. Uscale’s Axel Sprenger reminded the audience that
there is no single customer type. Vehicle-to-grid may be technically possible
and systemically useful, but users will judge it by the balance between effort
and benefit. Interest alone is not a reliable product-market fit. Market
adoption depends on credible answers to concerns such as loss of control,
battery degradation, contract changes and compensation.
Which innovations matter now for EV charging?
The innovations that matter most today are operational: load
management, CPMS integration, monitoring, billing, depot charging, truck
reservations and reliable service processes. These do not solve distant future
problems. They address current bottlenecks such as peak loads, availability,
invoicing, utilisation and planning reliability.
In the near term, asset sharing, predictive maintenance and
data-based charging forecasts are likely to gain importance. They depend on
operators understanding their data and controlling their interfaces.
Strategically important technologies such as vehicle-to-grid, dynamic grid fees
and fully integrated energy markets remain highly relevant, but they require
regulation, metering concepts, user acceptance and viable business models to
come together.
MAN’s Steckhan put it simply: V2X is not a shortcut.
Companies have to move through the stages: first basic
charging, then smart charging and later bidirectional flexibility.
One of the strongest maturity signals from ChargeTec was
that the charging sector is no longer promising every innovation at once. It is
beginning to distinguish between what stabilises operations today, what creates
additional economic value tomorrow and what could reshape energy systems in the
longer term.
How ChargeTec 2026 defines the next phase of charging
infrastructure
ChargeTec 2026 showed an industry at a turning point. The
pioneering spirit has not disappeared, but it has become more sober. Instead of
focusing mainly on large infrastructure numbers, the sector is now
concentrating on operational capability, reliability, cost control and system
integration.
Truck charging was the most visible stress test, but the
message extends further. It affects passenger-car fleets, depots, airports,
public transport, public charging stations and private wallboxes. Charging infrastructure is becoming part of critical
infrastructure for mobility, logistics and energy.
The decisive question is therefore no longer only
where new charge points will be built. It is how charging infrastructure can be
integrated into logistics processes, energy systems, software platforms and
business models in a reliable, data-driven and economically viable way. The
charge point is not the goal. The goal is a charging system that works in
everyday life.
