Dr Nigel Jakeman of Turbo Power Systems argues that peak output ratings are becoming secondary to system intelligence — and that operators who treat charging as part of a broader energy ecosystem will be best placed to succeed.

Benchmark set. Bar raised. Definition changed.
For over a decade, the first generation of high-power charging networks defined what fast charging meant at scale. Engineered with clarity of purpose, they optimised relentlessly for passenger vehicles—deploying rapidly, removing friction, and proving that electrification at scale was possible. But the industry is no longer in that era.
As fleet electrification accelerates—particularly across heavy-duty, logistics, and depot-based operations—the assumptions underpinning early charging infrastructure are beginning to show their age. The challenge is no longer simply delivering power quickly. It is delivering the right power, to the right vehicles, at the right time, all within increasingly constrained energy systems.
Recent innovations in flexible high-power charging reflect this shift. By combining megawatt-capable interfaces with high-power CCS outputs, the latest generation of charging systems introduces a more adaptable proposition—capable of supporting both current fleets and the emerging requirements of electric trucks. In mixed-fleet environments, that flexibility translates into improved utilisation and more resilient business cases. It is a meaningful step forward. But it is still only a first step.
Flexibility only meaningful if power is available
Look more closely at how these systems are deployed, and a familiar assumption remains: that grid supply is effectively a given. In reality, charging performance remains intrinsically linked to connection limits and local network constraints. Across much of the UK and Europe, operators face long lead times, capacity restrictions, and increasing competition for available power.
This is not a limitation of any one technology. It is a structural challenge arising from an industry that has historically focused on chargers rather than energy systems. And it raises an uncomfortable truth. Flexibility at the point of charging is of limited value if the power behind it cannot be guaranteed.
From bridging the future to designing for it
Much of today’s innovation is framed as a bridge—protecting investment as the sector transitions from current standards to the MCS charging systems of the future. That approach is entirely rational. Operators have to balance risk, cost, and technology readiness in a rapidly evolving landscape. But there is a fundamental distinction between bridging to the future and designing for it.
A system that partially extends into higher power regimes remains, by definition, transitional. It anticipates future need but cannot accommodate it. This is a concern, given the emerging consensus across fleet operators, OEMs, and infrastructure planners is that multi-megawatt charging is not a distant requirement—it is a near-term operational necessity.
Battery capacities are increasing, duty cycles are intensifying, and the commercial imperative for rapid turnaround is growing exponentially. In that context, the architecture of charging infrastructure begins to matter as much as its peak output. Systems designed around modular power electronics, dynamic load balancing, and integrated energy management are increasingly positioned not just to deliver power, but to orchestrate it—balancing constrained grid supply with real-world operational demand.
From faster chargers to smarter infrastructure
Early charging networks proved that electrification could scale. The next wave has demonstrated that it can be made more flexible, more modular, and more economically efficient. The next phase will be defined by something else entirely: infrastructure intelligence. Success will not be measured by peak kilowatts alone, but by the ability to deliver predictable, scalable performance in constrained environments—on day one, and over the full lifecycle of a fleet.
This dramatically shifts the conversation away from rating plates towards system intent. How is energy sourced, stored, and prioritised? How is capacity allocated across competing demands?
How does infrastructure adapt as both vehicles and networks evolve?
Ending the era of assumed abundance
The central challenge facing fleet electrification is not the absence of charging technology. It is the mismatch between rapidly growing demand and finite, often constrained, energy supply. Meeting that challenge will require a reframing of infrastructure—from hardware deployment to system design.
The operators and technology providers who succeed in this next phase will be those who treat charging not as a standalone function, but as part of a broader, integrated energy ecosystem—capable of balancing availability, scaling intelligently and delivering performance under real-world constraints. Because in an environment defined by grid limitation, the question is no longer how fast a charger can deliver power. It’s how intelligently that power can be managed.
Dr Nigel Jakeman, chief business officer, Turbo Power Systems


















![Mercedes-Benz_eActros_600_(1)[1]](https://d2cohhpa0jt4tw.cloudfront.net/Pictures/274x183/8/1/8/17818_mercedesbenz_eactros_600_11_556244.jpg)



