Megawatt EV Charging System: Is India Ready for 1.6 MW?
A Megawatt EV charging system (1.6 MW) is now shipping commercially. See the grid, transformer & HT needs for India. Plan your Himachal hub with EVision India.
A Megawatt EV charging system (1.6 MW) is now shipping commercially. See the grid, transformer & HT needs for India. Plan your Himachal hub with EVision India.

The era of the Megawatt EV charging system has officially moved from concept to commercial reality. Portugal-based i-charging, working alongside display-and-energy specialist SOLUM, has begun commercial deliveries of its MAX platform — a charger that scales all the way up to 1.6 MW. For anyone tracking the future of electric trucks, buses, and fleet depots, this is a milestone worth understanding, and it raises an obvious question for us here in Himachal Pradesh: is India ready for megawatt charging?
At EVision India, we design and deploy EV charging infrastructure across Himachal Pradesh, so we look at global launches like this through a practical lens — grid load, transformers, HT connections, and what it actually takes to run high-power charging on the ground.
According to industry coverage from electrive and EVMechanica, the new MAX system uses a modular architecture that scales from a modest 50 kW right up to 1.6 MW of output. That flexibility is the headline feature.
Instead of installing a fixed-capacity charger, an operator can start small and grow the site as demand rises. The system also distributes power dynamically among up to eight vehicles at once, so the available power follows the vehicles that need it most rather than sitting idle in unused connectors.
The design targets exactly the use cases where high power matters:
As Charged EVs notes, the modular approach is aimed squarely at operators who want to future-proof a site without over-building on day one. In effect, a single Megawatt EV charging system can grow with a depot's needs rather than forcing a costly upgrade later.
A 1.6 MW charger is part of a broader shift toward the Megawatt Charging System (MCS) — a new global standard built specifically for vehicles that a car-focused connector like CCS simply cannot serve fast enough.
The CharIN industry alliance, which develops the MCS standard, and Scania both describe MCS as a connector and system designed for heavy commercial vehicles, capable of far higher currents and voltages than passenger-car charging. As documented on Wikipedia's MCS overview, the standard is engineered to reach power levels well into the megawatt range, targeting current and voltage figures far beyond typical CCS limits.
The logic is simple: a long-haul electric truck may carry a battery several times larger than a passenger car. To recharge it during a driver's mandatory rest break, you need power measured in megawatts, not kilowatts. That is the gap products like the 1.6 MW MAX are built to close.
This is the first question every serious site owner should ask when planning a Megawatt EV charging system. A 1 MW charger draws roughly 1,000 kW at full output — comparable to the peak demand of a small industrial estate or hundreds of homes running simultaneously.
In practical terms:
This is where our charging site assessment process becomes essential. Before any hardware is chosen, the available grid capacity, the transformer rating, and the HT connection feasibility have to be confirmed for the specific location.
For a megawatt-class hub in Himachal Pradesh, you are generally looking at:
The exact rating depends on how many chargers run at once and the diversity of the site — which is precisely why dynamic power sharing changes the maths.
Here is the insight most people miss: a fleet depot almost never needs every vehicle charging at full power at the same moment.
Dynamic power sharing — a core feature of the MAX system — lets a site with, say, 1.6 MW of capacity serve eight vehicles by intelligently allocating power to whoever needs it. A truck that arrives nearly empty gets a bigger slice; a bus topping up gets less.
This matters for two reasons:
For any operator planning a depot, this is the difference between a workable project and an over-built, over-priced one. Our team factors load management into every fleet charging solution we design.
This is the honest, important part of the conversation.
Research from the International Council on Clean Transportation (ICCT) highlights that a full transition to battery-electric trucks in India will require a large, coordinated build-out of charging infrastructure — including high-power charging along freight corridors. In other words, the grid demand is significant and needs planning well ahead of vehicle rollout.
Analysis from RMI similarly stresses that powering India's electric trucks affordably depends on smart tariff design, clean electricity, and grid readiness — not just installing chargers.
And on the ground, reporting from Saur Energy points to financing and infrastructure gaps that are currently slowing India's electric-truck adoption. The technology is arriving faster than the enabling ecosystem.
So the realistic answer is: India's grid can support megawatt charging at specific, well-planned locations today — but not everywhere, and not without dedicated HT infrastructure, upgraded substations, and often on-site energy storage or solar to soften peak demand.
Himachal Pradesh has two things going for it: abundant hydropower and growing freight and tourist bus movement through its corridors. That makes select locations genuinely suited to high-power hubs — but the terrain, distributed grid, and seasonal load also mean each site needs individual engineering.
For local feasibility, our Shimla operations and wider Himachal Pradesh coverage let us assess grid strength, transformer availability, and permitting on a site-by-site basis.
Even with great hardware, real deployments run into recurring hurdles:
The practical takeaway: start modular, plan the grid connection early, and use dynamic power management to keep the connection size sensible. Explore our high-power charging products and end-to-end services to see how we approach this in Himachal Pradesh.
The commercial launch of the i-charging and SOLUM 1.6 MW MAX is a clear signal — a Megawatt EV charging system is no longer a lab demo but a shippable product for hubs, depots, buses, and trucks. India, and Himachal Pradesh in particular, isn't ready to blanket the state with megawatt chargers overnight, but the building blocks — hydropower, modular hardware, and smart load management — are within reach for targeted, well-engineered sites.
If you're planning a fleet depot, bus charging hub, or corridor charging point in Himachal Pradesh, the smart move is to start the grid and feasibility conversation now. Get in touch with EVision India to plan a future-ready, high-power charging site.
A 1 MW charger draws around 1,000 kW at full output, so it needs a dedicated high-tension (HT) supply and a distribution transformer sized above the peak load — a standard low-voltage connection is not sufficient.
MCS is a new global charging standard developed for heavy commercial vehicles like long-haul trucks and buses. It supports far higher currents and voltages than car-focused CCS, enabling charging power in the megawatt range so large batteries can recharge during a driver's rest break.
Because vehicles rarely all need full power at once. Dynamic power sharing lets a site allocate its available capacity to whichever vehicles need it most, so operators can install a smaller, cheaper grid connection while still charging more vehicles.
At specific, well-planned locations with dedicated HT infrastructure and upgraded substations — yes. Widespread deployment still depends on grid upgrades, financing, and coordinated planning, as highlighted by research from the ICCT and RMI.
Yes, for select sites. The state's hydropower resources and freight/tourist bus corridors make certain locations well suited to high-power hubs, though each site needs individual engineering due to terrain and grid distribution.
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