Advert
EV (Electric Vehicles) sales crossed 20 million units globally in 2025. That’s one in four new cars. The shift isn’t clean or uniform — politically messy, regionally uneven, and still financially complicated for a big chunk of buyers. But it’s happening. Five concrete reasons why, backed by numbers rather than press releases.
Europe had a record month in March 2026. Over half a million EVs sold. France saw BEV registrations jump 69% year-on-year in Q1 — not because of some government campaign, but because petrol crossed €2.00/litre and people did the math at the pump. Norway closed 2025 with 95.9% of new passenger cars sold being battery electric. Not 95.9% of EVs. All cars. That number still catches people off guard.
The US is a different story. Federal tax credits expired in September 2025, and Q1 2026 sales dropped 27% year-on-year. Tesla posted its second straight annual decline. The market isn’t collapsing — it’s recalibrating.
One thing often missed in sales headlines: a modern EV runs millions of lines of software managing battery cells, torque distribution, braking recovery, infotainment, ADAS. It’s a device that happens to have wheels, and the companies building that software layer matter as much as the ones pouring steel. DXC Technology works as an automotive software development company handling full software stacks for vehicle platforms — production-grade code, functional safety under ISO 26262 and ASPICE. At CES 2026, DXC Luxoft launched AMBER, an infotainment platform cutting development time by 50% and integration costs by 30%, already used by OEMs behind roughly 50 million vehicles on the road.
Not gone. But retiring fast.
The 2019 Nissan Leaf got about 150 miles on a good day. Cold weather knocked it further. The skepticism people built around those early numbers was completely justified. Fair enough.
Here’s what’s changed. Average real-world range across popular 2026 models hit 325 miles, up from 293 in 2025 — an 11% jump in a single model year. Over 15 production EVs now carry EPA-rated range above 400 miles. You can buy them today.
Three things converged to make this happen:
The durability data: based on Recurrent’s analysis of over a billion real-world miles, modern EVs retain 97% of rated range after three years. Full battery failures sit at a 0.3% replacement rate. Lower than most people’s gut assumption by a long way.
The early pitch was technically true but asked buyers to ignore the purchase premium, assume high mileage, and hope electricity stayed cheap. Not great.
In 2026, it’s simpler. Home electricity at $0.15/kWh, petrol at $4.00/gallon: 15,000 miles a year in a mid-size EV costs roughly $550 in electricity. Same mileage in a comparable gasoline car runs $2,000–$2,400. Annual saving: $1,500 to $1,800. Every year. That’s just fuel — no oil changes on top, no spark plugs, no timing belt service at 90,000 miles. Brake wear is dramatically lower on EVs with strong regenerative systems.
Then there’s the battery cost curve. Lithium-ion pack prices fell 8% in 2025 to $108/kWh average, per BloombergNEF. Chinese packs hit $84/kWh — 44% below North American prices. Below roughly $100/kWh, batteries stop being a structural barrier to price parity with combustion cars. China already crossed that line. Europe is within reach. BloombergNEF forecasts another ~3% drop in 2026.
The sticker price comparison is increasingly not the flattering comparison for combustion either.
“Enough” is doing real work in that sentence. Rural gaps remain real. Apartment dwellers without home charging face genuine inconvenience. Not pretending otherwise.
But for most buyers in urban and suburban markets across North America, Europe, and East Asia — the infrastructure objection has weakened substantially.
350 kW+ chargers are common now. IONIQ 6, BMW iX3, Taycan can add 100 miles in under ten minutes. Measurable, not theoretical. BYD went further in 2026, rolling out 1MW charging systems running at 1,000V/1,000A — putting charging time in the same ballpark as a petrol stop for compatible vehicles.
At CES 2026, Autel Energy launched its Avant charging family: hardware-independent, integrates with third-party energy management rather than locking into proprietary systems. ProLogium partnered with Darfon Energy Tech on solid-state battery solutions heading toward production scale. And Ford’s F-150 Lightning already supports V2H (vehicle-to-home) in certain configurations — enough to power an average US house for roughly three days on a single charge. Vehicle-to-grid legislation is moving in eight US states including California and New Jersey, turning EV batteries into grid assets generating revenue for fleet operators.
The charging story in 2026 isn’t “problem solved.” It’s “much smaller problem, shrinking.”
Here’s the shift that gets underexplained in most EV coverage.
A combustion car bought in 2018 is essentially the same car in 2026. Maybe slightly worse — worn parts, outdated software, features the newer model has that it doesn’t. A well-maintained EV bought in 2023? Potentially better. Range updates applied, new features unlocked, security patches pushed. The vehicle improves instead of just aging.
This isn’t marketing language. Recurrent data shows 68% of 2023 model EVs now exceed their original EPA-rated range — partly because manufacturers pushed OTA improvements since launch. That’s genuinely unusual to say about a vehicle.
What a modern EV platform can actually do, concretely:
Continental selected DXC Technology and DXC Luxoft as core partners for Continental Automotive Edge — a cloud-based framework for next-generation vehicle architectures. DXC Luxoft also supports CARIAD, Volkswagen Group’s software subsidiary, across development and testing. BMW’s AI software suite launched at CES 2026 alongside the iX3. Sony Honda Mobility’s AFEELA 1 integrates Sony’s entertainment stack directly with the vehicle OS — less a car with a screen than a device with a drivetrain.
A car bought in 2026 could genuinely be more capable in 2030. No combustion vehicle has ever offered that.
The lifecycle emissions debate used to be legitimately complicated. Critics who pointed out that coal-heavy grids undercut the environmental case were right, in their context.
That context shifted.
UK wind and solar regularly exceed 50% of grid supply on peak days. France runs ~70% nuclear. Norway’s grid is nearly 100% hydropower — which explains why 95.9% of cars sold there in 2025 were BEVs, more than subsidies ever could. An EV on a clean grid carries lifecycle emissions 60–70% lower than a comparable petrol car over 150,000 miles. On the US average grid mix, roughly 50% lower, per Union of Concerned Scientists.
Battery manufacturing — the dirtiest part of building an EV — is improving. Lithium recovery in leading facilities runs at 99.99% efficiency. CATL and LG Energy Solution operate closed-loop recycling programs reusing cathode materials directly. Sodium-ion batteries, needing no lithium, cobalt, or nickel, are entering commercial production — GBT targeting GWh-scale output in 2026.
The adoption numbers are the simplest argument:
These buyers ran individual financial calculations. Petrol prices and ownership cost drove most of those decisions. The environmental benefit was concurrent — sometimes the deciding factor, often secondary.
EVs are gaining because the product got better, cheaper to run, easier to charge, and smarter over time. Not because of subsidies that expired, or mandate pressure alone. The product improved.
The decision still depends on personal situation. Apartment dweller with no home charging and a long rural commute? The case is harder. Suburban driver with a garage, moderate annual mileage, five-year ownership horizon? The numbers are difficult to argue with.
Range has an answer. Cost has an answer. Charging mostly has an answer. And the software angle turned out to be an advantage nobody anticipated when EVs first arrived. For most buyers running the actual numbers in 2026, the math keeps pointing the same direction.
