Less than two decades after the launch of the Nissan Leaf, electric vehicles are moving from niche urban transport to mainstream, long-distance mobility.
For UK dealers, the next phase of EV development will be defined less by early adoption barriers and more by product capability, cost parity and operational practicality.
Advances in battery chemistry, vehicle architecture and charging infrastructure are addressing three of the biggest customer concerns: range, charging time and affordability.
Next-generation battery technology
A key battleground to 2030 will be battery innovation. Manufacturers are pursuing different strategies, but the underlying goal is the same: higher energy density, faster charging and lower cost per kWh.
Chinese car manufacturers are forging ahead with economies of scale and a leadership position in the chemicals and precious metals needed to sustain their position.
Chinese-owned CATL is the largest EV battery manufacturer in the world, holding a 37% market share on its own. BYD sits in second place for volume, while the remaining players are from South Korea and Japan.
Professor Colin Herron CBE (pictured left), who spent 16 years with Nissan and played a central role in securing both the Nissan Leaf and the AESC lithium-ion battery plant for the UK, now heads the Faraday Institution Office North East and the North East Battery Alliance. His perspective on the chemistry battle ahead is pragmatic. Rather than expecting a single breakthrough chemistry to replace lithium-ion, he points to a “horses for courses” approach emerging across the sector, where different chemistries are matched to specific use cases.
BYD has already deployed its Blade Battery 2.0, based on lithium iron phosphate (LFP) chemistry, launched alongside the company’s Flash charging technology to deliver up to 1,500kW through a single connector. A 10% to 70% top-up can be completed in five minutes, with 10% to 97% requiring just nine minutes.
The Blade Battery itself enables ranges of more than 621 miles on a single charge, based on Chinese testing data so far. The technology will debut on the premium Denza Z9GT in the UK, before it will likely make its way into more value-focused models in the future.
CATL, meanwhile, is launching its Naxtra sodium-ion batteries alongside Changan as an alternative to lithium-ion.
The sodium carbonate needed for sodium-ion chemistry is up to 60 times cheaper than lithium, which could bring costs down further still, with the architecture projected to deliver 300-plus miles of pure EV range.
Herron acknowledges sodium-ion’s place within the broader mix but is clear that it represents one option among many rather than a wholesale replacement for existing technologies. Industry consensus, he says, points firmly towards no single chemistry dominating all segments.
That fragmentation reflects deeper structural realities. Herron stresses that once a gigafactory is commissioned, it is effectively locked into a specific chemistry. Capital costs are substantial, production lines are optimised for a given technology, and any shift represents a significant financial and operational gamble.
Performance-led models will continue to rely on nickel manganese cobalt (NMC) batteries for the energy density required by higher output vehicles.
For heavier duty cycles, including buses and off-road applications, he expects LFP to dominate, alongside increasing interest in lithium titanate oxide (LTO) for its projected lifespan, rapid charging capability and inherent safety.
This could create a future where that differentiation could extend as far as customers selecting battery chemistry in the same way they once chose engine size.
Established original equipment manufacturers (OEMs) are not standing still either.
BMW is pioneering long-range EV battery technology with its Neue Klasse platform, delivering up to 30% longer range, significantly faster charging and reduced production costs. The sixth generation of BMW’s eDrive technology uses lithium-ion cylindrical cell technology, developed in collaboration with Croatia-based Rimac Technology, which has already made its way into the iX3 with an EV range of up to 500 miles. By 2027, Neue Klasse technologies will be integrated across 40 new models and model updates from BMW.
Solid-state batteries also continue to attract significant attention, with higher density, faster charging and longer lifespans available, offering zero emissions driving ranges of 1,000 miles or even more. CATL, Samsung, LG and Toyota are some of the manufacturers that are all developing solid-state battery solutions for EVs.
However, Herron remains measured on their near-term commercial impact.
He highlights two fundamental challenges that must be resolved before they can scale: the ability to manufacture at volume and the cost per kilowatt hour. Solid-state battery technology can be up to five times more expensive per kilowatt hour compared with lithium-ion.
While premium brands may be able to absorb higher unit costs during an early deployment phase, that model does not translate to volume segments.
According to the latest data from the International Energy Agency, average battery prices are coming down, with a drop of 8% in 2025, supported by advances in manufacturing, improvements in battery chemistries and intensifying global competition.
However, as would be expected, there are some big regional price disparities and these widened last year. Battery pack prices in China were 30% lower than in the US and 35% lower than in Europe.
This highlights the kind of challenge established OEMs are facing to continue to compete on EVs.
Charging: from constraint to competitive advantage
Charging infrastructure remains a critical consideration for EV buyers and is still frequently cited as a concern among those yet to make the switch.
The Government has launched the next phase of the LEVI fund, committing £381 million to expand public charging networks and support local authorities in preparing for the 2030 petrol and diesel car sales ban.
The most recent official estimate for the level of infrastructure needed, completed in 2024, placed demand at between 250,000 and 550,000 chargers by 2030.
As of March 2026, Zapmap’s latest statistics show 119,080 EV chargers sited across 46,107 locations in the UK, supporting on-street, destination and en-route use cases.
The goal has to be a future where charging is not accompanied by anxiety. The majority of drivers give no thought to running out of petrol or stopping briefly on a motorway to refuel. That same mindset shift is what the EV market is working towards, whether through widespread home charging or public infrastructure that is so ubiquitous, reliable and rapid that it becomes an afterthought.
Ultra-rapid charging systems are already capable of adding hundreds of miles in 15 minutes. Next-generation 1,500kW public chargers, such as BYD’s previously mentioned Flash chargers, are targeting top-up speeds comparable to a traditional fuel stop, and in some cases faster. Herron notes that the industry’s focus on ever-higher peak charging speeds is driven as much by infrastructure efficiency as by customer demand. Faster charging reduces dwell time, which in turn lowers the number of chargers required at high-traffic locations. The constraint, he acknowledges, is that high-power solutions will be limited to hubs with sufficient grid capacity. “We will stop chasing higher numbers when it stops being said that charging time is a problem,” he says.
Redefining customer expectations on range
Range improvements will be among the most visible changes for consumers over the coming years. There was a point where 200 miles was cited as the milestone required to kickstart mass adoption. The market is already well beyond that with the majority of new EV launches. The next milestone is 500 miles. The Mercedes-Benz CLA 250+ (85kWh) has a potential range of 480 miles, while the BMW iX3 can reach 500 miles.
That level of range effectively eliminates one of the key psychological barriers to EV ownership.
Longer range also has practical implications for customer behaviour. Drivers without access to home charging may be able to charge once a week rather than daily, making EV ownership viable for a wider audience. There is a premium attached to higher range models, but that will narrow over time as competition from Chinese brands intensifies. For dealers, it also shifts the conversation: guiding customers on how much range they actually need, based on their real-world usage and typical journeys, becomes a more meaningful part of the sales process than it has been to date.
Herron brings things back to earth when it comes to EV range expectations. The majority of buyers, he argues, are not seeking cutting-edge technology but a dependable, sensibly priced vehicle that fits into their daily lives, particularly if they have access to home charging. “Many millions just want a reliable EV at a reasonable cost that looks OK and they can charge at home,” he says. The challenge for the market is ensuring that proposition is delivered clearly and convincingly. These EV products are already here, at scale. The challenge is tackling misinformation around EV ownership, product capabilities and the ingrained thinking that has been holding back retail demand for EVs.
Production and platform strategy
Beyond the vehicle itself, production methods are evolving. OEMs are increasingly adopting dedicated EV platforms, simplifying manufacturing and enabling greater economies of scale. Vertical integration, particularly among Chinese manufacturers controlling chemicals, production and logistics, is reshaping how EVs can be made at a profit, while still delivering desirable cars for customers.
According to McKinsey’s latest report on automotive product development, China’s new EV-focused brands have cut the time required to develop a new vehicle to roughly 24 months, approximately twice the speed of other automotive companies where lead times reach 40 to 50 months or longer. Chinese carmakers are achieving this by simplifying development and tightening execution across the entire process. EVs have fewer components than internal combustion models, and Chinese brands operate with smaller, more tightly managed model ranges. Standardised and modular components are widely used, allowing parts to be carried over between vehicles with minimal redesign. Digital development, through simulation and virtual testing rather than physical prototypes, is also cutting validation timelines significantly.
Tesla, meanwhile, is effectively stepping back from the retail race for EVs, instead focusing on outpacing Chinese brands through self-driving technology and automated taxis.
Herron cautions against assuming that supply chain dominance alone will determine market winners. While Chinese manufacturers hold a strong position, he notes that South Korea and Japan also maintain significant battery production capabilities. More broadly, he questions whether cost will be the sole deciding factor for consumers. “If cost was a prime motivator then brands would not exist,” he says, pointing instead to the enduring importance of design, perceived quality and reliability. He cites the rise of the Fiat 500 as an example of how a well-executed product can create strong market appeal.
On the wider competitive picture, Herron takes a direct view: some legacy manufacturers, particularly in the United States and with the notable exception of Tesla, may already be struggling to keep pace.
What ultimately emerges from Herron’s analysis is a picture of an EV market that is maturing rapidly but unevenly, shaped by competing chemistries, divergent production strategies and a consumer base with broadly practical expectations.
Even if breakthroughs such as solid-state batteries deliver on their promise at scale, the fundamentals of automotive retail are likely to remain largely unchanged. Product appeal and finance will continue to shape buying decisions, and traditional brand loyalty may play a diminishing role in an increasingly competitive and fast-evolving market. For dealers, the opportunity lies in understanding that evolution and guiding customers through it with confidence.