Since the start of 2026, China's new‑energy vehicle (NEV) market has maintained robust growth, with industry penetration climbing steadily.
According to July 2026 data from the China Passenger Car Association (CPCA), the retail penetration rate of new‑energy passenger vehicles hit 65.1%, staying above the 60% threshold for four consecutive months. This means two out of every three new passenger cars sold in China are NEVs.
After years of rapid expansion, the NEV industry has clearly moved past its early phase of unregulated growth in both scale and quality. As the market matures, targeted regulatory rectification has become inevitable.
Since 2026, a wave of new automotive regulations has taken effect across China, covering all dimensions of NEV development. Measures range from full‑vehicle safety control and upgraded traction‑battery safety standards, to mandatory requirements for ADAS indicator lights, safety improvements for flush door handles, and compliance revisions for yoke‑style half‑rim steering wheels. Each rule addresses long‑standing industry pain points and fills market gaps.
Following this suite of regulatory policies, a key new standard governing automotive cockpit human‑machine‑interface (HMI) design has been released.
The Ministry of Industry and Information Technology (MIIT) has published the draft mandatory national standard Symbols for Controls, Indicators and Tell‑tales of Motor Vehicles. It stipulates that 19 core driving‑related functions - including turn signals, hazard warning lights, windscreen wipers and gear‑shift selection - must be equipped with dedicated physical controls.
Set for full enforcement in July 2027 and applying to all newly‑manufactured vehicles, the standard marks official regulatory pushback against the nearly decade‑long trend of fully touch‑based cockpits.
The era of touch‑only controls draws to an end
The mainstream shift toward all‑touch cockpits can be traced back to the 2012 launch of the Tesla Model S. By replacing physical buttons with a large central touchscreen, the vehicle redefined automotive cockpit design and was hailed as an icon of smart mobility.
Chinese automakers soon followed suit. A distorted industry benchmark took shape: the larger the screen and the fewer physical buttons, the higher the vehicle's perceived intelligence.
For years, stripping physical controls and adopting full‑touch interaction became a core selling point for new‑model iterations. Cars retaining physical hardware instead of giant touchscreens were even labelled "outdated" or "unintelligent".
Widespread adoption of all‑touch designs stemmed from multiple commercial incentives.
From a design perspective, button‑free unified centre‑consoles reduce body cut‑outs, deliver a minimalist interior aesthetic with stronger tech appeal, and free up extra cockpit storage space.
For product development, large touchscreens support over‑the‑air (OTA) updates. Interfaces and functional logics can be revised remotely, while navigation, infotainment and deep vehicle settings are consolidated to enable continuous feature upgrades.
Cost‑wise, Ferrari CEO Benedetto Vigna stated in a March interview that touch‑sensitive controls cost roughly 50 % less to produce than conventional physical buttons. Manufacturers also save expenditure on separate mould‑making, wiring harness layout and durability testing, cutting overall R&D and assembly costs.
Yet the industry's single‑minded pursuit of tech flair and cost‑efficiency undermined the fundamental safety purpose of automobiles, triggering widespread usability issues and safety hazards.
During driving, adjusting climate settings, activating defogging or switching drive modes requires navigating nested on‑screen menus, forcing drivers to take their eyes off the road for extended periods.
Euro NCAP simulation tests show that in high‑speed emergency scenarios such as switching on hazard lights, physical buttons take an average of 1.2 seconds to operate, versus 4.7 seconds for touch‑screen input. This 3.5‑second gap raises collision risk by 80 %. U.S. NHTSA research notes touch‑screen operations draw eyes away from the road for an average of 8 seconds, compared with just 0.5 seconds for physical controls.
At typical driving speeds, even brief visual distraction leaves a vehicle coasting with reduced driver control.
Furthermore, all‑touch cockpits suffer poor environmental adaptability. Screen glare impairs visibility under bright sunlight; touch inputs fail with wet hands in rain or gloved hands in winter; false touches are frequent on bumpy roads. Industry real‑world testing reports touch‑screens deliver an overall operational error rate of 27 %, against only 0.8 % for physical buttons.
Most critically, touch‑only architectures create dangerous single‑point‑of‑failure risks. Life‑critical functions such as climate control, hazard lights and wipers are fully tied to the infotainment unit. Should the system black out, freeze or lag, core driving functions collapse entirely with no safety backup.
Touch‑screen interfaces lack tactile detent and haptic feedback, so muscle‑memory blind operation is impossible. In emergency driving conditions, mis‑operation and delayed responses become far more likely, sharply increasing risks of lane departure and crashes. These drawbacks have outweighed the perceived benefits of all‑touch cockpits, making regulatory correction urgent.
The industry enters a rational new phase
MIIT's mandatory physical‑control standard is poised to end unregulated cut‑throat competition around full‑touch interior designs.
Ahead of the regulation's implementation, major global and domestic OEMs have already begun product revisions. Premium brands including Volkswagen, Audi, Mercedes‑Benz and BMW, alongside leading Chinese manufacturers BYD, Geely and Changan, are re‑introducing physical buttons and knobs in new models and moving away from extreme touch‑only cockpits - signalling an industry‑wide shift.
The large‑scale return of physical controls does not represent technological regression; it is a rational return to the core functional requirements of motor vehicles. Its advantages are clear:
First, physical controls support muscle‑memory blind operation without requiring drivers to look down, drastically reducing driving distraction. Second, hardware controls are decoupled from the infotainment system. Critical safety functions remain operational even if the on‑board computer malfunctions. Third, physical hardware performs reliably across lighting, temperature and road conditions, suiting drivers of all age groups.
This cockpit‑HMI regulatory overhaul is just one example of NEV‑sector standardisation in 2026.
New policies have rolled out covering traction‑battery thermal‑runaway protection, passive‑safety upgrades for complete vehicles, ADAS marking specifications and rectification of high‑risk configurations. These measures curb past bad practices where marketing gimmicks were prioritised over practicality, and smart‑tech spectacle over safety.
It demonstrates that after years of explosive growth and market penetration, China's NEV industry is stepping away from parameter‑driven rivalry and concept‑driven hype via systematic regulatory frameworks. Future cockpits will strike a better balance between technological sophistication and real‑world usability.
As industry specifications keep being enforced, the new‑energy vehicle sector will advance into a high‑quality‑development era defined by greater safety, practicality and balanced innovation, delivering higher‑quality, more reliable mobility experiences for consumers.