This list of the top ten global new energy vehicle brands by sales volume in 2025 clearly shows that the global electric vehicle landscape has been completely reshaped. Chinese domestic brands have fully taken the dominant position in the market, while traditional overseas car manufacturers have lagged behind in their transformation process. The industry's technology, market, and competitive logic have undergone fundamental changes. By analyzing the data, four core development trends can be identified.

The core data of the ranking is highly persuasive: Among the top ten positions, Chinese brands hold 7 spots, namely BYD, Geely, Wuling, Li Auto, Xiao Peng, Yawei, and Xiaomi. Tesla, Volkswagen, and BMW are the only overseas brands that made it to the list. BYD leads the pack with 4.1938 million units sold and a global share of 20.35%, leaving no other brand behind. Geely and Wuling follow closely with 1.2690 million and 0.8148 million units respectively. Li Auto, Xiao Peng, Yawei, and Xiaomi have steadily climbed to the top ten, covering the entire price range from affordable commuting to high-end intelligence. In contrast, the European, American, Japanese, and Korean automakers only maintain the second position for Tesla. The sales of Volkswagen and BMW are less than 600,000 units, leaving a huge gap compared to the leading Chinese brands. Traditional giants such as Toyota, Mercedes-Benz, and Hyundai have failed to make it into the top ten, and their efforts in electric vehicle transformation have been weak.

The first major trend: The core production capacity and supply chain of the global new energy industry have been completely shifted to China, and local brands have achieved a dominant advantage across all sectors. China has the most complete battery power, vehicle manufacturing, and intelligent cabin industrial chains in the world, with product matrices covering all consumption levels. Wuling has deeply focused on the micro transportation market and used high-performance and cost-effective models to open up the global lower-income market; BYD relies on the DM-i hybrid and pure electric dual-track approach, taking into account both household long-distance and urban commuting needs; Xiongpeng, Yebai, and Xiaomi focus on the high-end intelligent sector, relying on self-developed intelligent driving and in-vehicle systems to create differentiated competitiveness. The complete industrial chain brings scale cost advantages, and domestic automakers are accelerating overseas factory construction, exporting to Europe, Southeast Asia, and Latin America, continuously expanding global market share. Overseas automakers cannot replicate this complete industrial system in the short term.

Secondly, the exclusive brand benefits of purely foreign-owned new energy companies have waned, and traditional fuel giants have encountered bottlenecks in their electric transformation. Tesla once monopolized the leading position in global new energy, but now its market share is only 7.94%, relying solely on the Model 3 and Model Y models to drive growth. The shortcomings of a single product line and the slowdown in intelligent iteration have continued to be exposed. German luxury car manufacturers like Volkswagen and BMW still rely on the modification of fuel vehicle platforms for their electric products, lagging behind Chinese brands in software and autonomous driving capabilities, and lacking core appeal. Their market growth is also weak. Japanese and Korean automakers have a slower transformation pace, favoring hybrid power over pure electric, which is out of step with the global mainstream trend and directly fails to make it into the top ten list. The advantages of traditional automakers in the fuel era are rapidly disappearing.

Thirdly, the technological routes have become diversified, with hybrid, range-extended, and pure electric models all available to cater to different markets worldwide. BYD, Geely, and Wanxiang have addressed the issue of insufficient charging infrastructure in overseas markets by relying on plug-in hybrids and range-extended vehicles, and have received a large number of orders in Europe, Southeast Asia, and Central Asia. Wuling, Xiaopeng, and Zhongle focus on pure electric models, which are suitable for short-distance urban travel needs. The simultaneous promotion of these two technological routes is the key for Chinese brands to cover diverse global demands. However, most overseas automakers stick to pure electric routes and lack hybrid products suitable for developing countries, resulting in limited market coverage.

Fourth, intelligence has become the core of the competition in the second half, and new forces have quickly made rapid leaps. Among the rankings, Xiaomi, as a new entrant brand, ranked tenth in the first year with 412,100 units sold; Xiongpei and Yebai have formed core selling points through high-level intelligent driving and HarmonyOS cabin systems. Currently, when consumers choose new energy vehicles, they no longer only focus on range and batteries; intelligent interaction, automatic assistance driving, and vehicle system ecosystem have become the core decision-making factors. Chinese automakers generally self-develop intelligent software and hardware, and their iteration speed far exceeds that of overseas automakers. The gap in intelligence will continue to widen the market share gap.

Overall, the global automotive industry's trend towards electrification is irreversible, and the market dominance has shifted from Europe, America, Japan and South Korea to China. In the future, industry competition will no longer be limited to hardware manufacturing; overseas local operations, low-carbon battery technology, and full-stack self-developed intelligent systems will become new competitive barriers. If traditional overseas automakers fail to accelerate their electrification and intelligence transformation, their market share will continue to be eroded by Chinese domestic brands; while domestic automakers aiming to consolidate their advantages need to continue to deepen their overseas operations, improve the global supply chain, continuously maintain the speed of technological iteration, and firmly grasp the leading position in the global development of the new energy industry.

If Trump's visit to China in 2017 was a handshake at a high point in Sino-US relations, then the context is entirely different if he were to set foot on Chinese soil again today. The world has weathered the storms of trade frictions, the pandemic, and geopolitics, and Sino-US relations have also experienced five years of ups and downs. At this juncture, his arrival itself sends a signal: even amidst intense competition, the door to dialogue has never been closed.

The most striking aspect of this hypothetical visit is not the protocol or the number of agreements signed, but the efforts of the two major powers to find a way to coexist amidst competition. In today's Sino-US relationship, "decoupling" has proven unrealistic; the deep intertwining of supply chains, climate change, and artificial intelligence governance all force both sides to sit down and talk. Trump's unique "transactional diplomacy" style might be able to break through seemingly rigid issues and create a gap for pragmatic cooperation.

Of course, we are also aware that a single visit cannot resolve all structural contradictions. But as long as there is face-to-face communication and listening to each other's core concerns, conflict can be transformed into a controllable game. On such a day, the only conclusion is: cooperation benefits both sides, while confrontation harms both—this remains an irrefutable truth.  It is hoped that this trip today will lay a solid foundation for China-US relations over the next four years and beyond.

In March 2026, the registrations of battery electric vehicles (BEVs) in 14 major EU and European Free Trade Association (EFTA) countries exceeded 224,000 units, representing a year-on-year increase of 51%, and accounted for 22% of total new vehicle sales in that month; it is estimated that this proportion stood at 21.2% across the entire EU. In the first quarter of 2026, cumulative BEV registrations in EU countries exceeded 500,000 units, marking a 33.5% year-on-year increase compared with the same period in 2025. Year-to-date BEV registrations in the five major economies of Germany, France, Spain, Italy and Poland all recorded a year-on-year growth of over 40%. Among them, Italy's BEV market share rose from approximately 5% at the end of 2025 to 8.6% in March 2026, with registrations increasing by 65% year-on-year; driven by new incentive policies, one out of every four new vehicles sold in Germany in March was a BEV, driving a 42% year-on-year increase in year-to-date sales; in France, BEVs accounted for 28% of new vehicle sales in March, and benefited from the social leasing program, year-to-date sales have increased by nearly 50%. Nordic countries continue to maintain their leading position: BEVs accounted for 76.6% of new vehicle sales in Denmark in March, nearly 50% in Finland, and 98.4% in Norway.

Relevant institutions point out that the popularization of electric vehicles has significantly reduced Europe's dependence on imported oil, and based on current registration volume estimates, it can reduce oil demand by approximately 2 million barrels per year. This trend had already emerged before the Middle East situation fully affected market data, and purchasing behaviors of consumers and fleet operators are accelerating the adoption of electric vehicles.

It has been one week since BYD's unveiling of the second-generation Blade Battery and its flash charging stations. Over this period, numerous automotive enthusiasts have gained a certain understanding of BYD's latest technological advancements. However, as the discussion deepens around the second-generation Blade Battery and flash charging technology, several questions have emerged. These primarily concern whether ultra-fast charging may adversely affect battery health and whether such rapid charging could impose stress on the power grid.

The notion that fast charging negatively impacts battery longevity is not new; it dates back to the early proliferation of mobile phones in the 2000s. So, does fast charging genuinely affect battery life? Indeed, fast charging poses potential risks to battery durability, and such a conclusion is not unfounded if we consider the outcome without examining the underlying mechanism. Yet, it is worth delving deeper: Why does fast charging impair battery life, what are the fundamental causes, and how can such effects be mitigated?

Asserting that fast charging harms battery life is an oversimplified and somewhat irresponsible claim, as it bypasses the core mechanism and draws conclusions based on superficial logic. Fast charging operates on the principle of high voltage and high current. According to Joule’s Law, Q = I²Rt, an increase in current leads to substantial heat generation, consequently elevating battery temperature. Furthermore, the Arrhenius effect indicates that for every approximate 10°C rise in temperature, the rate of battery aging doubles.

What does this imply? Simply put, assuming an ideal charging temperature baseline of 25°C, if the battery temperature surges to 45°C during charging, the aging rate doubles. Should the temperature reach 60°C, the aging rate could accelerate to 5–6 times that under baseline conditions. Specific manifestations include abnormal thickening of the SEI膜, dissolution of cathode materials, and their subsequent deposition on the anode surface, among other degradation mechanisms. Therefore, the apparent effect of fast or flash charging on battery lifespan is fundamentally attributable to the direct impact of elevated temperatures. By effectively managing temperature, whether it is fast charging, supercharging, or BYD’s flash charging, these methods can be rendered non-detrimental to battery health.

Understanding the underlying principles of flash charging paves the way for viable solutions. BYD’s second-generation Blade Battery incorporates a "Lithium-Ion High-Speed Channel" and an "All-Climate Intelligent Thermal Management System," which collectively minimize heat generation and enhance heat dissipation efficiency and uniformity. As a result, flash charging exerts negligible impact on battery longevity. In essence, BYD employs advanced thermal management technology to rapidly dissipate heat, while the lithium-ion high-speed channel reduces heat generation. This dual approach—both reducing heat production and enhancing dissipation—effectively controls temperature.

That said, compared to technical showcases, I place greater trust in manufacturers’ warranty policies and commitments, which are concrete and binding. After all, not all consumers are deeply interested in technical specifics. It is precisely because of BYD’s confidence in its technology that the company has further strengthened its battery warranty policy. The "capacity retention rate" covered under the second-generation Blade Battery warranty has been increased by 2.5% overall, while the battery cells continue to enjoy a "lifetime warranty." This reflects the commitment and attitude embodied in the second-generation Blade Battery. Hence, I assert that the manufacturer’s warranty policy is the critical takeaway—BYD has demonstrated substantial sincerity with its second-generation Blade Battery.