Lead:It can reflect the progress of battery technology and the sincerity of car companies, but it is not necessarily a user's need.

It is an indisputable fact that the new energy vehicle market has achieved rapid development. According to data from the Passenger Transport Association, the penetration rate of the domestic new energy passenger vehicle market will exceed 60% in 2026. New energy models are steadily replacing traditional fuel vehicles and becoming an important choice for families to purchase cars.

However, while the market size is expanding, the trend of homogenization and entanglement in the industry has not eased. Instead, it has penetrated into all dimensions of product development, pricing, and configuration, and competition has become increasingly fierce.

While reviewing the iterative path of new energy vehicles in recent years, the competitive track for car companies has been constantly broadening. From basic body size, interior space, interior materials, to high-end smart cockpit, assisted driving, and vehicle energy consumption control... Every parameter and every configuration has become the focus of competition among car companies.

Among all product selling points, cruising range is always one of the core indicators that consumers perceive and have the highest decision-making weight.

The biggest concern of a large number of potential users who hold a wait-and-see attitude towards trams is always lack of battery life and inconvenience in replenishing energy. It can be said that the strength of battery life directly determines whether consumers are willing to give up fuel vehicles and choose new energy models. It is also the key to leveraging market growth.

Today, tremendous improvements have been made in battery energy density, safety and cost control. In the early years, the CLTC battery life of the mainstream pure electric model was only maintained at 400 to 500 kilometers, and the maximum was 650 kilometers. Today, a large number of mass-produced models have exceeded 1000 kilometers of battery life, doubling the mileage parameters. Many mass-produced models have officially announced that they have exceeded the 1000-kilometer battery life mark., the battery life parameters have doubled.

So, everyone began to discuss this phenomenon: Is this what consumers need when car companies gather together to sprint more than 1000 kilometers?

1. 1000 kilometers has become the norm, and long battery life has become popular

In the early days of the popularization of new energy vehicles, battery life anxiety was the core pain point that restricted the development of the industry and hindered users from purchasing cars.

At that time, domestic power battery technology was not yet mature, and battery energy density was generally low. Coupled with problems such as high cost of building vehicles and imperfect vehicle energy consumption management and control systems, the battery life of mainstream mass-produced pure tram CLTC was generally less than 500 kilometers.

The limited cruising range has greatly reduced the radius of the tram. Compared with fuel vehicles with stable cruising range and convenient recharge, there is a clear gap in practicality. Daily short-distance commuting in cities can still meet the demand, but once cross-city travel and long-distance self-driving are involved, users will become worried. Trams can never get rid of the limitations of "means of transportation".

The low temperature environment was the biggest shortcoming of early trams.

Industry measured data shows that the battery activity of the first-generation pure electric models dropped significantly under low-temperature winter conditions in the north, and the actual battery life discount generally reached 40% to 60% off. Originally, the nominal battery life of four to five hundred kilometers was cut directly in half. Users did not dare to turn on the warm air or drive long distances in winter, and they were always worried that the vehicle would run out of electricity halfway.

At the same time, the construction of domestic charging pile infrastructure lags behind, energy replenishment points in high-speed service areas, towns and counties, and remote scenic spots are scarce, and problems such as difficulty in charging, slow charging, and difficulty in finding piles are common.

The superposition of multiple shortcomings not only allows fuel vehicle users to continue to complain about the lack of practicality of trams, but also allows a large number of intended consumers to choose to wait and see, which greatly limits the expansion speed of the new energy market.

Today, as the domestic power battery industry chain continues to mature, core technology bottlenecks have been broken one by one.

Battery energy density has steadily increased, and the installed cost per unit battery has dropped significantly. Coupled with the lightweight design of the vehicle and the optimization of the global thermal management system, car companies have completely gotten rid of the cost and hardware constraints of battery life upgrades, and mass production of ultra-long battery life models has become the norm.

For example, the Tengshi Z9S, which will be pre-sold on August 3, 2026, relies on the second-generation blade battery technology and the optimization of the entire vehicle's ultimate energy consumption. The single-motor flagship CLTC pure electric battery life reaches 1100 kilometers, setting a new record for the current mass production of pure electric cars. The battery life record marks that civilian pure electric battery life technology has reached a new level.

More importantly, the 1000-kilometer battery life is no longer exclusive to high-end flagship cars, but is rapidly spreading into the mainstream civilian market. At present, the high-end series of Gekrypton, NIO, and BYD have all launched mass-produced models with a thousand-kilometer battery life, and the battery life competition in the high-end market has already taken shape.

The iteration speed in the mainstream home market is even faster. In the past two months, BYD's three major product lines, Dynasty Network, Ocean Network, and Equation Leopard, have been updated and completed model iteration. The CLTC battery life of 200,000 yuan mainstream household pure electric models has generally exceeded 800 kilometers, greatly improving the endurance of household models. standard.

The all-electric coupe MG07 launched by SAIC MG at the end of July 2026 starts at a pre-sale price of only 125,900 yuan, and the high-end version can achieve 845 kilometers of CLTC battery life. In other words, cars in the early 100,000 are now equipped with a long battery life of more than 800 kilometers, greatly lowering the threshold for long-range models.

But now the product value system of family cars, when implemented in terms of battery life, really need to be reconstructed by 1000 kilometers?

2. Just needed or not just needed

At a time when the entire industry is rushing for thousands of kilometers of battery life, an industry issue urgently needs to be clarified: Does the 1000-kilometer long battery life have the real value in ordinary household scenarios?

Combined with the big data of domestic users 'vehicles and daily travel scenarios, the vast majority of urban home users do not use thousands of kilometers of battery life at all, and high-end long-life configurations have shown obvious overperformance.

Commuting statistics from domestic mainstream cities show that the average daily mileage traveled by users in first-tier cities such as Beijing, Shanghai, Guangzhou and Shenzhen is less than 50 kilometers. The commuting distance in second-and third-tier cities is shorter. Daily travel is mainly short-distance, and energy consumption demand is extremely low.

Currently, there are 200,000 yuan mainstream pure tram models on the market, with a CLTC battery life of about 650 kilometers, which is enough to fully cover the travel needs of ordinary families. Even if short-distance trips on weekends and suburban trips on holidays are combined, the comprehensive energy consumption is limited, and it only needs to be charged once a week, which will not affect the convenience of daily car use at all.

In contrast, the experience improvement of one charge for half a month and one charge for the whole month brought by thousand-kilometer battery life is negligible to ordinary users and may not be transformed into substantial car gain. For users who are rooted in the city and have fixed energy replenishment conditions, blindly pursuing thousands of miles of battery life is not a must.

Even for long-distance self-driving and cross-city travel scenarios, thousand-kilometer battery life is still not just needed.

Because judging from the human driving rules, most car owners will not drive continuously for more than 4 hours in a single time, and it is easy to cause fatigue when driving for more than 500 kilometers. They must stop for a rest and have a meal and rest. At present, the domestic new energy replenishment infrastructure has become increasingly improved. Charging piles in the service areas of the national high-speed trunk road network have basically achieved full coverage. Some service areas have implemented a number plate entry and orderly charging mode, which has completely solved the problem of high-speed pile grabbing and charging difficulties. Old pain points, the convenience of long-distance energy replenishment has been greatly improved.

At the same time, the comprehensive popularization of ultra-fast charging technology has further weakened the irreplaceability of long battery life.

Today, the 800V high-pressure platform and 5C ultra-fast charging technology have become the mainstream configuration of mid-to-high-end models, and the energy replenishment efficiency is comparable to that of fuel vehicles. There are many models that can achieve efficient energy replenishment within 15 minutes. Users can quickly replenish hundreds of kilometers of battery life during breaks during long-distance travel, which can fully support subsequent trips without relying on extremely long battery life.

Of course, the prerequisite is that car companies eliminate serious battery life false standard problems and ensure that the deviation between the real operating battery life and the calibration data of the model is reasonable. The mainstream battery life of 600-800 kilometers is enough to cover the travel needs of the vast majority of users in all scenarios.

From the perspective of long-term development of the industry, blindly stacking batteries and rushing mileage is also a manifestation of the convolution model. Ultra-large capacity batteries will increase the weight of the vehicle and increase the cost of car purchase and vehicle use. Power consumption will increase significantly under low-speed urban conditions, which violates the core original intention of energy-saving and low-carbon new energy vehicles, and also causes waste of battery raw material resources.

The so-called thousand-kilometer battery life needs its brand technology endorsement and marketing needs, and some users can really use it, but from the current point of view, it is not the core user needs.

What is more important than 1000 kilometers of battery life is that car companies match graded and rational battery life configurations according to different scenarios such as user commuting, transportation, long-distance, and operation to achieve the optimal balance of battery life, energy consumption, and energy replenishment efficiency.

Source: Automobile Commune

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