With the rapid adoption of the battery-swapping model for new energy vehicles, the advantage of ultra-fast recharging in 3–5 minutes has been widely recognised by the market; however, poor electrical contact remains a core challenge that the industry cannot avoid.Industry data indicates that over 60% of battery swapping failures are directly attributable to poor electrical contact: at best, this leads to interruptions in the swapping process and failed vehicle recharging, severely delaying the timeliness of trunk line transport and mining operations; at worst, it causes connector burnout, electrical damage to battery modules and chargers, and even poses safety hazards such as short circuits and fires.

As the penetration rate of new energy heavy-duty trucks rapidly rises in sectors such as long-haul transport, mining and ports, the battery-swapping model has emerged as the key pathway to the electrification of heavy-duty trucks, thanks to its ability to recharge in just 3–5 minutes.However, the industry remains unable to escape the core pain points of ‘affordability in construction but inefficiency in operation’: over 70% of operators face challenges such as the difficulty of managing multiple dispersed sites, high operational and maintenance costs, and the difficulty of maintaining the value of battery assets. Meanwhile, heavy-duty truck drivers and fleets frequently encounter difficulties such as arriving at battery-swapping stations to find them empty, opaque processes, and chaotic account reconciliation. At the heart of these persistent industry issues lies the lack of a cloud platform for heavy-duty truck battery-swapping stations that integrates hardware and software and provides end-to-end connectivity.

As the penetration rate of new energy vehicles continues to rise, choosing the right charging method has become a must for every owner.Many new owners, having just taken delivery of their vehicles, are often baffled by the three main charging methods: slow charging, fast charging and ultra-fast charging. What exactly are the differences between them? Which is the most cost-effective for everyday use? And which method is best for protecting the battery? We’ll explain the differences between slow, fast and ultra-fast charging in one go, helping all EV owners choose the right charging method to better protect their vehicle’s battery.

As the number of new energy vehicles continues to rise, DC fast chargers have become a core component of the public charging infrastructure.Many users, failing to grasp the key differences between the two, have encountered issues such as wasted initial investment, a poor user experience and persistently high operational and maintenance costs. Whether they are private homeowners, corporate buyers or professional charging operators, the most fundamental question when selecting equipment remains: what exactly is the difference between integrated and split-type chargers, which offers better value for money, and which is better suited to their specific circumstances?

As the penetration rate of new energy vehicles continues to rise, the construction of charging stations is entering a boom period. However, the industry remains unable to avoid a core challenge: a single misstep in selecting charging points can lead to losses at every turn. Over 60% of station operators have fallen into this trap: equipment purchased with a budget of millions is incompatible with new models featuring 800V high-voltage platforms, turning fast charging into slow charging and resulting in customer churn;fixed-power charging points cannot be dynamically allocated, resulting in insufficient charging capacity during peak hours and idle power consumption during off-peak hours, with power utilisation rates falling below 50%; outdoor equipment suffers from frequent breakdowns, keeping maintenance costs high; and the indiscriminate installation of individual charging points leads to initial investment overruns of 30%, indefinitely prolonging the payback period.

In the harsh operating environments of mining and construction sites, robotic arms at battery-swapping stations frequently jam due to insufficient assembly precision; in port feeder operations, locking mechanisms fail to engage because machining tolerances exceed specifications; and in urban battery-swapping stations, components show signs of rust and deterioration within just a year due to shoddy workmanship—the issues of ‘poor product quality and inadequate craftsmanship’ in charging and swapping equipment are becoming a hidden obstacle to the new energy sector.These seemingly minor manufacturing defects not only cause equipment failure rates to soar and service lives to be shortened, but also impose high operational and maintenance costs on operators, significantly diminish the user experience, and hinder the industry’s high-quality development.

According to data from the China Federation of Logistics and Purchasing for 2025, the average empty-run rate in the heavy-duty truck industry stands at 28 per cent, with daily delays caused by traffic congestion averaging 1.8 hours, and the number of ad-hoc route changes exceeding four per month. These three challenges act as invisible shackles, continuously eroding operators’ profits.The core objective for heavy-duty truck operators is to ‘reduce costs and improve efficiency’: by stabilising routes and ensuring efficient recharging, they aim to achieve the ideal scenario of ‘15,000 kilometres driven per month, an 80% load factor, and recharging without detours’.

In closed-loop transport scenarios such as ports, mines and steelworks, heavy-duty lorries perform continuous, cyclical operations, and their operational efficiency depends directly on the reliability and timeliness of energy replenishment. As a third energy replenishment method—alternative to diesel refuelling and charging—battery swapping derives its value from being fast and reliable, offering an experience akin to refuelling. Should a battery swap fail, it not only disrupts a single operation but may also cause coordinated delays across the entire logistics chain.

As the penetration rate of new energy vehicles continues to rise in both the commercial and passenger vehicle sectors, ‘low charging efficiency, limited applicability and high operational costs’ have emerged as key challenges hindering the industry’s development. Thanks to its core advantages of ‘on-demand deployment, flexibility and efficiency, and comprehensive coverage’, mobile charging has evolved from a policy-driven initiative into a market necessity, becoming a crucial sector for addressing range anxiety and driving the high-quality development of the new energy industry.