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Woofun AI reports that Zhang Guosheng, a steel logistics operator in Tangshan with over a decade of experience, liquidated his final three diesel heavy trucks in May but has refrained from purchasing new energy vehicles due to prohibitive costs. A 49-ton short-distance battery-swappable pure electric heavy truck commands a market price of 850,000 yuan, whereas a comparable diesel unit costs only 400,000 yuan, creating a price differential exceeding double the standard. Although Zhang inquired about a chassis-only purchase model with monthly battery rentals ranging from 7,000 to 8,000 yuan, dealers confirmed this option remains unavailable for his specific route between Tangshan and Qinhuangdao. His hesitation stems not from a lack of willingness to transition but from an inability to afford the upfront capital or a lack of immediate operational necessity given current infrastructure gaps.
Shortly after Zhang's liquidation, eleven government departments, including the Ministry of Transport, jointly released the 'Implementation Plan for Promoting the Large-Scale Application of New Energy Heavy Trucks' on June 12. This document represents the first national-level framework comprehensively addressing the entire value chain, encompassing vehicle purchases, energy replenishment, operational logistics, financial instruments, land allocation, and insurance protocols. Wu Xiqing, director of technical policy research at the China Automotive Strategy and Policy Research Center, emphasized that heavy trucks are primary consumers of petroleum, making their electrification a critical strategy to reduce China's reliance on imported crude oil and secure national energy supplies. The coordinated issuance by eleven departments signals a long-term strategic commitment to balancing ecological protection, energy security, and the high-quality development of modern logistics, rendering the trend toward heavy truck electrification irreversible.
Currently, Zhang Guosheng has suspended plans to acquire new vehicles, opting instead to observe the implementation effects of the June policies before making further decisions. The widening chasm between macro policy objectives and individual financial realities complicates decision-making for operators in his position. Zhang previously managed short-distance steel transport between Tangshan and Qinhuangdao, covering approximately 300 kilometers daily. As his fleet of seven diesel trucks faced gradual phase-out due to tightening environmental regulations in the Beijing-Tianjin-Hebei region, he sold the final three units in May, fearing continued depreciation in asset value. When calculating the economics of switching, Zhang noted that while a pure electric truck could save 1 yuan per kilometer in energy costs—totaling 300 yuan daily or 90,000 yuan annually based on 300 operating days—the 850,000 yuan price premium would require five years to recoup. Given that the operational lifespan of a heavy truck in Tangshan is typically four to five years, Zhang calculated that he would only begin generating profit in the final year of ownership, effectively paying off the initial investment during the preceding years. This economic reality is not unique to Zhang; a representative from a state-owned automobile company specializing in new energy vehicles explained that the high cost is primarily driven by battery prices. A 49-ton pure electric heavy truck utilizes a lithium iron phosphate battery pack with a capacity of approximately 282 degrees, with battery costs accounting for 40% to 50% of the total vehicle price. In contrast, the engine, the core component of fuel-powered trucks, represents a significantly lower cost fraction.
Furthermore, new energy trucks necessitate drive motors, electronic control systems, and other electrical components, all of which incur higher research, development, and manufacturing expenses than traditional fuel vehicles. The representative noted that battery raw material price volatility has left manufacturers in a passive position regarding cost control, directly resulting in the 850,000 yuan price point facing buyers like Zhang.
Zhang Guosheng, who has been selling heavy trucks in Baoding for over a decade, observed a marked increase in inquiries about new energy vehicles this year compared to the previous year, yet fewer than 20% of these inquiries resulted in actual orders. Most potential buyers merely ask about range and price before departing without committing. Liu Yu, head of a logistics fleet operating inter-provincial routes in Shijiazhuang, highlighted additional operational inefficiencies. Pure electric heavy trucks experience a significant reduction in range on highways; a vehicle with a nominal range of 400 kilometers often manages only slightly over 300 kilometers in practice. On routes exceeding 600 kilometers, drivers must stop at charging stations at least twice, with each stop consuming approximately 1.5 hours. Since freight drivers earn income per trip, this waiting time for energy replenishment directly erodes their capacity to accept new orders. Liu Yu summarized the market sentiment by stating that drivers are reluctant to use these vehicles due to reduced earnings, while owners hesitate to purchase them because of high costs, limited range, and extended payback periods.
Data compiled by Woofun AI shows that despite these hurdles, the state-owned automobile company reported cumulative sales of new energy heavy trucks exceeding 12,000 units in the first five months of the year, with 4,190 units sold in May alone, securing the top spot in monthly industry sales for three consecutive months.
However, the profit margin per vehicle has been severely compressed. The company representative disclosed that the profit from selling a single new energy heavy truck has fallen below 10,000 yuan, with some competing models trading at prices approaching their production costs. Zhong Weiping, secretary-general of the Commercial Vehicle Professional Committee of the China Automobile Circulation Association, provided broader market context, noting that retail sales of all heavy truck types in China reached 336,000 units from January to May 2026, a year-on-year increase of 16.8%. Within this total, new energy heavy trucks accounted for 104,000 units, while the remainder consisted of traditional energy vehicles including diesel, CNG natural gas, and methanol models. Detailed statistical data on the specific demographics of these buyers remains unavailable.
The primary driver behind this sales volume increase is not organic economic decision-making by end-users but rather policy mandates such as environmental restrictions aimed at phasing out older diesel trucks. The 'Plan' issued on June 12 delineates a new trajectory for the industry, setting a target for new energy heavy trucks in use to exceed 1.6 million units by 2030, representing approximately 20% of the total heavy truck fleet. The penetration rate for new vehicles is projected to reach 40%. In key regions like the Beijing-Tianjin-Hebei area and the Fenwei Plain, electric heavy trucks are expected to comprise over 80% of indoor and fixed short-distance transportation routes. The plan also mandates the construction of 30,000 kilometers of zero-carbon freight corridors along highway networks and the establishment of approximately 3,000 heavy truck charging stations nationwide. Consequently, freight volume transported by new energy heavy trucks on highway routes is targeted to account for 18% of the total heavy truck freight volume.
With these strategic goals established, the central question for operators like Zhang Guosheng is whether the 'Plan' can effectively dismantle the 850,000 yuan financial barrier. The proposed solution centers on the concept of separating the vehicle from the battery. Under this model, logistics companies would purchase only the chassis, excluding the battery, while renting batteries from specialized asset management companies for a monthly fee. The operator assumes responsibility for maintenance, replacement, and residual value disposal, allowing the user to focus solely on vehicle operation. If successfully implemented, this approach could reduce the upfront purchase cost from 850,000 yuan to approximately 400,000 yuan. The state-owned automobile company representative explained that after purchasing the chassis, users sign a lease agreement with a battery asset management company and commence operations by paying monthly rent. In a battery-swapping system, a depleted battery can be replaced at a station in mere minutes, mirroring the refueling time of a fuel vehicle. The asset management company manages battery degradation, maintenance, and recycling, relieving the user of concerns regarding residual value. Liu Yu noted that the chassis cost for a battery-swappable heavy truck is approximately 420,000 yuan, with monthly battery rent ranging from 7,000 to 8,000 yuan, often with discounts for annual commitments. When factoring in electricity costs, rent, and maintenance, the total lifetime cost of the vehicle is projected to be comparable to or even lower than that of a fuel vehicle. Liu Yu emphasized that the critical factor is not the unit price but the ability to avoid a massive lump-sum payment, stating that monthly payments are financially manageable. For Zhang Guosheng, this model would transform his financial burden from a single 850,000 yuan outlay to a 400,000 yuan chassis payment plus 7,000 to 8,000 yuan in monthly rent, with fuel savings nearly offsetting the rental cost.
The state-owned automobile company representative argued that since heavy trucks are means of production, end-users are highly sensitive to total cost of ownership, and the upfront capital expenditure is the primary decision-making obstacle. The vehicle-battery separation model addresses this by converting capital expenditure into monthly operating costs, aligning better with the revenue cycles of the freight industry. The 'Plan' explicitly recognizes the strategic value of this approach, encouraging innovation in business models such as vehicle-battery separation, battery leasing, and comprehensive energy services, alongside the development of emerging sectors like battery asset management and financing for new energy transportation equipment. The policy intent is clear: to minimize price barriers to facilitate broader adoption. While the financial logic appears sound and the business model enjoys policy support, Zhang Guosheng has not yet placed an order. The viability of this model hinges on the availability of battery-swapping stations, without which the system cannot function. Currently, several critical obstacles impede this infrastructure. The first is the lack of compatibility in standards for battery-swapping stations. The automobile company representative noted that battery packs from different manufacturers and swapping station operators do not align in terms of size, interface standards, or communication protocols. Stations built by his company in Hebei and other regions can only serve specific brand models using their customized batteries. For instance, a driver traveling from Tangshan to Shijiazhuang who swaps a battery there would be unable to swap again in Handan if the local station does not belong to the same system.
Although the vehicle-battery separation model has been introduced, the battery-swapping process itself remains fraught with issues, presenting users with a fragmented and uncoordinated network. This situation mirrors the historical lack of standardization in phone charging interfaces, where chargers from different brands were incompatible.
However, phone users could still charge at home; heavy truck drivers on highways facing a depleted battery must wait for rescue. The industry is currently working on establishing group standards for battery-swapping packs, but these will take time to become mandatory industry-wide. The uneven distribution of swapping stations exacerbates the problem. A provincial transportation platform official in Hebei provided data indicating that a heavy truck charging station designed to serve 150 vehicles daily has averaged fewer than 30 vehicles per day over its first six months of operation, resulting in a utilization rate of less than 20%. Static payback period calculations suggest that even under the most optimistic scenarios, it would take twelve years to recover the initial investment, whereas the equipment lifespan is only eight to ten years, making full cost recovery within the lifecycle unlikely.
This creates a catch-22: drivers are reluctant to buy new energy trucks due to a scarcity of swapping stations, while operators hesitate to build more stations due to a lack of vehicle traffic. This 'vehicles waiting for stations and stations waiting for vehicles' dynamic is prevalent across many provinces. A second major obstacle is the uncertainty regarding battery residual value. The automobile company representative pointed out that batteries are the fastest-depreciating assets in a vehicle. While their theoretical cycle life is 3,000 cycles or 5 to 8 years, their actual residual value is heavily influenced by operating conditions, charging habits, and temperature. A battery used on a steel transport route in Tangshan for three years may have a vastly different residual value compared to one used on a highway in Hainan for the same duration. The industry currently lacks unified standards for monitoring battery health and evaluating residual value. This uncertainty leads to a third obstacle: the absence of suitable financial support. Banks and financial institutions cannot assess batteries as collateral due to valuation difficulties, making it hard to offer credit products. The representative stated that the financial support system is not yet fully developed. Although policies encourage financing, financial institutions remain hesitant to enter the market due to valuation risks. Without financial backing, asset management companies lack the capital to purchase batteries in bulk or build extensive swapping networks, hindering the entire process.
Liu Yu confirmed these challenges, noting that even with a willingness to adopt the separation model, financing barriers remain higher than policy intentions suggest. He cited lengthy bank approval processes and strict collateral requirements as particularly difficult for fleets of his size. These three obstacles are deeply interconnected: incompatible swapping stations create a fragmented network; uncertain battery values impede financial support; and insufficient funding prevents the construction of adequate infrastructure. While the vehicle-battery separation concept is viable in policy documents, its real-world implementation requires overcoming these hurdles sequentially. Zhang Guosheng has inquired with multiple dealers about the separation model and the 7,000 to 8,000 yuan monthly rent, yet no one can confirm the availability of swapping stations on his Tangshan-Qinhuangdao route, explain protocols for rented battery failures, or guarantee bank loan approval. Nevertheless, progress is being made in two directions. The automobile industry is working on establishing group standards for battery-swapping packs, with participation from manufacturers and operators, though the representative acknowledged that transforming existing batteries, upgrading stations, and coordinating interests will take considerable time. Simultaneously, provincial transportation platforms are beginning to construct swapping networks for inter-provincial routes. Jiangxi Public Investment Co., Ltd. has already established several stations on national and provincial highways, and in June, public bidding was launched for 12 stations along the G60 Shanghai-Kunming Highway to address energy replenishment shortages. On the evening of June 23, a Ministry of Transport source indicated that many provinces are developing supporting measures, focusing on planning and securing land for swapping facilities in highway service areas. The policy strategy is to establish infrastructure first and then reduce costs through economies of scale.
Wu Xiqing reiterated that the industry still faces practical challenges, including high purchase costs, expensive insurance, and an immature business model for vehicle-battery separation. The joint issuance of the implementation plan by eleven departments aims to ensure coordinated action across regulation, finance, and energy sectors to address these issues. He noted that if market-based alternatives were already feasible, such a special policy would be unnecessary. As battery prices decline, the overall cost of new energy heavy trucks is expected to decrease. Early mainstream models featured 280-degree batteries with a range of approximately 200 kilometers, whereas current models generally offer over 400 degrees of capacity, providing ranges exceeding 300 kilometers, with some reaching 500 kilometers or more.
Concurrently, a large number of old fuel-powered heavy trucks are nearing the end of their useful lives, and strict emission reduction requirements for energy-intensive enterprises are accelerating the replacement of these vehicles with new energy alternatives in industrial and mining sectors. Zhang Guosheng remains unaware of these broader developments, knowing only that he has sold his diesel trucks and has not yet purchased new energy vehicles. Wu Xiqing concluded that while users prioritize short-term financial interests, reflecting the need for long-term investment in the green transformation of the freight industry, the large-scale adoption of new energy heavy trucks is an inevitable choice for industrial upgrading, environmental protection, and energy security. The implementation plan serves as a guiding document for the 15th Five-Year Plan period, ensuring the long-term trend toward electrification remains unchanged. Zhang Guosheng believes that while policy efforts are creating necessary conditions, the infrastructure is still insufficient, leading him to decide to wait a little longer. This marks the third such incident this year where policy intent clashes with immediate operational reality.