China Business
China's 15th Five-Year Plan: Localize or lose
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The mechanics behind this advantage are visible across the Chinese machinery industry. Chinese manufacturers often develop, produce, adapt, and deliver faster because several parts of the industrial system reinforce one another. The following examples show how that system works and what European manufacturers can learn from it.
China Speed does not come from one isolated advantage. It comes from the way several advantages reinforce one another. Dense supplier networks make it easier to source components. Standardized interfaces make them easier to substitute. Modular product platforms make it possible to configure rather than redesign. Vertical integration protects critical production steps. Buffer inventories reduce the waiting time between order and delivery. Policy and infrastructure help these systems scale.
That combination changes the competitive unit. The relevant question is not whether one Chinese factory is faster than one European factory. It is whether the wider system around that factory can shorten every handoff that normally creates delay.
Many European companies still organize development as a sequence: requirements, design, prototype, production, and market launch. Chinese manufacturers increasingly use concurrent engineering. Development, procurement, production, and customer input begin earlier and run in parallel.
Sany Heavy Industry is one example of a company that develops several product generations at the same time. Zoomlion used 18 parallel engineering projects for a large tower crane and reduced the period from design to production completion from ten months for the previous model to eight months for the new one, according to the company’s own account.
Another example comes from Weichai. Its suppliers can access design changes through a cloud-based platform and adjust their own components while the wider product is still being developed. The company says this reduced development time by 20 percent. These figures come from company statements, so they should be read as examples of the operating logic rather than as independent benchmarks.
The point is not that every machine can be developed in parallel. Highly customized systems and safety-critical products impose real limits. But the more standardized the product, the more scope there is to bring procurement, production, and service into the development process before the design is formally finished.
A second pattern is the use of platforms and modular product architectures. Instead of treating every customer order as a new engineering project, Chinese manufacturers increasingly treat the machine as a combination of validated modules with standardized interfaces. Customer-specific work then happens through configuration and assembly rather than full redesign.
Youngsun, a Chinese packaging machinery manufacturer, describes a portfolio with more than 40 machine types and over 400 specifications built from configurable modules. Tederic and Yizumi use similar platform approaches in injection molding and die-casting equipment. The model allows companies to pre-produce recurring modules, hold them in inventory, and assemble a customer-specific machine quickly once an order arrives.
This approach has a cost. It can reduce product differentiation across a sector, and shared suppliers can spread the same design choices across competing manufacturers. But it also produces scale effects that are difficult to achieve when every machine is engineered as a one-off. One European woodworking machinery executive estimated that standardized parts can reduce costs by 30 to 40 percent.
China's domestic market makes this strategy easier to apply. A large market can support specialization in narrow applications and still generate enough volume to justify platforms, production capacity, and dedicated supplier networks. European manufacturers often face a more fragmented demand structure and a stronger pull toward customized solutions.
Industrial clustering is one of the clearest structural differences in this model. China has 13 national machinery-related clusters identified by the Ministry of Industry and Information Technology. Together, they had an aggregate output value of 2.817 trillion RMB in 2025, based on available cluster data.
The Changsha construction machinery cluster shows what this means in practice. It includes more than 500 upstream and downstream companies and covers more than 85 percent of China's national construction machinery product range. The local procurement share rose from 16.3 percent in 2019 to more than 30 percent. Sany says that 85 percent of the components used in its concrete pump trucks come from the Changsha area.
The value of a cluster is not just lower transport distance. It is the density of technical relationships. Engineers can meet suppliers quickly, test changes without long travel, and solve problems through direct interaction. In the Yangtze River Delta machine tool cluster, the study describes supplier networks operating within a two- to three-hour radius, enabling same-day deliveries and last-minute adjustments during production.
Germany and Europe have industrial clusters as well. The difference is often scale, supplier density, and the degree of coordination around them. That is where policy becomes relevant, but companies also need to decide whether they are making enough use of the networks that already exist.
Chinese manufacturers often respond to supply risk by bringing critical components in-house. Haitian International, for example, produces key mechanical parts and control electronics internally. Kede CNC is reported to manufacture around 85 percent of its core components itself. The attraction is straightforward: fewer external interfaces, fewer supplier delays, and more control when priorities change.
This is not a universal answer for European mid-sized companies. Vertical integration requires capital, people, and sufficient volume. It can also create underutilized capacity if demand falls. The useful lesson is more selective: companies should identify which components create the greatest bottlenecks or carry the greatest differentiation potential, then decide whether those components need stronger internal control.
Digital production systems add another layer. Leading manufacturers use automated material handling, digital production lines, digital twins, autonomous transport systems, and AI-supported quality control. Chinese companies account for roughly 26 percent of the "lighthouse factories".
One of the sharpest contrasts is in logistics. European companies have spent years reducing inventory to lower working capital and improve efficiency. Chinese manufacturers often accept higher inventory costs when those costs protect delivery speed.
Common modules, motors, hydraulic components, and control systems may be produced in advance and held until a customer order arrives. The final machine is then configured from available modules instead of waiting for every component to be manufactured from scratch. This approach is particularly effective when the product architecture is modular.
Chinese manufacturers also bring inventory and spare-parts capacity closer to customers. Sany, for example, operates more than 900 spare-parts warehouses globally and states that critical parts can reach customers in many markets in less than 24 hours. Some manufacturers use consignment arrangements, placing machines or spare parts with customers or nearby facilities and billing them only when they are used.
These practices tie up capital. They can look inefficient if delivery speed is not part of the commercial proposition. But if downtime is expensive and customers buy availability as much as they buy the machine itself, the calculation changes. The broader point is that delivery capability is treated by Chinese manufacturers as part of the product, not as a back-office logistics function.
The state does not create China Speed by itself, but it reinforces the incentives that make speed commercially useful. Cluster policy, infrastructure investment, logistics programs, accelerated customs procedures, financing support, and industrial standardization all reduce friction at specific points in the value chain.
China's 2024 logistics optimization program, for example, set a target of reducing the share of logistics costs in GDP from 14.4 percent in 2023 to about 13.5 percent by 2027. The program links transport infrastructure, industrial parks, logistics hubs, and digital freight systems. For machinery manufacturers, the relevance is practical: lower internal transport friction and better connections to ports can shorten the path from factory to customer.
Standardization is another speed tool. Common components, interfaces, testing procedures, and data formats reduce coordination and approval time. China’s standardization policy explicitly links shorter standards development cycles with industrial efficiency. In machinery, the development of standards for machine tools, CNC systems, functional components, and advanced manufacturing processes is intended to improve compatibility across supplier tiers.
European policymakers do not need to reproduce China's state-led model. They do need to recognize that speed is affected by decisions about infrastructure, permits, standards, technology transfer, and access to finance, not just by the performance of individual companies.
European manufacturers should not copy the Chinese model. Some of its advantages depend on conditions that do not exist in Europe, including the scale of the domestic market, the density of industrial clusters, state-backed financing, and a greater tolerance for early-stage product imperfection. The model also has costs: overcapacity, capital tied up in inventory, and the risk that quality gaps are pushed into the customer relationship.
The more useful question is which operating principles can be transferred without weakening the strengths of European machinery manufacturers. Several stand out:
The difficult part is deciding where speed should win. A faster development cycle is valuable where customers accept iterative improvement and where risks can be controlled. It is less useful when certification, safety, or long service life are the main buying criteria.
"German manufacturers need to reassess how they balance speed against quality, safety, and care." - Björn Conrad, CEO and founder of Sinolytics
The pressure is already visible in China, where local and foreign manufacturers compete against customers' expectations for short delivery times. But Chinese manufacturers are also taking their speed-oriented operating models into third markets. That makes China Speed relevant for companies that have little or no direct exposure to China.
In time-critical segments with strong price and delivery pressure, time-to-market can become a basic purchasing criterion. A technically superior product may still lose if the customer cannot wait for it, cannot get spare parts quickly, or cannot see how it can be adapted to a changing application.
That does not make quality less important. It changes the threshold at which quality becomes commercially useful. European manufacturers will need to protect the attributes that justify their premium while removing delays that customers do not value.
"The Chinese model cannot simply be copied in Germany or Europe, and it should not be. But its operating logic shows where European companies and policymakers are creating unnecessary delays." - Björn Conrad, CEO and founder of Sinolytics
Companies can redesign processes, product architectures, supplier relationships, and inventory policies. They cannot solve every constraint in the surrounding environment.
The policy implications are therefore practical rather than ideological: strengthen existing industrial clusters, speed up permitting for factories and research infrastructure, improve the transfer of technology from research to industry, and help small and mid-sized companies adopt digital production systems and industrial AI. European value chains for critical technologies also need to be strong enough to support selective integration where external dependency creates unacceptable delays.
The aim should not be speed at any cost. It should be a production environment in which companies can choose speed where customers need it, without being slowed by avoidable administrative, infrastructural, or coordination problems.
China's delivery speed is the result of a system. Concurrent engineering, modular product design, dense clusters, vertical integration, strategic inventories, digital production, logistics infrastructure, and industrial policy all contribute to shorter cycles. Removing any one element does not remove the competitive pressure created by the combination.
European manufacturers should not copy the system wholesale. They should use it as a benchmark. Where speed affects the buying decision, it needs to become an explicit strategic capability. That means changing how products are developed, how suppliers are integrated, how inventories are managed, and how production technology is scaled. It also means accepting that some of Europe's traditional strengths will not protect market share if customers cannot get the machine when they need it.
The management question is simple, even if the answer is not:
"Where does speed create competitive value, and where would it come at the cost of quality, safety, or reliability?"
This text is a brief summary of a study by Impuls and Sinolytics for VDMA. In the VDMA Chinatalk, Björn Conrad discusses the drivers of China Speed and their implications for the German and European machinery industry. The interview is in German. The study can be downloaded by members of the VDMA.
