工信部《工业绿色低碳发展“十五五”规划》：2030年工业碳达峰与500个零碳工厂Ministry of Industry and Information Technology '15th Five-Year Plan for Green and Low-Carbon Industrial Development': Industrial carbon peak by 2030 and 500 zero-carbon factories

Gao Zhilong Industrial is the largest source of carbon emissions in China. The green and low-carbon transformation of the industrial sector has always been the heaviest piece in the "dual carbon" strategy. In early October 2026, the Ministry of Industry and Information Technology issued the "14th Five-Year Plan for Green and Low-Carbon Development in Industry," incorporating "achieving peak carbon dioxide emissions in the industrial sector by 2030" into top-level planning and explicitly proposing the cultivation and construction of 500 zero-carbon factories. The implementation of this plan marks the shift of industrial carbon reduction from "single-point experiments" to "systematic advancement."

According to reports from Toutiao and other media, the plan clearly states that by 2030, carbon dioxide emissions in the industrial sector will reach their peak, the efficiency of energy and resource utilization will steadily improve, the green manufacturing and service systems will be more complete, and seven major tasks will be deployed to anchor the carbon reduction targets for 2030. The framework of the seven major tasks covers the main dimensions of the green and low-carbon transformation of industry—from industrial structure adjustments, optimization of the energy consumption structure, to the clean transformation of production processes, recycling of resources, and then to the construction of green manufacturing systems and cultivation of zero-carbon factories—forming a complete chain from 'reducing at the source' to 'controlling during the process' to 'managing at the end'. The goals correspond to the tasks one by one, providing concrete means for the implementation of the plan that can be inspected and evaluated.

Another highlight of the plan is the specific figure of 500 zero-carbon factories. Zero-carbon factories are not just conceptual slogans; they are tangible, measurable, verifiable, and replicable physical entities: factories must achieve carbon neutrality within their operational boundaries, relying on renewable energy wherever possible on the energy use side, optimizing processes to reduce direct emissions on the production side, and using carbon offset mechanisms to cover the remaining gap. The scale of 500 means that zero-carbon factories will transform from being a 'showcase' of a few companies into a 'standard practice' across a segment of the industry. The carbon reduction of a single zero-carbon factory may be limited, but together, 500 zero-carbon factories constitute a substantial basic platform for emission reduction in the industrial sector; their demonstration effect on upstream and downstream sectors of the industry chain far exceeds the number itself.

The composition of industrial carbon emissions determines that industrial carbon reduction cannot rely on a single approach. The process emissions of energy-intensive industries such as steel, cement, chemicals, and non-ferrous metals are intertwined with indirect emissions from electricity and heat, and the emission reduction paths differ significantly across industries: some rely on energy efficiency improvements, some on raw material substitution, some on process innovation, and others mainly on greening the energy structure. The reason why the seven-task framework covers multiple dimensions such as industrial structure, energy structure, production processes, and resource recycling is that industrial carbon reduction itself is a system project that requires multi-pronged efforts. The more detailed the planning breaks down the tasks, the clearer the implementation paths for each industry.

Synchronously advancing with planning is the institutional arrangement for the construction of zero-carbon factories. According to a commentary article titled 'Precisely Stepping Up the Construction of Zero-Carbon Factories' published by China Economic Net on October 10, 2026, the Ministry of Industry and Information Technology issued the 'Notice on Organizing and Carrying Out the Construction of National Zero-Carbon Factories,' deploying the work for national zero-carbon factory construction. The connection between 'cultivating and building' and 'organizing and carrying out' in the two documents outlines the operational path for zero-carbon factories from policy guidance to implementation: first, an overall plan clarifies the goals and quantity, and then a special notice specifies the application conditions, construction process, and evaluation standards, continuously refining the granularity of policy instruments.

It is worth noting that the automotive, lithium battery, and photovoltaic industries have taken the lead in the construction of zero-carbon factories. These three industries share a common characteristic: they are all areas of Chinese manufacturing with a high degree of globalization, strict supply chain management, and significant pressure from green trade barriers. The automotive industry faces constraints from the European Union's Carbon Border Adjustment Mechanism, while lithium batteries and photovoltaics are directly within the reach of international trade green standards. For them, zero-carbon factories are not only a social responsibility but also a hard threshold for market access—the sooner a company obtains 'zero-carbon' certification, the more bargaining chips it has for entering international high-end markets. The proactive actions of leading enterprises are turning zero-carbon factories from a 'bonus item' into a 'must-answer question'.

Digitization and intelligence are the most prominent underlying features of this round of zero-carbon factory construction. According to a commentary article from China Economic Net, zero-carbon factory construction relies on technologies such as the industrial Internet, the Internet of Things, and artificial intelligence to build energy and carbon management centers, enabling automatic collection, precise measurement, and intelligent analysis of energy and carbon emission data. In traditional factories, energy and carbon management depends on manual meter reading, monthly accounting, and post-analysis; in zero-carbon factories, energy and carbon management requires real-time monitoring at the minute level, precise measurement at the equipment level, and data-based dynamic optimization. Without a digital foundation, carbon neutrality is an account that cannot be accurately settled — where the emission sources are, how effective the emission reductions are, and how large the remaining gaps are, all must be determined by data. The emergence of energy and carbon management centers is upgrading enterprise carbon management from 'experience-driven' to 'data-driven'.

Looking at zero-carbon factories from a broader perspective, they are actually a fulcrum for the green and low-carbon development of industry. Factories are the basic units of industrial carbon emissions. The green transformation of thousands upon thousands of factories, when combined, forms the foundation for achieving peak carbon emissions in the industrial sector. The planned path is very clear: using the green manufacturing and service system as the framework, zero-carbon factories as the nodes, and digitalization and intelligence as the tools to continuously reduce the carbon emission intensity of the entire industrial system. The green manufacturing system addresses 'how to build,' zero-carbon factories address 'to what extent to build,' and digital tools address 'how to measure clearly and manage effectively,' with all three supporting each other.

Of course, the challenges are equally real. Industrial carbon peaking is not about 'cutting production capacity across the board,' but about achieving a peak in emissions and then a steady decline through structural adjustment and technological progress, while ensuring industrial growth and energy security. China's industrial sector is comprehensive, with a vast number of enterprises and varying levels of technology. The starting points for carbon reduction differ greatly among industries and enterprises of different scales, so uniform standards and differentiated pathways must go hand in hand. Implementing the seven major tasks requires support in multiple areas, including funding for technological transformation, electricity pricing mechanisms, carbon market signals, and green financial products. For local governments, how to balance emission reduction targets with industrial development is a challenging question that requires careful handling.

The cultivation of zero-carbon factories also involves the construction of an evaluation system. The 'credibility' of a zero-carbon factory depends on how the accounting boundaries are defined, how the offset ratio is determined, and how the certification process is carried out. If the standards are too loose, zero-carbon factories may become tools for 'greenwashing'; if the standards are too strict, most enterprises may be kept out. Therefore, the implementation details of the national-level zero-carbon factory construction notice, especially the setting of evaluation indicators and verification mechanisms, will directly determine the quality of the 500 zero-carbon factories. The rigor of the policy is the prerequisite for whether this round of zero-carbon factory construction can stand firm.

For industrial enterprises, the direction of the plan is very clear: green is no longer a cost item, but a competitive advantage. The cultivation and construction of 500 zero-carbon factories means that a group of enterprises will take the lead in completing the green transformation and in mastering the capabilities of carbon accounting, carbon management, and carbon asset operation. These capabilities will, in the future, become the basic literacy for enterprises to participate in market competition, just like quality management systems. Enterprises that plan early will take the initiative in green procurement, green financing, and carbon market transactions; those that wait and see may face higher compliance costs and a narrower market space in the coming years. The plan provides not only constraints but also a timetable for transformation.

There is another dimension that is easily overlooked: the impact of zero-carbon factories on employment and the industrial ecosystem. Zero-carbon transformation is not simply a "subtraction." Green industries such as photovoltaics, energy storage, energy-saving equipment, intelligent monitoring, and carbon accounting services will directly benefit from the construction of zero-carbon factories. The demand for building 500 zero-carbon factories will drive the growth of a group of green technology suppliers, engineering service providers, and professional consulting firms, creating new industrial growth. The relationship between carbon reduction and growth, in the context of zero-carbon factories, is not zero-sum, but can be mutually reinforcing.

Returning to the plan itself: by 2030, with industrial carbon peaking, 500 zero-carbon factories, and seven major tasks, three sets of keywords form the roadmap for green and low-carbon industrial development over the next five years. The roadmap is already drawn; the next key is execution: how policies are detailed, how standards are unified, how funding is allocated, and how enterprises take action. Industrial carbon reduction is a long-distance race. Once the plan sets the pace, it depends on whether every step is solid.

Facing the five-year window of the '15th Five-Year Plan,' the green and low-carbon transformation of industry still faces a key variable: the speed of technological progress. The costs of photovoltaic power generation, energy storage per kilowatt-hour, and green hydrogen production have continued to decline in recent years, creating increasingly favorable economic conditions for adjustments in industrial energy structures; the application of digital twins and artificial intelligence in energy efficiency optimization is also continuously reducing the marginal costs of green transformation. The pace of implementing the plan largely depends on the release speed of these technological dividends. Policies provide direction, technology provides momentum, and with both in resonance, the industrial carbon peak will have solid support.

(Data source of this article: Toutiao, China Economic Net)

[Research support institutions: Energy and Dual-Carbon Research Center, China Industrial Newspaper | China Energy Industry Development Network]