Current Status of the Development of my country’s Fine Chemical Industry
1. Continuous Expansion of Industry Scale
After decades of development, my country’s fine chemical industry has established a comprehensive industrial system characterized by a full range of categories and advanced technology, becoming a vital component of the global fine chemicals sector. Although different institutions may vary in their statistical methodologies, all available data consistently underscore the significant position and growth potential of China’s fine chemical industry within the global market. According to data released by CCID Consulting, the scale of China’s fine chemical industry (including new chemical materials) reached 3.9 trillion RMB in 2024, representing a year-on-year increase of 7.5%. Furthermore, the compound annual growth rate (CAGR) for the period between 2022 and 2024 stood at 6.1%, demonstrating an overall development trajectory characterized by steady improvement and enhanced resilience. According to statistics from S&P Global, the global specialty chemicals market was valued at approximately US$774.4 billion in 2024. Of this total, the Chinese market accounted for approximately US$215.9 billion—representing 28% of the global aggregate—thereby ranking first worldwide. North America and Western Europe followed in second and third place, with market sizes of US$165.3 billion (21% share) and US$104.2 billion (14% share), respectively.
2. Distinctive Regional Layouts
My country’s fine chemical industry has gradually evolved to exhibit spatial development characteristics defined by both clustering and differentiation. Notably, the East China region—leveraging its robust economic foundation, comprehensive industrial support infrastructure, and superior geographical location—has emerged as the core hub for the nation’s fine chemical industry. Centered around Shanghai, this region has concentrated a vast array of R&D institutions and corporate headquarters, thereby establishing itself as a primary source of innovation. Meanwhile, areas such as Jiangsu and Zhejiang have progressively constructed a complete industrial chain encompassing “raw materials—basic chemical products—deep processing of high-end fine chemical products.” Furthermore, other regions across the country have also successfully identified and established their specific market positioning based on their respective comparative advantages. For instance, the Pearl River Delta region—leveraging its robust electronics and information technology, home appliance, and automotive industries—prioritizes the development of fine chemical products closely linked to its end-consumer markets. As outlined in the *Action Plan for Developing Guangdong’s Green Petrochemical Strategic Pillar Industry Cluster (2023–2025)* issued by the Guangdong Provincial Government, the region explicitly aims to “focus on applications within advanced manufacturing and strategic emerging industries—such as next-generation electronics and information technology, high-end equipment manufacturing, and modern light industry and textiles—and, by integrating the characteristics of upstream and midstream products, extend the midstream-to-downstream petrochemical value chain. This initiative seeks to promote the deep processing of chemical products and foster the development of high-end fine chemicals and novel chemical materials, including engineering plastics, electronic chemicals, functional membrane materials, and high-performance fibers.” Conversely, the Central and Western regions, along with parts of the Northeast, capitalize on their legacy industrial foundations and cost advantages to actively absorb industrial transfers from the Eastern regions. By centering their efforts on local mineral resources or the specific demands of key leading enterprises, these areas develop specialized chemicals and novel chemical materials, thereby serving as an effective complement to—and support for—the core industrial clusters in the East.
3. Continuous Optimization of the Policy Environment
The Chinese government attaches great importance to the development of the fine chemical industry. In recent years, the national government has issued a series of intensive guiding and supportive policy documents that clearly define the strategic positioning of fine chemicals within the modern chemical industry system. For example, in July 2024, nine government departments—including the Ministry of Industry and Information Technology (MIIT)—jointly issued the *Implementation Plan for the Innovative Development of the Fine Chemical Industry (2024–2027)*. This document explicitly identifies the fine chemical industry as a pivotal engine for driving high-quality development within the petrochemical and chemical sectors, emphasizing its critical role in ensuring the security and stability of key industrial and supply chains, fostering green and low-carbon development, and enhancing public well-being. Subsequently, in September 2025, seven government departments—led by the MIIT—jointly released the *Work Plan for Stabilizing Growth in the Petrochemical and Chemical Industry (2025–2026)*. This plan explicitly calls for strengthening high-end supply capabilities by focusing on the specific demands of key industrial chains—such as integrated circuits, new energy, and medical equipment—and by supporting technological breakthroughs in critical product categories, including electronic chemicals, high-end polyolefins, high-performance fibers, specialty rubbers, and high-performance membrane materials.
Technological Development Trends in my country’s Fine Chemical Industry
1. Green and Low-Carbon Technologies Emerge as a Core Strategic Direction
Against the backdrop of global carbon neutrality strategies, green and low-carbon technologies have become an inevitable choice for the development of the fine chemical industry. Chinese fine chemical enterprises are actively accelerating the pace of their green transformation, leveraging technological innovation to continuously drive energy conservation and emission reduction across the entire industrial value chain. On August 21, 2024, the China Chemical Intelligence & Information Association, the National Fine Chemical Raw Materials and Intermediates Industry Collaboration Group, and other organizations jointly released the “2024 Top 20 Enterprises in China’s Fine Chemical Green and Low-Carbon Development.” This initiative aims to identify outstanding enterprises and establish industry benchmarks. Topping the list is Zhejiang Longsheng Group, a leading enterprise in my country’s textile printing and dyeing sector, which has demonstrated exceptional performance in green and low-carbon development. On one hand, the company reduces carbon emissions within its own manufacturing and operational processes through measures such as energy substitution and energy efficiency improvements; on the other, it drives overall carbon reduction across its value chain by increasing the proportion of low-carbon and green products in its portfolio.
2. Continuous Expansion of Industry Scale
Artificial Intelligence (AI) technology is profoundly empowering every stage of the fine chemical industry—from R&D to production and operations—driving the sector toward digital and intelligent transformation. In the R&D phase, AI technology can significantly boost the efficiency of developing new molecules and novel materials. In the production phase, the application of machine learning and deep learning algorithms enables in-depth analysis of vast datasets, thereby enhancing the production efficiency, safety, and environmental sustainability of fine chemical manufacturing. Currently, leading chemical enterprises both domestically and internationally are actively deploying AI technologies to forge new pathways for growth. For instance, BASF has utilized its high-performance supercomputer, “Quriosity,” since 2017 to achieve substantial improvements in R&D efficiency. Similarly, Wanhua Chemical has partnered with Huawei Cloud Stack to build an intelligent hybrid cloud infrastructure. This collaboration explores production application scenarios—such as predictive maintenance for equipment and the auditing of Standard Operating Procedures (SOPs)—and plans to deepen the application of AI in emerging fields, including catalyst synthesis and material structure design. By leveraging Huawei’s computing power platform and its ModelArts AI platform, Wanhua Chemical aims to drive both scientific research and industrial upgrading.
3. Biomaufacturing Technologies Forge New Pathways
Biomanufacturing refers to an advanced mode of production centered on industrial biotechnology. Fundamentally rooted in innovative biological disciplines—such as synthetic biology and genetic engineering—it utilizes inexpensive and readily available raw materials (or even atmospheric carbon sources captured for this purpose). By leveraging biological platforms—primarily comprising microbial strains, cells, and enzymes—as its “manufacturing factories,” this process employs large-scale industrial fermentation to yield target products. Biomanufacturing holds the promise of becoming the fourth industrial revolution of the future—following the Agricultural, Industrial, and Digital Revolutions—and represents a critical new frontier and emerging sector for the development of “new quality productive forces.” Currently, nations in North America and Europe—capitalizing on their abundant biomass resources and advanced technological frameworks—have established relatively mature and comprehensive industrial value chains. Representative enterprises in this sphere include DuPont, Novozymes, and Dow in the U.S., as well as Rhône-Poulenc, BASF, and DSM in Europe. Although my country embarked on this path relatively late, it has demonstrated robust momentum and immense potential for growth; a cohort of representative enterprises—such as Cathay Biotech and Huahang Bio-Tech—has already emerged, driving the continuous advancement of biomanufacturing technologies toward full-scale industrialization and high-end sophistication.
Problems and Challenges Facing my country’s Fine Chemical Industry
1. Prominent Structural Contradictions
Although China’s fine chemical industry has made significant strides, it continues to face prominent structural contradictions. On one hand, certain traditional fine chemical sectors suffer from overcapacity and fierce homogenized competition among enterprises, leading to declining economic returns. On the other hand, domestic self-sufficiency rates remain relatively low in fields such as semiconductor materials and high-performance catalysts, necessitating continued reliance on imports for certain key raw materials and products.
2. Mounting Environmental and Safety Pressures
Traditionally regarded as a high-pollution and high-risk sector, the fine chemical industry faces increasingly severe environmental and safety pressures. Particularly against the backdrop of the “Dual Carbon” goals, achieving a green and low-carbon transition has become critical to the industry’s sustainable development.
3. Need for Enhanced Technological Innovation Capabilities
Compared to international advanced standards, China’s fine chemical industry still exhibits significant shortcomings in core technologies. The innovation chain suffers from disconnects, lacking effective linkages between laboratory research findings and their industrial application. While universities and research institutes have made considerable progress in basic research, the capacity of enterprises to adopt these scientific and technological achievements and translate them into industrial-scale development remains relatively weak.
Recommendations and Outlook for the Development of my country’s Fine Chemical Industry
1. Strengthen Technological Innovation and Achieve Breakthroughs in Key Core Technologies
Governments, enterprises, universities, and research institutes must join forces to construct an integrated innovation system characterized by the deep convergence of industry, academia, research, and application. On one hand, efforts must continue to increase investment in basic research, focusing on core scientific inquiries—such as molecular design, catalytic mechanisms, and process intensification—to solidify theoretical foundations. On the other hand, priority should be placed on driving the development of applied technologies by strategically establishing applied innovation centers and pilot-scale testing platforms to accelerate the industrialization and commercialization of research findings.
2. Promote Green Transition and Enhance Sustainable Development Capabilities
First, accelerate the upgrading of process routes by promoting environmentally friendly technologies—such as green catalysts, green solvents, and biosynthesis—to reduce pollutant generation at the source. Second, strengthen end-of-pipe treatment by adopting advanced environmental protection technologies and equipment to enhance the resource utilization rate of industrial waste (wastewater, waste gas, and solid waste). Third, actively develop a circular economy by constructing a comprehensive industrial chain system encompassing “production, consumption, and regeneration,” thereby exploring new, sustainable models for the development of the fine chemical industry.
3. Deepen Openness and Cooperation to Integrate into the Global Innovation Network
Against the backdrop of a reshaping global trade landscape, China’s fine chemical enterprises urgently need to accelerate the pace of their global strategic expansion. This entails, for instance, establishing regionalized production networks—through overseas investment in plant construction or mergers and acquisitions—to position operations closer to target markets and mitigate trade barriers; advancing technological localization to adapt to the specific technical standards and regulatory requirements of diverse markets; and achieving market diversification by actively exploring emerging markets—such as those in countries along the “Belt and Road” initiative—while simultaneously consolidating their presence in traditional markets.
Looking ahead, technological innovation will serve as the core driving force for the development of the fine chemical industry; cutting-edge technologies, such as artificial intelligence, will become deeply integrated into operations, driving transformative changes in R&D models and production methods. A green and low-carbon approach will constitute the fundamental direction for industrial upgrading; within the context of achieving carbon neutrality, green technologies—such as biomaterials and the chemical recycling of waste plastics—are poised for rapid growth, propelling the industry’s transition toward a circular economy model. Furthermore, global cooperation will emerge as a crucial pathway for optimizing industrial value chains; despite facing challenges posed by trade protectionism, the inherently global nature of the fine chemical industry remains unchanged. In the future, the industry will continue to optimize resource allocation and deepen international collaboration within an increasingly diversified and open global landscape. In summary, my country’s fine chemical enterprises are set to play an increasingly pivotal role in the global market, evolving from technological followers into innovation leaders.
