2025-02-24
With the release of multiple policy documents by the Ministry of Industry and Information Technology and other departments to promote the development of the new materials industry, the field of polymer materials in 2024 and beyond has ushered in unprecedented development opportunities. Driven by these policy documents, the polymer materials industry is undergoing a profound transformation, not only continuing to innovate in traditional application areas, but also demonstrating enormous potential in emerging fields.
The issuance of the "Guidelines for the Construction of Pilot Platforms for New Materials (2024-2027)" marks the acceleration of the construction of local pilot platforms, providing a solid foundation for the research and application of new materials. At the same time, the launch of the "Guiding Catalogue for the First Batch of Secondary Application Demonstrations of Key New Materials (2024 Edition)" provides a clear demonstration direction for the first market application of new materials, which is expected to promote their faster industrialization.
Graphene, a special material composed of a single layer of carbon atoms, stands out for its excellent conductivity. Its conductivity is as high as 10 ^ 6 s/m, 15 times that of copper, making it the material with the lowest electrical resistivity on Earth. In addition, studies have shown that its conductivity can reach 152 s/cm. The potential application of graphene in polymer materials is particularly remarkable. As a high-performance additive, graphene can significantly enhance the conductivity and wear resistance of polymer materials. By adding graphene, the conductivity of the material can be significantly improved, making it exhibit excellent performance in fields such as electronic devices and batteries. At the same time, its high-strength characteristics can effectively enhance the mechanical properties of polymer structural materials, meeting the demands of fields with strict strength requirements such as aerospace and automotive manufacturing.
In recent years, the Chinese graphene industry market has continued to expand and is expected to exceed 44.1 billion yuan by 2024, demonstrating the broad application prospects of graphene and the attractiveness of its derivative material systems. The application of graphene in polymer materials not only improves the performance of materials, but also promotes the innovative development of related industries.
Carbon fiber, a material as light as feathers and as strong as steel, plays a crucial role in the fields of automotive manufacturing and aerospace. Its low density and high strength characteristics strengthen the manufacturing of automotive body frames and components, improving overall strength, reducing weight, and enhancing fuel efficiency. In the aerospace field, carbon fiber has become an ideal choice for manufacturing aircraft structural components, which can effectively reduce aircraft weight, lower energy consumption, and improve flight performance.
The demand for carbon fiber industry in China has steadily increased at an average annual growth rate of over 13%. In 2020, the demand reached 890000 tons, fully demonstrating the indispensable position and huge market potential of carbon fiber in related industries in China. With the rapid development of technology and the continuous expansion of application fields, the application of carbon fiber in industries such as aerospace and automotive manufacturing will become more extensive and in-depth, playing a crucial role in promoting the development of these industries.
Intelligent biomimetic materials have also attracted much attention in the field of polymer materials. This type of material is inspired by the biological structure of nature and exhibits amazing responsiveness, such as sensing environmental changes, self-healing, and self-cleaning. Among them, the polymer hydrogel material is a typical representative. Its structural design mimics the extracellular matrix in biological tissues, and can sense and respond to environmental humidity changes. At the same time, some polymer materials containing special chemical bonds or microstructures also have self-healing capabilities, which can automatically restore integrity and performance after damage.
The development of these intelligent biomimetic materials will bring more innovation and possibilities to the field of materials science. For example, in the medical field, biodegradable materials such as sutures can gradually degrade during the wound healing process, reducing patients' pain and infection risk. At the same time, they can also serve as cell scaffolds, providing support for cell growth and tissue repair, and will not remain in the body.
Nanomaterials have also shown great potential for application in the field of polymer materials. By manipulating matter at the nanoscale, these materials exhibit unique properties and are expected to play important roles in multiple fields such as healthcare, energy, and electronics. Taking polymer nanocomposites as an example, their application in the field of batteries significantly improves the energy density and charge discharge efficiency of batteries, thereby optimizing the overall performance of batteries. Meanwhile, in the field of solar cells, certain nanomaterials can enhance the absorption and conversion efficiency of light, thereby improving the power generation efficiency of solar cells.
In the field of electronics, polymer materials at the nanoscale make it possible to manufacture smaller and higher performance electronic components. For example, the development of nanotransistors has propelled electronic products towards higher integration and faster operating speeds. Meanwhile, these materials can also be used to manufacture flexible electronic devices, meeting the urgent demand for portability and flexibility of electronic devices.
Looking ahead, the field of polymer materials will continue to advance through innovation. With the advancement of technology and the continuous expansion of application fields, polymer materials will demonstrate their unique advantages and potential in more fields. Meanwhile, policy support and market promotion will also provide more opportunities and challenges for the development of polymer materials.
Under the guidance of policies, the polymer materials industry will accelerate the pace of technological innovation and industrial upgrading. By strengthening industry university research cooperation and promoting the transformation of scientific and technological achievements, the performance and application level of polymer materials are continuously improved. At the same time, enterprises will also increase research and development investment and market development efforts to promote the application and promotion of polymer materials in more fields.
In short, the field of polymer materials is experiencing unprecedented opportunities and challenges for development. With the support of policies and the promotion of the market, the polymer materials industry will continue to maintain a rapid development momentum and make greater contributions to promoting China's economic and social development.