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R&D of high-performance chemical raw materials speeds up, helping emerging industries break through bottlenecks

Release time:

2025-07-09

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Emerging industries are demanding chemical raw materials with extraordinary properties—materials that can withstand extreme temperatures, conduct electricity efficiently, or resist corrosion in harsh environments. To meet these needs, researchers and manufacturers are intensifying efforts to develop high-performance chemical raw materials, leveraging advances in materials science, nanotechnology, and molecular engineering. These innovations are not only expanding the application scope of chemicals but also enabling technological leaps in sectors that are vital to a sustainable and digital future.

The renewable energy and aerospace industries require materials that can operate reliably at temperatures exceeding 300°C. Traditional polymers degrade under such conditions, but new high-temperature resistant polymers—synthesized with aromatic rings and cross-linked molecular structures—are overcoming this limitation.

For example, a new class of polyimides can maintain mechanical strength at 350°C, making them ideal for components in solar thermal power plants, where heat exchangers operate at extreme temperatures. These polymers are also lightweight, reducing the energy consumption of aerospace equipment when used in engine parts or insulation.

In addition, these materials exhibit excellent chemical resistance, withstanding exposure to fuels, lubricants, and oxidizing agents. This makes them suitable for use in hydrogen fuel cells, where they prevent corrosion of critical components, extending the lifespan of the cells from 5,000 to over 10,000 operating hours.

Conductive polymers are revolutionizing the electronics industry by combining the conductivity of metals with the flexibility of plastics. These materials, doped with ions or nanoparticles to enhance electrical performance, are enabling the production of flexible displays, wearable sensors, and foldable batteries.

One breakthrough is a conductive polymer composite that can stretch up to 300% of its original length while maintaining conductivity. This makes it ideal for use in flexible touchscreens and health monitoring devices that conform to the body. Unlike traditional metal conductors, which are rigid and prone to cracking, these polymers are durable and lightweight, reducing the weight of electronic devices by up to 40%.

In addition, conductive polymers can be printed using inkjet technology, allowing for low-cost, large-scale production of electronic circuits. This is transforming manufacturing processes in the electronics industry, enabling the creation of custom, complex circuits that were previously difficult or expensive to produce.

Infrastructure in marine, oil, and gas industries is constantly exposed to corrosive environments, leading to frequent maintenance and safety risks. New corrosion-resistant chemical coatings, formulated with advanced polymers and ceramic nanoparticles, are providing long-lasting protection, extending the lifespan of critical assets.

These coatings form a dense, impermeable barrier that prevents water, salt, and chemicals from reaching metal surfaces. For example, a nanocomposite coating containing graphene oxide can protect offshore wind turbine foundations from saltwater corrosion, reducing maintenance intervals from 2 years to 10 years. This not only lowers operational costs but also minimizes the environmental impact of maintenance activities, such as underwater painting.

In addition, these coatings are designed to be flexible, allowing them to expand and contract with metal structures as temperatures change, preventing cracking. They can also be applied at lower temperatures than traditional coatings, reducing energy use during application.The transportation industry—particularly electric vehicles (EVs) and aviation—is seeking lightweight materials to improve energy efficiency. High-performance composite materials, made by combining polymer resins with carbon fibers or glass fibers, are emerging as ideal solutions, offering strength comparable to metal at half the weight.

In EVs, these composites are used in battery casings, body panels, and structural components, reducing vehicle weight by 20-30% and extending driving range by up to 15%. For example, a composite battery casing not only reduces weight but also provides better thermal insulation, improving battery safety and performance in extreme temperatures.

In aviation, lightweight composites are reducing fuel consumption and emissions. A commercial aircraft using composite materials in its wings and fuselage can achieve 15-20% fuel savings compared to traditional aluminum designs. These materials also resist fatigue, reducing the need for structural repairs and extending the aircraft's service life.

The development of these composites relies on advanced chemical raw materials, such as high-purity epoxy resins and carbon fiber precursors, which are engineered for optimal strength and adhesion. Ongoing research is focused on reducing production costs and improving recyclability, addressing current barriers to widespread adoption.

As high-performance chemical raw materials continue to evolve, they are playing a pivotal role in enabling the technologies of tomorrow. From making renewable energy systems more efficient to powering the next generation of electronics, these materials are not just supporting industrial growth—they are reshaping the future of manufacturing and sustainability.

The rise of the circular economy model, the chemical raw materials industry to explore new paths of sustainable development

Advanced Manufacturing Technologies Reshape Chemical Raw Materials Production to Improve Efficiency and Product Quality

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