A Comprehensive Guide to Materials for Six Major Emerging Industries
The six major emerging pillar industries currently generating significant market buzz generally focus on end products such as semiconductors, aircraft, innovative pharmaceuticals, low-altitude flight equipment, energy storage facilities, and humanoid robots. However, looking at the patterns of industrial development, as various emerging sectors progress from technical prototypes to large-scale mass production—and from conceptual implementation to widespread commercial adoption—the core bottleneck has never been creative ideas or design blueprints, but rather foundational new materials.
The core barriers to the industrialization of high-end manufacturing center on five key dimensions: whether the comprehensive performance of materials can meet end-user demands; whether production processes have a stable implementation window; whether the upstream and downstream supply chains are independently controllable; whether production costs can be continuously reduced; and whether products can pass the rigorous certification requirements of downstream customers. This is also the core logic underpinning the long-term investment and industrial value of the new materials sector in the coming years.
Based on policy and industry data, China’s National Development and Reform Commission (NDRC) has clarified that the combined output value of six major emerging pillar industries—integrated circuits, aerospace, biopharmaceuticals, the low-altitude economy, new energy storage, and intelligent robotics—approached 6 trillion yuan in 2025 and is projected to exceed the 10 trillion yuan mark by 2030, indicating vast room for industrial expansion. At the same time, the “15th Five-Year Plan” outline specifically emphasizes accelerating the development of strategic emerging industries such as new materials, next-generation information technology, new energy, and high-end equipment, while continuing to consolidate global competitive advantages in fields such as rare earths, rare metals, and superhard materials.
This positioning has thoroughly clarified industry understanding: new materials are not merely ancillary or supporting sectors to the six pillar industries, but rather the foundational core variables that determine the pace of production capacity release, the upper limits of technological iteration, and global core competitiveness across each sector. When assessing development opportunities in these six emerging industries, one must not limit analysis to the popularity of end products or market concepts; rather, one must delve deeper into the material shortcomings and key bottlenecks in the industrialization process of each sector.
I. Integrated Circuits: The Invisible Materials Battleground That Determines Industry Yield and Production Volume
The integrated circuit industry is a prime example of a sector highly dependent on materials; every step of the entire chip manufacturing process relies on specialized material systems characterized by high purity, high consistency, and high stability. Market discourse has long focused on core equipment and technologies such as lithography systems, EDA software, and advanced processes. However, in the actual stages of wafer fabrication and mass production of packaging, material quality directly determines chip yield, product stability, and production costs, making it the industry’s hidden battleground.
Based on the division of industrial processes, key semiconductor materials are primarily categorized into three major groups, all of which have been included in the 2026 core list of tax incentives for integrated circuit enterprises, clearly indicating their status as policy-supported sectors:
First, core materials for wafer manufacturing. These encompass large-size silicon wafers (8 inches and larger), monocrystalline silicon, photoresists, masks, specialty electronic gases, wet electronic chemicals, sputtering targets, CMP slurries, and polishing pads—all of which form the foundation of the chip front-end process.
Second, materials specifically used for advanced packaging. As the computing power of AI chips continues to increase, the packaging stage has evolved from a traditional chip protection process into a critical step that determines the upper limit of chip performance. The strategic value of packaging materials—such as ABF substrates, epoxy encapsulants, underfill compounds, temporary bonding materials, glass substrates, low-dielectric-constant resins, and thermal interface materials—continues to rise.
Third, compound semiconductor materials. New materials such as silicon carbide, gallium nitride, indium phosphide, and gallium arsenide are suited for high-end applications including high-voltage platforms for new energy vehicles, RF communications, optical modules, lasers, satellite communications, and CPO, respectively, and serve as the core support for the evolution of the third-generation semiconductor industry.
The core competitive logic in the semiconductor materials industry lies not simply in achieving domestic substitution or completing in-house product development, but rather in whether domestic products can be stably integrated into the mass production lines of leading companies over the long term. This sector is characterized by long validation cycles, high customer switching costs, and extremely strong supply chain stickiness. Companies that can pass end-user certification, achieve volume supply, and continuously optimize mass production yield will long enjoy the core benefits of this market segment.
II. Aerospace: Using Materials as the Cornerstone to Build a Solid Foundation for the Reliability of High-End Equipment
The core requirements of the aerospace industry for materials can be summarized into four key criteria: lightweight, high strength, high-temperature resistance, and high reliability. Furthermore, all materials must undergo testing and validation over extremely long periods under highly rigorous conditions, making the industry a “testing ground” for high-end materials. In the traditional aerospace sector, high-temperature alloys, titanium alloys, aluminum-lithium alloys, carbon fiber composites, ceramic matrix composites, and ablation-resistant materials have long been core categories with consistent demand. Meanwhile, the rapid development of commercial spaceflight and reusable spacecraft has further raised the performance bar for materials.
Core components such as hot-end parts for aircraft engines, rocket body structures, thermal protection systems for spacecraft, and propellant tanks all rely on high-end specialty materials to achieve performance breakthroughs. Currently, the key opportunities in this sector are concentrated in four major areas:
First, powdered high-temperature alloys and high-end high-temperature alloys. Primarily used in core components such as aircraft engine turbine blades, discs, and combustion chambers, these materials must possess exceptional high-temperature resistance, creep resistance, and fatigue resistance. With extremely high technical barriers, they represent the core bottleneck materials for aerospace power systems.
Second are high-end carbon fiber composites. Thanks to their ultra-high specific strength, they are widely used in aircraft fuselages, satellite structures, unmanned aerial vehicles (UAVs), and rocket casings. Through material lightweighting and structural optimization, they can effectively enhance equipment endurance, payload capacity, and maneuverability, serving as the core support for lightweighting in the aerospace sector.
Third are ceramic matrix composites. Suited for extreme high-temperature operating conditions, they can replace traditional metallic materials in the hot-end structures of aircraft engines and gas turbines, representing a key material direction for the future upgrade of high-end aerospace equipment.
Fourth are ablation-resistant and thermal protection materials. Precisely tailored to meet the extreme operating conditions of reusable rockets, hypersonic aircraft, and space re-entry vehicles, they are a critical safeguard for the industrialization of the commercial space sector and the evolution of high-end aircraft.
Unlike the rapid iteration logic of consumer electronics, competition in aerospace materials centers on long-term certification qualifications, batch-to-batch performance consistency, compatibility with equipment systems, and reliability under extreme operating conditions. Once a material is incorporated into a finalized military or aerospace model, it generates long-term, stable, and inelastic demand. While the sector may appear to evolve slowly, it actually possesses extremely high technical and customer barriers to entry.
III. Biopharmaceuticals: Materials Evolving from Supporting Components to Core Therapeutic Platforms
Public perception of the biopharmaceutical industry is often limited to end products such as innovative drugs, vaccines, in vitro diagnostics, and medical devices. However, materials innovation has long been a core driver of industry growth, and biomaterials are evolving from simple supporting components for medical devices into core platforms for disease treatment, tissue repair, and health and wellness. Current key market segments can be divided into four major categories:
First, biomedical polymer materials. These include PEEK, polylactic acid, polycaprolactone, medical-grade polyurethane, hydrogels, and medical-grade silicone rubber. Widely used in implantable medical devices, interventional catheters, tissue engineering scaffolds, biodegradable medical consumables, and drug-eluting systems, they represent the most extensively used category of medical materials in clinical applications.
Second are medical metal implant materials. Titanium alloys, cobalt-chromium alloys, and medical-grade stainless steel are the mainstream materials for orthopedic and dental implants, while biodegradable magnesium alloys have become a hot topic in industry R&D due to their unique advantages of “temporary support, self-degradation, and no need for secondary surgery.” Currently, the industry’s key research priorities are precisely controlling the degradation rate, maintaining mechanical stability, and completing clinical compliance validation.
Third are bioactive repair materials. Hydroxyapatite, bioglass, collagen, chitosan, and extracellular matrix materials have overcome the limitations of traditional materials—which merely “passively adapt to the human body”—and can actively participate in human tissue repair, regeneration, and metabolism. They serve as core foundational materials for regenerative medicine and precision medicine.
Fourth are high-end diagnostic and medical consumable materials. Membrane materials, chromatographic packing, functional microspheres, immunomagnetic beads, nucleic acid extraction substrates, functional medical coatings, and microfluidic chip materials serve as the core support for high-end in vitro diagnostics, precision testing, and biological experiments.
In 2026, the National Health Commission of China issued relevant guidelines clearly stating that, while upholding safety standards, it would vigorously support the clinical translation of innovative and personalized biomedical technologies. This signifies that competition in the biopharmaceutical industry has evolved from a focus on new drug R&D alone to a comprehensive, all-encompassing competition spanning materials, medical devices, diagnostics, and clinical translation. The core barriers to entry for biomedical materials lie not merely in performance parameters, but in biocompatibility, sterilization stability, long-term implant safety, the accumulation of clinical data, and compliance certification systems—all of which are also key to companies building their core competitiveness.
IV: Low-Altitude Economy: Beyond the Hype, Lightweight and Safe Materials Take the Lead in Commercialization
The low-altitude economy is one of the hottest emerging sectors in recent years, covering diverse applications such as civilian drones, eVTOL passenger aircraft, low-altitude logistics and delivery, aerial inspections, emergency rescue, agricultural and forestry pest control, and urban air mobility. Industry data shows that China’s low-altitude economy market reached 505.95 billion yuan in 2023 and is projected to exceed one trillion yuan by 2026, reflecting rapid industry expansion.
However, the core of the low-altitude economy’s industrialization lies not in single-flight demonstrations, but in achieving safe, stable, and low-cost routine operations. This has made four major categories of materials the first to be implemented and the most critical, essential categories in the sector:
First, lightweight carbon fiber composites. Low-altitude aircraft are highly sensitive to overall weight reduction; the fuselage, arms, rotors, and core structural components all require materials with high specific strength. Carbon fiber composites can significantly reduce the aircraft’s empty weight, directly increasing flight range and payload capacity, making them the foundational materials for the industrialization of low-altitude equipment.
Second, high-energy-density battery materials. The core bottlenecks affecting an aircraft’s endurance, payload capacity, and operational safety lie in the battery system. High-nickel cathodes, silicon-carbon anodes, solid-state battery substrates, flame-retardant electrolytes, and thermal management materials are key to overcoming the limited endurance of low-altitude aircraft and ensuring flight safety.
Third, flame-retardant, thermal insulation, and thermal protection materials. As the low-altitude economy evolves toward manned flight and urban airspace operations, the demand for battery thermal runaway prevention and control, flame-retardant aircraft structures, and high-temperature thermal insulation has increased significantly. Aerogels, flame-retardant composites, ceramicized silicone rubber, and high-temperature-resistant insulating materials will see opportunities for large-scale validation and commercial deployment.
Fourth, materials for low-altitude sensing and communications. Routine low-altitude flight relies on the support of airspace management, navigation and obstacle avoidance, and real-time communication systems. Optical functional materials, radar substrates, low-dielectric-constant communication materials, antenna materials, and electronic packaging materials will benefit in tandem as the market expands.
Furthermore, in 2026, multiple government departments jointly issued a document to advance the development of a low-altitude insurance system, specifying that a comprehensive policy and risk protection framework for the low-altitude economy will be established by 2030. This marks the industry’s transition from the technology demonstration phase to a new stage characterized by safe operations, commercial implementation, and standardization. Therefore, the core opportunity for materials in the low-altitude economy lies not in aircraft manufacturing itself, but in high-quality materials companies capable of addressing requirements for lightweight design, safety, long service life, regulatory compliance, and mass production.
V. New Energy Storage: Shifting from Competition in Cell Performance to System-Level Material Competition
New energy storage serves as a core pillar for energy structure transformation and the development of new power systems. According to data from the National Energy Administration of China, as of the first quarter of 2026, China’s installed capacity for new energy storage had exceeded 140 million kilowatts. The industry has completely moved beyond the demonstration and pilot phase and entered a cycle of full-scale, commercial implementation, leading to an evolution in the competitive dynamics surrounding energy storage materials.
In the early stages of the industry’s development, the market focused on increasing the energy density of core cell materials, with particular attention on foundational categories such as lithium iron phosphate, ternary cathodes, graphite anodes, electrolytes, and separators. However, following the large-scale deployment of energy storage power stations, the industry’s core challenges have shifted from individual cell performance to systemic issues such as system safety, cycle life, total cost, and recycling. Consequently, the dimensions of material competition have undergone a comprehensive upgrade:
First, cathode and anode materials remain the core foundation of energy storage cells. Lithium iron phosphate (LFP) continues to dominate the energy storage market due to its core advantages of high safety, long lifespan, and low cost; sodium-ion batteries, with their resource advantages, low cost, and long cycle life, offer broad potential for substitution in scenarios such as low-rate energy storage and large-scale backup energy storage.
Second, electrolytes, separators, and functional additives determine the system’s safety limits. Energy storage applications are extremely sensitive to battery cycling stability, thermal safety, and cost; flame-retardant electrolytes, high-temperature-resistant separators, and highly stable film-forming additives are key to ensuring the long-term safe operation of energy storage power plants.
Furthermore, thermal management and fire-retardant materials have become core growth drivers. The primary risk in large-scale energy storage plants is the propagation of thermal runaway; system-level materials—such as thermal insulation for enclosures, fire-retardant and fire-resistant materials, gas detection systems, and thermal conductivity control—have emerged as essential growth segments as the industry expands.
Finally, long-duration energy storage is opening up new possibilities for material systems. Long-duration energy storage technologies—such as flow batteries, compressed air energy storage, gravitational energy storage, hydrogen energy storage, and sodium-sulfur batteries—are driving demand growth in specific subcategories, including ion-exchange membranes, specialized electrolytes, hydrogen storage materials, corrosion-resistant substrates, and sealing materials.
The core competitiveness of energy storage materials today no longer lies solely in the pursuit of breakthroughs in energy density, but rather in achieving an optimal balance among safety performance, cycle life, construction costs, and operational and maintenance complexity. Future competition in this sector will shift entirely from the iteration of materials within individual cells to a comprehensive comparison of materials across the entire energy storage system supply chain.
VI. Intelligent Robots: Materials Are the Key Hurdle for Moving from Prototypes to Mass Production
The intelligent robotics industry, represented by humanoid robots, is rapidly transitioning from laboratory prototype demonstrations to the critical stage of small-batch delivery and large-scale mass production. Industry data shows that domestic shipments of humanoid robots in China will reach 18,000 units in 2025, with shipments expected to climb to 62,500 units in 2026. Industry organizations predict that annual production may exceed 100,000 to 200,000 units, with the pace of industrial implementation surpassing market expectations.
The market generally focuses competition in the robotics industry on core hardware such as AI algorithms, control systems, and servo motors. However, from the perspective of industrial implementation, the materials system is the key bottleneck determining whether robots can be mass-produced and commercially deployed. Five major materials categories are crucial:
First, lightweight structural materials. The key to a robot’s autonomous operation and sustained performance lies in reducing its own weight. High-performance engineering plastics—such as aluminum alloys, magnesium alloys, carbon fiber composites, PEEK, PPS, and PAEK—are the core materials for lightweight robot chassis structures.
Second are specialized materials for joint transmission systems. Core motion components—such as reducers, precision bearings, transmission gears, lead screws, and harmonic drives—impose stringent requirements for wear resistance, fatigue resistance, dimensional stability, and lubrication performance. High-strength alloys, powder metallurgy materials, solid lubricants, and functional coating materials are key to ensuring precise operation, low noise, and a long service life for robots.
Third are materials for flexible sensing and electronic skin. Flexible materials such as conductive rubber, flexible electrodes, ionic gels, piezoresistive materials, and dielectric elastomers enable robots to transcend the limitations of “mechanical motion,” endowing them with tactile perception, pressure recognition, and environmental adaptation capabilities—serving as the core foundation for intelligent upgrades.
Fourth are battery and thermal management materials. Balancing battery life, fast-charging performance, operational safety, and lightweight design requirements, highly adaptable battery materials, flame-retardant and heat-insulating materials, and highly efficient thermal conduction and dissipation materials directly determine the commercial user experience and operational stability of robots.
Fifth are biomimetic exterior coatings and functional materials. As robots gradually enter civilian applications such as households, healthcare, and companionship, exterior coating materials with antibacterial, stain-resistant, anti-aging, flame-retardant, and biomimetic tactile properties will become key differentiators for enhancing product competitiveness and adapting to civilian scenarios.
The robotics materials sector is often underestimated by the market. The core reason is that the industry initially focused on core hardware and algorithm iterations. However, once mass production begins, material performance will directly determine product cost, weight, service life, operating noise, safety factors, and user experience—serving as the fundamental foundation for industrial implementation.
VII. Core Industrial Trends: Six Major Sectors Share Three Key Material Competitive Barriers
Looking at the material demands across the six major emerging pillar industries, while each sector may appear independent, they actually converge on three common core themes—which also represent the core competitive dimensions of the future new materials industry:
First, the capability to develop materials with extreme performance. Each high-end sector has a critical need for materials with exceptional performance: the semiconductor industry requires ultra-high-purity, low-defect, low-dielectric, and high-thermal-conductivity materials; aerospace requires high-strength, high-temperature-resistant, and ablation-resistant materials; the biopharmaceutical sector requires highly biocompatible, biodegradable materials; the low-altitude economy requires lightweight, high-strength composite materials; energy storage requires highly safe, long-life storage materials; and intelligent robotics requires lightweight, wear-resistant, and flexible functional materials. Extreme performance represents the fundamental threshold for high-end manufacturing.
Second, the ability to achieve stable, engineering-level implementation. Currently, in China’s domestic new materials sector, breakthroughs in laboratory samples and technical validation through academic papers can be achieved for most categories; however, very few companies are capable of mass production with batch consistency, process stability, and long-term reliability. The core logic of industrial profitability has never been about being the first to produce a sample, but rather about being the first to achieve large-scale mass production with stable supply, controllable yield rates, and controllable costs.
Third, the ability to maintain autonomy and control over the supply chain. The 15th Five-Year Plan places particular emphasis on strengthening competitive basic categories such as rare earths, rare metals, and superhard materials. Although these basic raw materials rarely attract significant market attention, they serve as the foundational resource guarantee for the entire high-end manufacturing industry chain. Future competition in the materials industry will no longer be a contest of individual product performance, but rather a competition in full-supply-chain capabilities encompassing resource reserves, purification and processing, precision manufacturing, recycling, and risk hedging.
VIII: Core Criteria for Assessing the Commercialization and Investment Potential of New Materials Companies
Taking into account the commercialization needs of the six pillar industries, the true value of the new materials sector and the growth potential of companies can be accurately assessed through five core dimensions:
First, whether the material constitutes a performance bottleneck for downstream industries. If the material merely serves as a supplementary upgrade or a nice-to-have addition, its industrial value is limited; if the material directly determines core metrics of the end product—such as yield rate, battery life, heat dissipation, safety, and lifespan—it falls into the category of essential bottleneck materials and possesses long-term, high-value growth potential.
Second, has the material entered the stage of substantive validation by downstream customers? Materials that have not passed customer certification remain confined to the conceptual and prototype stages; only upon entering the stages of end-user validation and small-batch testing does a company truly embark on the path to industrialization.
Third, does the material demonstrate stability in mass production? The core challenge in new materials R&D lies not in a single breakthrough in peak performance, but in maintaining stable performance metrics, stable processes, and consistent quality across hundreds or even thousands of batches—this is the key barrier to a company’s scalable profitability.
Fourth, whether there is room for sustained cost reduction. Most high-end new materials are constrained by cost and can only be applied to niche, high-end scenarios; only categories capable of achieving cost reductions through scale and process optimization can break into the general market and achieve explosive industry growth.
Fifth, does it align with the logic of domestic substitution and supply chain security? In core sectors such as integrated circuits, aerospace, biopharmaceuticals, and high-end equipment, supply chain autonomy and control are central to national strategy. Materials companies capable of domestic substitution will continue to benefit from policy and industry incentives.
In the future, the new materials industry will continue to see a surge of trending concepts, but the companies that truly possess long-term value are the hard-core manufacturing enterprises capable of weathering market hype, implementing production lines at the end-user level, securing stable orders, and generating sustainable cash flow.
IX. Conclusion: The Ultimate Competition in High-End Manufacturing Is a Competition Among Materials Systems
The six major emerging pillar industries span diverse sectors and follow different technological paths, but the underlying logic of industrial upgrading is highly consistent: as high-end manufacturing advances toward higher-end, larger-scale, and more global operations, its core reliance will always be on new materials systems. High-purity electronic materials support improved chip yield; high-temperature alloys and composite materials enable high-end aerospace equipment; biomedical materials empower the industrialization of precision medicine; lightweight, safe materials ensure the routine operation of the low-altitude economy; long-life, safe materials support the large-scale deployment of new energy storage solutions; and multifunctional specialty materials unlock the commercial future of humanoid robots.
The core value of new materials has never been limited to technological breakthroughs in the laboratory or superior sample performance; rather, it lies in bridging the industrial gap between “research and development” and “prototyping” to “mass production” and “commercialization,” and in overcoming six core challenges: performance adaptation, batch consistency, process controllability, supply chain security, cost optimization, and regulatory compliance.
The core bottlenecks facing various industries today are no longer isolated technological gaps, but rather a lack of engineering-oriented and systematic materials capabilities. The foundation of these six emerging pillar industries is not a single piece of equipment, algorithm, or technology, but rather a complete, stable, and controllable new materials industrial system. Future industrial competition will hinge on comprehensive strength in materials systems, process expertise, and supply chain stability.
To truly understand these six emerging industries, there is no need to chase the hype surrounding end-product concepts; instead, one should focus on the key materials that address mass production bottlenecks, yield rate constraints, and cost challenges. Companies capable of producing new materials that are stable, reliable, and affordable will ultimately secure the core entry ticket to the high-end manufacturing industry.
