市场调查报告书
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1511322
到 2030 年,航太用填料复合材料的全球市场预测:按填料类型、按芯材、按操作模式、按最终用户、按地区Aerospace Fillers Composite Market Forecasts to 2030 - Global Analysis By Filler Type (Graphite, Carbon, Silica and Other Filler Types), Core Materials (Honeycomb, Foam and Balsa), Mode of Operation, End User and By Geography |
根据 Stratistics MRC 的数据,全球航太填料复合材料市场在预测期内将以 7.3% 的复合年增长率成长。
航太用填料复合材料是将炭黑、碳酸钙等填料混合到基体(树脂)中的高科技材料。这些填料可提高机械性能、减轻重量并使材料在高温下更稳定。这些复合材料对于製造飞机和太空船的结构、内装和引擎零件至关重要。在航太复合材料中使用填料对于实现飞机和太空船的高性能、低油耗和耐用性至关重要。
根据美国国家生物技术资讯中心 (NCBI) 发表的一项研究,波音 787 和空中巴士 A380 等现代飞机的机身、机翼和尾翼组件中使用了超过 50% 重量的碳纤维增强环氧复合材料。做。
轻型飞机需求
对轻型和节能飞机的需求不断增长是航太填料复合材料市场的关键驱动因素。轻量材料有助于减轻飞机总重量,从而提高燃油效率并减少排放气体。这项需求是由满足严格的环境法规的需要以及对航空业永续性关注所推动的。因此,具有高强度重量比的航太级填料复合材料越来越多地用于製造各种飞机零件。
某些填料的高成本
一些航太填料(例如先进碳和奈米填料)的高成本限制了市场成长。虽然这些材料具有优异的性能,但它们的製造和整合到复合结构中的成本昂贵。高成本可能会限制采用,特别是小型製造商和成本敏感的应用程式。这种财务障碍可能会减缓航太业高性能填料的采用,并影响整体市场的扩张。
多功能填料的开发
多功能填料的开发为航太填料复合材料市场带来了重大机会。这些先进材料可以提供多种好处,包括改善机械性能、改善热稳定性以及增强对环境因素的抵抗力。透过将多种功能整合到单一填充材料中,製造商可以减少对额外零件的需求,从而降低成本并简化製造流程。这项创新可以加速航太填料复合材料在更多样化和要求更高的应用中的采用。
与替代轻量材料的竞争
航太填料复合材料市场面临来自替代轻量材料(例如先进金属和其他复合材料技术)的威胁。这些替代材料可以以具有竞争力的成本提供同等或更好的性能特征。这些材料的不断开发和改进对航太填料复合材料的市场占有率提出了挑战。
COVID-19的爆发对航太填料复合材料市场产生了重大影响,这主要是由于航空业的低迷。旅行限制和航空需求减少导致产量减少和计划延迟。然而,随着航空旅行的恢復和产业适应新的安全标准,市场正在逐渐復苏。此次疫情凸显了供应链和製造流程的弹性和灵活性的重要性。
预计碳酸钙业务在预测期内将是最大的业务
预计碳酸钙业务在预测期内将是最大的业务。这种增长归因于低成本、广泛可用性以及颗粒加工和尺寸方面的多功能性。碳酸钙填料可改善复合材料的刚度、尺寸稳定性和表面光滑度等性能。由于其高成本效益,它普遍用于各种航太应用,是市场需求的主要驱动力。
预计热塑性塑胶领域在预测期内复合年增长率最高
预计热塑性塑胶领域在预测期内复合年增长率最高。热塑性复合材料具有可回收性、易于加工、高抗衝击性等优点。这些材料可以再形成和改性,使其成为需要高耐用性和灵活性的应用的理想选择。航太业越来越关注永续和高效的製造工艺,推动了热塑性复合材料的采用,并促进了市场的快速成长。
亚太地区在航太填料复合材料市场处于主导地位。这项优势将由 COVID-19 后旅行和旅游业的復苏、跨境限制的放鬆和货运需求的增加所推动。新加坡等国家是主要的收益来源,并且正在大力投资航空基础设施和技术。该地区致力于振兴航空业并提高航空旅行效率,这是其占据最高市场占有率的一个因素。
在北美,航太用填料复合材料市场预计将快速成长。这一成长是由领先的航太製造商的强大影响力、持续的技术进步以及研发投资的增加所推动的。该地区专注于技术创新,采用先进复合材料製造轻质、节能的飞机,推动高复合年增长率。此外,严格的环境法规和永续航空解决方案的推广正在进一步推动北美市场的扩张。
According to Stratistics MRC, the Global Aerospace Fillers Composite Market is growing at a CAGR of 7.3% during the forecast period. Aerospace filler composites are high-tech materials made up of a matrix (resin) mixed with fillers like carbon black, calcium carbonate. These fillers improve the mechanical properties, lower the weight, and make the material more stable at high temperatures. These composites are vital for manufacturing structural, interior, and engine components in aircraft and spacecraft. The use of fillers in aerospace composites is crucial for achieving high performance, fuel efficiency, and durability in aircraft and spacecraft.
According to a study published in the National Center for Biotechnology Information (NCBI), modern aircraft such as the Boeing 787 and Airbus A380 utilize more than 50% by weight carbon fiber reinforced epoxy composites in their fuselage, wings, and empennage assemblies.
Demand for lightweight aircraft
The increasing demand for lightweight and fuel-efficient aircraft is a significant driver for the aerospace fillers composite market. Lightweight materials help reduce the overall weight of aircraft, leading to improved fuel efficiency and reduced emissions. This demand is driven by the need to meet stringent environmental regulations and the growing focus on sustainability in the aviation industry. As a result, aerospace fillers composites, which offer high strength-to-weight ratios, are increasingly being adopted in the manufacturing of various aircraft components.
High cost of some fillers
The high cost of certain aerospace fillers, such as advanced carbon and nanofillers, acts as a restraint on market growth. These materials, while offering superior performance characteristics, are expensive to produce and integrate into composite structures. The high costs can limit their adoption, particularly among smaller manufacturers or in cost-sensitive applications. This financial barrier can slow down the widespread implementation of high-performance fillers in the aerospace industry, affecting overall market expansion.
Development of multifunctional fillers
The development of multifunctional fillers presents a significant opportunity for the aerospace fillers composite market. These advanced materials can provide multiple benefits, such as enhanced mechanical properties, improved thermal stability, and increased resistance to environmental factors. By integrating multiple functionalities into a single filler material, manufacturers can reduce the need for additional components, leading to cost savings and simplified manufacturing processes. This innovation can drive the adoption of aerospace fillers composites in more diverse and demanding applications.
Competition from alternative lightweight materials
The aerospace fillers composite market faces threats from alternative lightweight materials, such as advanced metals and other composite technologies. These alternatives can offer similar or superior performance characteristics at competitive costs. The continuous development and improvement of these materials pose a challenge to the market share of aerospace fillers composites.
The Covid-19 pandemic significantly impacted the aerospace fillers composite market, primarily due to the downturn in the aviation industry. Travel restrictions and reduced air travel demand led to decreased production and delayed projects. However, the market is gradually recovering as air travel resumes and the industry adapts to new safety standards. The pandemic underscored the importance of resilience and flexibility in supply chains and manufacturing processes.
The calcium carbonate segment is expected to be the largest during the forecast period
The calcium carbonate segment is expected to be the largest during the forecast period. This growth is attributed to its low cost, wide availability, and versatility in particle treatments and sizes. Calcium carbonate fillers enhance properties such as stiffness, dimensional stability, and surface smoothness in composite materials. Their cost-effectiveness makes them a popular choice for various aerospace applications, driving significant demand in the market.
The thermoplastic segment is expected to have the highest CAGR during the forecast period
The thermoplastic segment is expected to have the highest CAGR during the forecast period. Thermoplastic composites offer advantages such as recyclability, ease of processing, and high impact resistance. These materials can be reshaped and reformed, making them ideal for applications requiring high durability and flexibility. The growing emphasis on sustainable and efficient manufacturing processes in the aerospace industry is driving the adoption of thermoplastic composites, contributing to their rapid market growth.
The Asia Pacific region is positioned to dominate the aerospace fillers composite market. This dominance is driven by the recovering travel and tourism sector post-COVID-19, relaxation of cross-border restrictions, and increasing freight demand. Countries like Singapore are major revenue generators, with significant investments in aviation infrastructure and technology. The region's focus on revitalizing the aviation industry and enhancing air travel efficiency contributes to its leading market share.
The North America region anticipates rapid growth in the aerospace fillers composite market. This growth is fueled by the strong presence of major aerospace manufacturers, ongoing technological advancements, and increasing investments in research and development. The region's focus on innovation and the adoption of advanced composite materials for lightweight and fuel-efficient aircraft drive the high CAGR. Additionally, stringent environmental regulations and the push for sustainable aviation solutions further boost market expansion in North America.
Key players in the market
Some of the key players in erospace Fillers Composite Market include Hexcel Corporation, Solvay, Toray Industries, Inc., Teijin Limited, Huntsman Corporation, SGL Carbon, Mitsubishi Chemical Corporation, Owens Corning, BASF SE, Gurit Holding AG, Axiom Materials, Inc., Park Aerospace Corp., Albany International Corp., Kaman Corporation, Plasan Carbon Composites, Materion Corporation, Cristex Composite Materials, Nippon Graphite Fiber Corporation, SABIC (Saudi Basic Industries Corporation) and Spirit AeroSystems.
In June 2024, Toray Industries Inc. has announced the successful development of recycled carbon fiber (rCF) derived from the production process of Boeing 787 components using Toray's Torayca advanced carbon fiber. The rCF, which is based on a pyrolysis recycling process, has been integrated into the Lenovo (Beijing, China) ThinkPad X1 Carbon Gen 12 PC laptop series as reinforcement filler for thermoplastic pellets. Toray and Lenovo will continue to collaborate to expand the use of rCF in other Lenovo products.
In November 2023, Toray Industries Inc. has announced that its French subsidiary, Toray Carbon Fibers Europe S.A., has obtained ISCC Plus certification for its Lacq and Abidos production plants in South West France. This certification enables Toray Carbon Fibers Europe to allocate and use biomass or recycled materials through the mass balance approach (see more on this below) to produce and supply carbon fiber.
In November 2023, Private Space Company Skyrora Ltd. and Spirit AeroSystems (Belfast, Northern Ireland) have announced collaboration on orbital launch capability. The partnership will enable Skyrora to transition its orbital launch vehicles from development to full-scale production using Spirit's highly adaptive manufacturing and testing solutions in metallics and composites, in addition to localizing its supply chain.