市场调查报告书
商品编码
1530870
2030 年压电材料市场预测:按材料、应用、最终用户和地区进行的全球分析Piezoelectric Materials Market Forecasts to 2030 - Global Analysis By Material, Application, End User and By Geography |
根据Stratistics MRC的数据,2024年全球压电材料市场规模为15.5亿美元,预计2030年将达到23.1亿美元,预测期内复合年增长率为6.9%。
压电材料是一类具有响应机械应力产生电荷的独特特性的材料,反之亦然。这种现象称为压电效应,是由材料结晶结构内的内部极化所引起的。当对压电材料施加机械压力时,材料内会发生正电荷和负电荷的位移,从而在整个表面产生电位。
印度品牌股权基金会2021年1月发布的报告显示,印度航太业日益增长,预计2030年将达到700亿美元。
新兴国家快速工业化与都市化
新兴国家的快速工业化和都市化正在推动压电材料的重大进步。这些材料会因机械应力而产生电荷,由于其独特的性能,越来越多地应用于各种技术中。在工业环境中,压电材料对于监测结构完整性、机器性能和环境条件的感测器至关重要。其将机械能转化为电信号的能力使其对于城市环境中的能源采集应用很有价值,其中交通和人流产生的振动可以转化为可用电力。
频率和电压范围有限
虽然压电材料在将机械能转换为电讯号方面用途广泛,反之亦然,但它们的运作频率和电压范围受到限制。这些材料具有结晶结构,其中偶极子在变形时会排列,因此它们会响应机械应力或振动而产生电荷。这是因为,超过一定限度,材料就无法足够快速或有效地响应机械振动。电压限制的出现是因为过度的电场会使材料去极化,降低压电性能,甚至造成永久性损坏。
基础建设发展投资
投资以压电材料为重点的基础设施开发意味着对资源进行策略性配置,以加强这些材料在各个领域的能力和应用。透过投资压电材料的基础设施开发,政府和私人组织旨在促进创新并扩大这些材料的实际应用。这包括提高效率、耐用性和扩充性,以满足医疗保健、汽车、航太和可再生能源等行业不断增长的需求。此外,此类投资通常会推动研发倡议,从而在材料科学、製造流程和产品整合方面取得突破。
复杂的製造工艺
由于复杂的製造工艺,压电材料的进步面临重大挑战。这些材料对于将机械能转化为电能非常重要,反之亦然,需要复杂的工程来实现所需的性能,例如提高灵敏度和提高耐用性。复杂性源自于製造过程中需要精确控制结晶结构、成分和微观结构。这包括高温製程、精确的沉淀技术和严格的品管措施,增加了製造的难度和成本。
COVID-19大流行对压电材料领域产生了重大影响。製造和供应链的中断最初给依赖稳定取得材料和设备的研究人员和製造商带来了困难。许多製造工厂面临暂时关闭或营运能力下降,导致履行订单和满足需求的延迟。现场研发活动也受到影响,研究机构和大学面临设施和资源取得机会减少等挑战。这场流行病刺激了压电材料的创新,特别是在与医疗保健和诊断相关的应用领域。
聚合物细分市场预计将在预测期内成为最大的细分市场
聚合物产业预计将成为预测期内最大的产业。聚合物以其灵活性、重量轻和易于加工而闻名,在压电应用中具有显着的优势。透过将聚合物与压电陶瓷混合或设计具有促进压电的结晶结构的聚合物,研究人员可以有效地将机械能转换为电讯号,反之亦然。这种协同效应扩大了压电材料的范围,超越了传统陶瓷,使其能够在软性电子产品、生物医学设备和能源采集系统中得到应用。
预计共振器领域在预测期内复合年增长率最高。
预计共振器领域在预测期内的复合年增长率最高,因为它能够将机械振动转换为电能,反之亦然。这些材料(如石英和某些陶瓷)具有固有的压电特性,并在受到机械应力或变形时产生电荷。共振器设计用于在特定频率下谐振,有效放大这些材料内的压电效应。在电子设备和感测器等实际应用中,共振器经过微调,可在与所需讯号或功能相对应的频率下谐振。
在预测期内,亚太地区占据最大的市场份额。压电材料在全部区域的电子设备中的致动器、感测器和换能器等各种应用中都非常重要。中国、日本、韩国和印度等国家家用电子电器产业的扩张是推动这一成长的主要因素。这些材料因其将机械能转换为电能的能力而受到重视,反之亦然,在全部区域小型化和效率至关重要的现代电子设备中已变得不可或缺。智慧型手机、穿戴式装置和车载电子产品的兴起进一步推动了对压电元件的需求,推动了全部区域的创新和研发投资。
预计欧洲地区在预测期内将呈现良好的成长动能。政府法规主要关注永续性、能源效率和创新,推动压电材料的研究和开发,以实现该地区更环保的解决方案。透过实施鼓励使用对环境影响小、能源效率高的材料的标准,政府将鼓励公司和研究人员在全部区域的各种应用中探索和使用压电材料。
According to Stratistics MRC, the Global Piezoelectric Materials Market is accounted for $1.55 billion in 2024 and is expected to reach $2.31 billion by 2030 growing at a CAGR of 6.9% during the forecast period. Piezoelectric materials are a class of materials that exhibit a unique property: they generate an electric charge in response to applied mechanical stress or vice versa. This phenomenon, known as the piezoelectric effect, arises due to the internal polarization within the material's crystal structure. When mechanical pressure is applied to a piezoelectric material, it causes a displacement of positive and negative charges within the material, resulting in an electric potential across its surfaces.
According to a report published by India Brand Equity Foundation in January 2021, the aerospace sector in India is growing day by day and is projected to reach US$ 70 billion by 2030.
Rapid industrialization and urbanization in emerging economies
Rapid industrialization and urbanization in emerging economies are fostering significant advancements in piezoelectric materials. These materials, which generate an electric charge in response to mechanical stress, are increasingly utilized in various technologies due to their unique properties. In industrial settings, piezoelectric materials are integral to sensors that monitor structural integrity, machinery performance, and environmental conditions. Their ability to convert mechanical energy into electrical signals makes them invaluable for energy harvesting applications in urban environments, where vibrations from traffic or footfall can be converted into usable electricity.
Limited frequency and voltage range
Piezoelectric materials, while versatile in converting mechanical energy into electrical signals and vice versa, face limitations in their operating frequency and voltage ranges. These materials generate electric charges in response to mechanical stress or vibrations due to their crystalline structure, which aligns dipoles when deformed. However, their application is restricted by frequency constraints-beyond certain limits, the material cannot respond quickly or efficiently enough to mechanical oscillations. Voltage limitations arise because excessive electric fields can depolarize the material, reducing its piezoelectric performance or even damaging it permanently.
Investment in infrastructure development
Investment in infrastructure development focused on piezoelectric materials denotes a strategic allocation of resources towards enhancing the capabilities and applications of these materials within various sectors. By investing in infrastructure development for piezoelectric materials, governments and private entities aim to foster innovation and expand the practical applications of these materials. This includes improving their efficiency, durability, and scalability to meet growing demands across industries like healthcare, automotive, aerospace, and renewable energy. Furthermore, such investments often drive research and development initiatives, leading to breakthroughs in material science, manufacturing processes and product integration.
Complex manufacturing processes
The advancement of Piezoelectric Materials faces significant challenges due to complex manufacturing processes. These materials, crucial for converting mechanical energy into electrical energy and vice versa, require intricate fabrication techniques to achieve desired properties like enhanced sensitivity and durability. The complexity arises from the need to precisely control the crystal structure, composition, and microstructure during manufacturing. This involves high-temperature processes, precise deposition techniques, and stringent quality control measures, adding layers of difficulty and cost to production.
The COVID-19 pandemic significantly impacted the field of piezoelectric materials. The global disruptions in manufacturing and supply chains initially posed difficulties for researchers and manufacturers reliant on consistent access to materials and equipment. Many manufacturing facilities faced temporary closures or reduced operational capacities, leading to delays in fulfilling orders and meeting demand. Research and development efforts in the field were also affected, with laboratories and universities facing challenges such as reduced access to facilities and resources. The pandemic spurred innovation in piezoelectric materials, particularly in applications related to healthcare and diagnostics.
The Polymers segment is expected to be the largest during the forecast period
Polymers segment is expected to be the largest during the forecast period. Polymers, known for their flexibility, lightweight nature, and ease of processing, offer significant advantages in piezoelectric applications. By blending polymers with piezoelectric ceramics or designing polymers with crystalline structures conducive to piezoelectricity, researchers achieve materials that can convert mechanical energy into electrical signals and vice versa efficiently. This synergy has expanded the scope of piezoelectric materials beyond traditional ceramics, enabling applications in flexible electronics, biomedical devices and energy harvesting systems.
The Resonators segment is expected to have the highest CAGR during the forecast period
Resonators segment is expected to have the highest CAGR during the forecast period due to their ability to convert mechanical vibrations into electrical energy and vice versa. These materials, like quartz or certain ceramics, possess intrinsic piezoelectric properties, meaning they generate electric charges when subjected to mechanical stress or deformations. Resonators are designed to resonate at specific frequencies, effectively amplifying the piezoelectric effect within these materials. In practical applications, such as in electronic devices and sensors, resonators are finely tuned to resonate at frequencies corresponding to the desired signal or function.
Asia Pacific region dominated the largest share of the market over the projected period. Piezoelectric materials are crucial in various applications such as actuators, sensors, and transducers within electronic devices across the region. The expanding consumer electronics industry in countries like China, Japan, South Korea and India is a key factor contributing to this growth. These materials are valued for their ability to convert mechanical energy into electrical energy and vice versa, making them indispensable in modern electronics where miniaturization and efficiency are paramount throughout the region. The rise of smartphones, wearable devices, and automotive electronics further fuels demand for piezoelectric components, driving innovation and investment in research and development across the region.
Europe region is estimated to witness lucrative growth over the extrapolated period. Government regulations are primarily focused on sustainability, energy efficiency, and technological innovation, driving research and development in piezoelectric materials towards more environmentally friendly solutions in the region. By imposing standards that encourage the use of materials with lower environmental impact and higher energy efficiency, governments incentivize businesses and researchers to explore and adopt piezoelectric materials in various applications across the region.
Key players in the market
Some of the key players in Piezoelectric Materials market include Arkema Group, Audiowell Electronics Co., Ltd, CTS Corporation, L3Harris Technologies, Inc, Mad City Labs, Inc, Murata Manufacturing Co., Ltd, Peizosystem Jena GmbH, Sparkler Ceramics Pvt. Ltd, TDK Corporation and TRS Technologies, Inc.
In May 2024, Arkema has agreed to acquire Dow's flexible packaging laminating adhesives business, one of the leading producers of adhesives for the flexible packaging market, generating annual sales of around US$250 million. The proposed acquisition will significantly expand Arkema's portfolio of solutions for flexible packaging, enabling the Group to become a key player in this attractive market.
In February 2022, CTS Corporation has completed the acquisition of TEWA Temperature Sensors SP. Zo.o. and its subsidiaries for an enterprise value of $24.5 million. TEWA is a reputable designer and manufacturer of high-quality temperature sensors. The company has a reputation for highly stable and reliable ceramic technology that has accelerated its growth.