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市场调查报告书
商品编码
1401843
到 2030 年压电生物感测器市场预测:按类型、涂层材料、频率、配销通路、最终用户和地区进行的全球分析Piezoelectric Biosensors Market Forecasts to 2030 - Global Analysis By Type (Single Crystal Materials, Piezoelectric Ceramics, Polymers and Other Types), Coating Material, Frequency, Distribution Channel, End User and By Geography |
根据 Stratistics MRC 的数据,2023 年全球压电生物感测器市场规模为 279 亿美元,预计在预测期内将以 9.1% 的复合年增长率成长,到 2030 年达到 514 亿美元。
一类称为压电生物感测器的分析仪器利用压电效应来监测向压电材料施加机械力时产生的电位。它具有灵敏度高、体积小等特性。这些感测器可以仅根据施加的应变提供输出讯号,不需要外部电压或电流源。
復用功能
多重分析允许在一项测试中并行检测多种分析物。这增加了生物感测器的吞吐量,从而可以更快地分析更多目标。此外,当样本量较小或有限时,例如在只有少量血液或其他生物液体可用的诊断医疗环境中,此功能特别有用。此外,它还有助于节省资源。因此,这些是影响市场扩张的变数。
温度敏感度
温度波动会影响压电材料製成的感测器的准确性和可靠性。温度波动会引起基线漂移并影响生物感测器的整体性能。压电生物感测器的开发和製造也很复杂,需要专门的专业知识和设备。其复杂性可能会阻碍其融入轻量级便携式设备。这些方面限制了市场的扩大。
监理合规性
压电生物感测器的研究、行销和接受度很大程度上受到法规遵从性的影响。通常需要对生物感测器性能进行严格检验才能满足监管合规标准。为了遵守监管标准,压电生物感测器製造商和开发商必须资助彻底的验证研究。强调验证可以提高生物感测器资料的可靠性,并提高其在医疗诊断等关键应用中的接受度。这些都是影响市场成长的因素。
生物感测器价格高
压电生物感测器的高製造成本可能会阻碍其普及,特别是在资源有限的环境中。压电生物感测器的普及取决于具有成本效益且灵敏的版本的开发。对具有成本效益的材料和製造技术的研究仍在进行中。这是阻碍市场拓展的主要因素。
使用压电生物感测器进行现场护理测试可以在诊所、机场甚至家庭等场所进行快速、分散的测试。 COVID-19大流行使得此类测试技术变得更加必要。与某些技术一样,压电生物感测器的进步和製造可能会受到疫情造成的全球供应链中断的影响。这可能会影响这些感测器所需组件的价格和可得性。
聚合物细分市场预计将在预测期内成为最大的细分市场
聚合物细分市场预计将成为预测期内最大的细分市场。压电聚合物薄涂层经常应用于石英晶共振器和其他压电基板的表面。透过促进生物分析物和感测表面之间的接触,这些涂层提高了生物感测器的灵敏度。这些材料在受到机械应力时可以发生压电反应,使其适合感测应用。
预计铝业在预测期内的复合年增长率最高。
预计铝业在预测期内的复合年增长率最高。利用压电效应来感测感测器表面的质量变化和结合现象的装置称为压电生物感测器。这些感测器应用于多种领域,包括食品安全、环境监测和医疗诊断。儘管石英和陶瓷等其他材料经常用于压电生物感测器的主动感测元件,但铝不是常见材料。
预计北美在预测期内将占据最大的市场占有率。压电生物感测器利用压电效应来检测感测器表面上由于分子之间相互作用而经常发生的质量变化。压电生物感测器的开发和使用适用于各种应用,包括环境监测和医疗诊断,涉及多个研究机构、大学和公司。这些高度灵敏和特异性的生物感测器已证明能够识别特定的生物分子、感染疾病和其他分析物。
预计亚太地区在预测期内将维持最高的复合年增长率。压电生物感测器利用压电效应来检测由于分子之间的相互作用而导致的感测器表面的质量变化。压电生物感测器的开发和使用涉及食品安全、环境监测和医疗诊断等多种应用,涉及多个研究机构、大学和公司。这些高度灵敏和特异性的生物感测器已证明能够识别特定的生物分子、感染疾病和其他分析物。
According to Stratistics MRC, the Global Piezoelectric Biosensors Market is accounted for $27.9 billion in 2023 and is expected to reach $51.4 billion by 2030 growing at a CAGR of 9.1% during the forecast period. A class of analytical instruments known as piezoelectric biosensors uses the piezoelectric effect to monitor the electrical potential generated when mechanical force is applied to a piezoelectric material. They have a high degree of sensitivity and are modest in size. Since these sensors can provide an output signal based just on the applied strain, they don't need any external sources of voltage or current.
Multiplexing capabilities
Multiple analytes can be detected in parallel during a single test thanks to multiplexing. This boosts the biosensor's throughput and makes it possible to analyze more targets faster. Furthermore, this is especially useful in scenarios when sample sizes are few or limited, such in diagnostic medical settings where little amounts of blood or other biofluids are accessible. Furthermore, it aids in resource conservation. Thus, these are the variables impacting the market's expansion.
Temperature sensitivity
Temperature fluctuations can have an impact on the accuracy and dependability of a sensor made of piezoelectric materials. Variations in temperature have the potential to induce baseline drift and affect the biosensor's overall performance. Piezoelectric biosensors may also be complicated to develop and make, requiring specific expertise and equipment. Their incorporation into lightweight and portable devices can be hampered by their intricacy. These are the aspects that are limiting the market's expansion.
Regulatory Compliance
Piezoelectric biosensor research, marketing, and acceptance are significantly influenced by regulatory compliance. Strict validation of biosensor performance is typically required to meet regulatory compliance norms. To comply with regulatory standards, producers and developers of piezoelectric biosensors must finance thorough validation investigations. By emphasizing validation, biosensor data become more reliable and are more readily accepted in vital applications like medical diagnostics. These are the factors influencing the market's growth.
High price of biosensors
The high cost of manufacturing piezoelectric biosensors may prevent their widespread use, particularly in settings with limited resources. The widespread deployment of piezoelectric biosensors depends on the development of cost-effective, highly sensitive versions of these sensors. Research on materials and production techniques that are cost-effective is still underway. This is the main factor impeding the market's expansion.
Point-of-care testing using piezoelectric biosensors enables rapid and decentralized testing in locations such as clinics, airports, and even homes. The COVID-19 pandemic has made such testing skills more necessary. Similar to several technologies, the advancement and manufacturing of piezoelectric biosensors may be impacted by disturbances in the worldwide supply chain resulting from the pandemic. This might have an effect on the price and availability of parts needed for these sensors.
The polymers segment is expected to be the largest during the forecast period
The polymers segment is expected to be the largest during the forecast period. Thin coatings of piezoelectric polymers are frequently applied on the surface of quartz crystals or other piezoelectric substrates. By promoting the contact between the biological analyte and the sensing surface, these coatings increase the biosensor's sensitivity. These materials are appropriate for sensing applications because they may produce a piezoelectric response when mechanical stress is applied.
The aluminum segment is expected to have the highest CAGR during the forecast period
The aluminum segment is expected to have the highest CAGR during the forecast period. Devices that use the piezoelectric effect to sense mass changes or binding events on the sensor surface are known as piezoelectric biosensors. These sensors are often employed in many different fields, including as food safety, environmental monitoring, and medical diagnostics. Other materials, such as quartz or ceramics, are frequently utilized for the active sensing element in piezoelectric biosensors aluminum is not a popular material.
North America is projected to hold the largest market share during the forecast period. Piezoelectric biosensors detect mass changes on the sensor surface, frequently as a result of interactions between molecules, by using the piezoelectric effect. The development and use of piezoelectric biosensors for a variety of applications, including environmental monitoring, and medical diagnostics, has engaged several research institutes, universities, and businesses. With great sensitivity and specificity, these biosensors have demonstrated the ability to identify certain biomolecules, infections, and other analytes.
Asia Pacific is projected to hold the highest CAGR over the forecast period. Piezoelectric biosensors detect mass changes on the sensor surface, frequently as a result of interactions between molecules, by using the piezoelectric effect. The development and use of piezoelectric biosensors for a variety of applications, including food safety, environmental monitoring, and medical diagnostics, has engaged several research institutes, universities, and businesses. With great sensitivity and specificity, these biosensors have demonstrated the ability to identify certain biomolecules, infections, and other analytes.
Some of the key players in Piezoelectric Biosensors market include ACON Laboratories, F. Hoffmann-La Roche, Siemens, Universal Biosensors, LifeSensors, Medtronic, Abbott Point of Care, Pharmaco Kinesis, Bayer AG, LifeScan, DuPont, LifeScan IP Holdings, LLC, Conductive Technologies and Innovative Sensor Technology IST AG.
In March 2022, Medtronic announced partnership with Rockley Photonics to launch Bioptx biomarker sensing platform across various healthcare settings. The new biosensor is a single wearable device that is capable of monitoring multiple crucial biomarkers including body temperature, blood pressure, body hydration, alcohol, lactate and glucose trends among others.
In January 2022, Abbott launched a new category of consumer bio wearables, called Lingo. This new device is designed to track key signals in the body such as glucose, ketones and lactate, enabling people to understand health better and take action.