市场调查报告书
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1403386
到 2030 年定位阶段的市场预测:按类型、驱动类型、驱动机制、最终用户和地区进行的全球分析Positioning Stage Market Forecasts to 2030 - Global Analysis By Type (2-axis and 3-axis Stage, Linear Stage, Rotary Stage and Other Types), Type of Actuation (Manual and Motorized), Drive Mechanism, End User and By Geography |
根据 Stratistics MRC 的数据,全球定位平台市场在预测期内将以 5% 的复合年增长率成长。
定位平台是一种精密机械设备,可以沿着多个轴进行精确且受控的运动。其优势源自于精确定位,这对于製造、电子、光学和医学等领域需要精确度的任务至关重要。此外,这些平台允许受控运动,促进组装、测试、对准和显微镜检查等任务。其意义在于提高自动化效率、精度和品管。
这一需求尤其受到依赖超精密机械和製程的产业的推动,例如半导体製造、奈米技术、光学和计量。高精度设备需要能够以非常高的精度和重复性执行精细运动的定位平台。这些平台在光刻、微组装、精密计量和光学系统对准等关键应用中发挥着至关重要的作用。这凸显了这些阶段在实现复杂、高精度流程方面发挥的关键作用,而这些流程对于各行各业的技术发展和进步至关重要。
与现有系统和不同设备设置的兼容性挑战阻碍了定位平台的无缝整合。产业在使这些阶段适应现有机械方面经常面临困难,导致实施复杂性和工作流程的潜在中断。这种整合的复杂性可能会阻碍采用,特别是在依赖现有设备配置的领域。因此,它阻碍了市场的成长。
定位平台在促进自动化系统中的精确移动和对准方面发挥着至关重要的作用,从而实现组装、测试、检查和材料处理等任务。机器人和自动化机械的日益普及需要高精度的定位解决方案。此外,对自动化系统的这种需求为定位平台製造商创造了巨大的市场机会,他们开发和提供先进的高精度平台,可以与自动化流程无缝集成,提高生产率,减少体力劳动,并且我们满足行业不断变化的需求准确性。
不断发展的行业标准、合规性要求或新法规可能需要对製造流程进行昂贵的修改才能满足更新的指导方针。此类变化可能会增加製造成本、影响报酬率并阻碍市场竞争力。此外,满足新标准可能需要额外的认证和合规措施,这给製造商带来了挑战。因此,它成为市场拓展的主要障碍。
COVID-19 大流行对定位阶段市场产生了重大影响。最初,它对製造、供应链和计划时间表造成了干扰,减缓了跨产业定位阶段的采用。旅行限制和百叶窗关闭阻碍了安装并推迟了计划。然而,疫情加速了对自动化的需求,特别是在医疗保健、製药和电子领域,推动了对精密定位解决方案的需求。对自动化和机器人技术的重新重视源自于产业适应远端操作并寻求提高效率。这推动了定位舞台市场的成长。
旋转舞台部分预计将占据最大份额。旋转平台可实现精确的角度定位,对于製造、光学、电子和研究等行业的各种应用至关重要。它们提供精确且受控的旋转,以促进自动化系统中的对齐、检查、测试和组装过程等任务。此外,这些平台具有多种尺寸、负载能力和精度等级,可满足需要旋转运动来实现精确角度定位的各种工业需求,使其在许多领域具有高度通用性,已成为精密定位系统的重要组成部分。
预计製造业和工业自动化产业在预测期内将出现良好成长。定位平台透过提供对于物料搬运、组装、检查和测试等任务至关重要的精确、可重复的定位,在优化机器、机器人和组装方面发挥着至关重要的作用。透过整合到工业自动化系统中,提高生产率、最大限度地减少停机时间并改善品管。此外,这些平台专为製造和工业自动化而客製化,服务于从汽车、电子到製药等多种应用,可简化操作并确保高效、高精度的製造流程进步。
由于技术进步、自动化采用的增加以及开拓的创新定位平台解决方案,亚太地区在预测期内获得了最大的市场占有率。半导体製造、电子、汽车和医疗保健等行业的投资增加正在促进市场成长。此外,不断扩大的工业部门,特别是在中国、日本、韩国和印度等国家,正在推动各种製造和研究应用中对精密和自动化定位平台的需求。
由于技术创新、注重提高製造效率以及日益重视各行业的高精度应用,预计北美地区在预测期内将出现盈利成长。该地区在航太、国防、半导体和研发等产业表现出色,推动了对高精度定位平台的需求。此外,美国和加拿大的公司正在大力投资先进製造技术,从而越来越多地采用自动化、高精度定位系统。
According to Stratistics MRC, the Global Positioning Stage Market is growing at a CAGR of 5% during the forecast period. The positioning stage is a precision mechanical device enabling accurate and controlled movement along multiple axes. Its benefits arise from its accurate placement, which is essential for tasks requiring accuracy in sectors including manufacturing, electronics, optics, and medicine. Moreover, these stages allow for controlled motion, which facilitates operations like assembly, testing, alignment, and microscopy. Their significance resides in improving automation efficiency, accuracy, and quality control across several industries.
Industries reliant on ultra-precise machinery and processes, notably in semiconductor manufacturing, nanotechnology, optics, and metrology, fuel this demand. High-precision equipment necessitates positioning stages capable of achieving minute movements with exceptional accuracy and repeatability. These stages play a pivotal role in critical applications such as lithography, micro-assembly, precision measurement, and alignment in optical systems. Furthermore, the need for advanced positioning stages is growing as companies strive for ever-higher levels of precision in their operations; this emphasises the crucial role that these stages play in enabling the complex, high-precision processes that are essential to technological developments and advancements in a wide range of industries.
Compatibility challenges with existing systems and diverse equipment setups hinder seamless integration of positioning stages. Industries often face difficulties aligning these stages with their established machinery, leading to implementation complexities and potential disruptions in workflow. This integration complexity can impede adoption, especially in sectors relying on established equipment configurations. Thus, it will hamper market growth.
Positioning stages play a pivotal role in facilitating precise movements and alignments in automated systems, enabling tasks such as assembly, testing, inspection, and material handling. The rising adoption of robotics and automated machinery necessitates highly accurate positioning solutions. Furthermore, this demand for automated systems creates a substantial market opportunity for positioning stage manufacturers to develop and provide advanced, high-precision stages capable of seamlessly integrating with automated processes, meeting the evolving needs of industries seeking enhanced productivity, reduced manual intervention, and improved precision in their operations.
Evolving industry standards, compliance requirements, or new regulations may demand costly modifications in manufacturing processes to align with updated guidelines. These changes could increase production costs, impact profit margins, and potentially hinder market competitiveness. Also, adapting to new standards might require additional certifications or compliance measures, posing challenges for manufacturers. Therefore, it acts as a significant barrier to market expansion.
The COVID-19 pandemic significantly impacted the positioning stage market. Initially, it caused disruptions in manufacturing, supply chains, and project timelines, leading to a slowdown in the adoption of positioning stages across industries. Travel restrictions and lockdowns hindered installations and delayed projects. However, the pandemic accelerated automation demands, especially in healthcare, pharmaceuticals, and electronics, propelling the need for precision positioning solutions. A renewed emphasis on automation and robotics arose from industries adapting to remote operations and seeking increased efficiency. This, in turn, stimulated the growth of the positioning stage market.
The Rotary Stage segment is estimated to hold the largest share. A rotary stage enables precise angular positioning, which is crucial for various applications in industries such as manufacturing, optics, electronics, and research. It offers accurate and controlled rotation, facilitating tasks like alignment, inspection, testing, and assembly processes in automated systems. Moreover, these stages come in various sizes, load capacities, and precision levels, catering to diverse industrial needs requiring rotational movement for achieving precise angular positioning, making them indispensable components in high-precision positioning systems across numerous sectors.
The Manufacturing and Industrial Automation segment is anticipated to have lucrative growth during the forecast period. The positioning stages play a pivotal role in optimising machinery, robotics, and assembly lines by providing accurate and repeatable positioning, critical for tasks like material handling, assembly, inspection, and testing. Their integration in industrial automation systems ensures enhanced productivity, minimised downtime, and improved quality control. Furthermore, these stages tailored for manufacturing and industrial automation cater to diverse applications, ranging from automotive and electronics to pharmaceuticals, enabling streamlined operations and fostering advancements in efficient, high-precision manufacturing processes.
Asia Pacific commanded the largest market share during the extrapolated period due to technological advancements, rising adoption of automation, and the development of innovative positioning stage solutions. Increased investments in sectors like semiconductor manufacturing, electronics, automotive, and healthcare were contributing to the market's growth. Moreover, the region's expanding industrial sector, particularly in countries like China, Japan, South Korea, and India, was driving the demand for precise and automated positioning stages across various manufacturing and research applications.
North America is expected to witness profitable growth over the projection period, owing to technological innovation, a focus on enhancing manufacturing efficiency, and a growing emphasis on high-precision applications across various industries. The region's prominence in industries like aerospace, defence, semiconductors, and research and development fuelled the demand for high-precision positioning stages. Furthermore, companies in the United States and Canada were investing significantly in advanced manufacturing technologies, leading to increased adoption of automated and accurate positioning systems.
Some of the key players in the Positioning Stage Market include Physik Instrumente (PI), NIPPON THOMPSON, Sumitomo Heavy Industries, SCHNEEBERGER, Aerotech Inc., Beijing U-PRECISION TECH, Elliot Scientific, Griffin Motion, ALIO Industries, OME Technology, Newport Corporation, Zaber Technologies Inc., Parker Hannifin Corporation, Nanomotion Ltd. and Prior Scientific Instruments Ltd.
In April 2023, Aerotech, a manufacturer of precision motion control and automation, continues to develop new products and features for the Automation1 precision machine and motion control platform. The latest additions include new servo motor drives with integrated motion controllers and several advanced features.
In March 2022, Aerotech Launches Second Generation of Nanopositioning Stages. The second-generation ANT nanopositioning stages are ideal for single- and multi-axis applications that require ultra-precise, high-throughput motion performance, including photonics assembly and inspection; fiber alignment and optimization; optics manufacturing, testing and inspection; sensor testing and qualification; semiconductor processing and inspection; and research and laboratory applications.
In January 2022, Aerotech Introduces Premier Two-Axis Laser Scan Head, a high-dynamic, two-axis laser scan head that combines low-inertia, high-efficiency motors with ultra-high resolution position feedback and optimized structural dynamics to deliver rapid acceleration profiles and excellent part-profile tracking with minimal following error.