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市場調查報告書
商品編碼
1358971
到 2030 年可見光科學相機的全球市場預測:按類型、相機解析度、相機價格、用途和地區分析Visible Light Range Scientific Camera Market Forecasts to 2030 - Global Analysis By Type, Camera Resolution, Camera Price, Application and By Geography |
根據Stratistics MRC預測,2023年全球可見光科學相機市場規模將達到4.9億美元,預計在預測期內將以9.9%的年複合成長率成長,到2030年達到9.6億美元。
「可見光科學相機」是大型相機市場的一個子集,主要用於旨在捕獲和分析可見光譜中的光的科學相機。這些相機通常用於研究和科學領域,其中可見光現象的精確成像和分析至關重要。這些小工具的目的是產生人眼盡可能清晰的影像。拍攝產品時,我們準確地反映顏色。
根據聯合國 (UN) 統計,2019 年,全球 65 歲及以上人口有 7.03 億人。到 2050 年,老年人口預計將增加一倍,達到 15 億。
醫用相機是外科手術的常見結構要素,近年來,由於世界高齡化和慢性病發病率上升,手術數量大幅增加,推動了對尖端醫療設備的需求不斷增加。老年人口的顯著增加是世界許多國家面臨的問題。此外,顯微攝影機經常用於各種外科手術,包括白內障手術、牙科手術、脊椎手術和神經外科手術。
可見光科學相機市場預計將受到科學相機高成本的限制。先進的科學相機由於其高解析度感測器、先進的影像處理能力和專門功能而通常價格昂貴。然而,中小型研究機構面臨挑戰,預計將阻礙市場成長。
在可見光範圍內工作的科學相機是機器視覺系統的關鍵組件,因為它們可以實現高解析度影像和準確的顏色表示。此外,世界各國政府都敦促主要的可見光科學相機廠商投資更現代化的設備,以支持太空產業和其他相關領域的科學事業。
可見光科學相機市場預計將受到具有同等成像能力的替代技術的競爭。這些替代科學相機的使用和接受預計將減少對可見光科學相機的需求並抑制整個行業的成長。儘管感測器開發取得了進步,但相機仍面臨噪音水平、動態範圍和靈敏度等問題。為了在各種科學研究中記錄準確的資料,研究人員通常需要具有改進性能和規格的相機。因此,這些相機的應用受到技術限制。
可見光科學相機市場受到 COVID-19 爆發的嚴重影響。由於疫情導致全球供應鏈中斷,關鍵零件短缺,科學相機的生產和交付被推遲。此次疫情也增加了 COVID-19 研究中對專用相機的需求。使用這些用於顯微鏡、螢光、影像和光譜用途的相機來研究病毒及其對細胞和組織的影響。因此,在大流行期間,對科學相機的需求激增。
sCMOS 相機採用優於 CCD 相機的現代技術,提高了其市場接受度和吸引力。 sCMOS 技術消除了傳統 CMOS 相機的缺點。此外,與先前基於 CMOS 和 CCD 的感測器相比,sCMOS 提供快速的幀速率、極低的雜訊、寬視野、高解析度和寬動態範圍。
由於對高解析度攝影的需求不斷增加、感測器技術的改進、人工智慧的採用以及對自動化的接受度不斷提高,預計 4MP 以下類別將在較長時期內實現盈利成長。此外,這些相機通常價格便宜且易於使用。在預測期內,4MP以下相機市場的成長預計將受到這些要素的推動。
由於這些相機的改進、外科手術以及顯微鏡和 X 光等其他醫療必需品的增加,北美在預測期內佔據了最大的市場佔有率。此外,該地區最先進的醫療保健和研究系統、大量的頂級製造商、尖端產品的可用性、外科手術的發展以及顯微鏡和 X光等其他醫療必需品使該地區獨一無二。成為市場成長的主要要素。
由於對最尖端科技的高需求,預計亞太地區在預測期內將出現良好的成長。製造商和供應商都在關注新興中國市場的預測,預計隨著新興經濟體達到飽和狀態,這將推動未來市場的成長。中國醫療保健當局正在取消許多法律法規,鼓勵私營部門建造醫療保健設施。除其他好處外,該國的醫療保健系統將受益於吸引國際醫療設備製造商,特別是生產可見光科學相機的製造商的改善。
According to Stratistics MRC, the Global Visible Light Range Scientific Camera Market is accounted for $0.49 billion in 2023 and is expected to reach $0.96 billion by 2030 growing at a CAGR of 9.9% during the forecast period. The "Visible Light Range Scientific Camera," a subset of the larger camera market, is used for scientific cameras designed primarily to capture and analyze light in the visible spectrum. These cameras are typically used in research and scientific contexts where precise imaging and analysis of visible light phenomena are essential. These gadgets are made to produce images that are as sharp and clear to the human eye as possible. It accurately reflects colors when capturing products.
According to the United Nations (UN), in 2019, globally, there were 703 million persons aged 65 years or over. The senior population is estimated to double ()1.5 billion) by 2050.
Medical cameras are a common component of surgical procedures, and recently, the number of surgeries has significantly increased as a result of the world's rapidly aging population and the rising frequency of chronic diseases, which has raised the demand for cutting-edge medical equipment. Significantly high senior populations are a problem for many nations across the world. Additionally, microscope cameras are frequently utilized in a variety of surgical procedures, including cataract and dental surgery, as well as spinal and neurosurgery.
The market for visible light-range scientific cameras is anticipated to be constrained by the high cost of scientific cameras. Advanced scientific cameras are generally expensive due to their high-resolution sensors, advanced imaging capabilities, and specific features. However, small and medium research institutions are anticipated to have problems thereby hindering the market growth.
Scientific cameras that operate in the visible light spectrum are crucial components of machine vision systems because they enable high-resolution images and precise color representation. Additionally, major Visible Light Range Scientific Camera Key Players have been prompted by governments all over the world to invest in more modern equipment to support scientific endeavors in the space industry and other related sectors.
Alternative technologies with comparable imaging capabilities are anticipated to compete in the Visible Light Range Scientific Camera Market. The accessibility and acceptance of these substitute scientific cameras reduce the demand for visible-light-range scientific cameras, which is expected to restrain the industry's overall growth. Although sensor development has advanced, cameras still face issues with noise levels, dynamic range, and sensitivity. To record precise data in a variety of scientific investigations, researchers frequently need cameras with increased performance and specifications. Therefore, the application of these cameras is restricted by technological constraints.
The visible light range scientific camera market was significantly impacted by the COVID-19 epidemic. Global supply networks were disrupted by the epidemic, which resulted in a lack of essential components and a delay in the production and delivery of scientific cameras. In COVID-19 research, the pandemic also enhanced the need for specialized cameras. The virus and its impact on cells and tissues have been examined using these cameras in applications like microscopy, fluorescence, imaging, and spectroscopy. As a consequence, there was a spike in demand for scientific cameras during the pandemic.
sCMOS segment is expected to hold largest share over the projection period, because sCMOS cameras use better modern technology than CCD cameras, their market acceptance and appeal are rising. The trade-offs involved with traditional CMOS cameras are eliminated with sCMOS technology. Moreover, in contrast to earlier CMOS and CCD-based sensor generations, sCMOS provides rapid frame rates, incredibly low noise, a wide field of view, high resolution, and a wide dynamic range.
Due to rising demand for high-resolution photography, improvements in sensor technology, adoption of AI, and rising acceptance of automation, the less than 4 MP category is predicted to experience profitable growth throughout the extended time frame. In addition, these cameras are frequently less expensive and simpler to use. Over the projected period, growth in the below-4 MP camera segment is anticipated to be driven by these factors.
Due to improvements made to these cameras, an increase in surgical operations, and other medical necessities, including microscopes and X-rays, North America held the largest share of the market during the extended period. Furthermore, the region's cutting-edge healthcare and research systems, the abundance of top manufacturers there, the accessibility of cutting-edge goods, the development of surgical procedures, and other medical necessities like microscopes and X-rays are all major factors in this region's market growth.
Due to the region's high demand for cutting-edge technologies, it is predicted that the Asia-Pacific region will have lucrative growth over the projected period of time. Manufacturers and suppliers are anticipated to focus on prospects in the developing Chinese market as established economies reach saturation, boosting market growth in the years to come. Chinese healthcare authorities are appealing to the private sector to build healthcare facilities by removing a number of legislative restrictions. Additionally, the country's healthcare system will benefit from improvements by attracting international manufacturers of medical devices, especially businesses that make visible-light-range scientific cameras.
Some of the key players in Visible Light Range Scientific Camera market include: Excelitas Technologies Corp, Horiba scientific, Meiji techno, Diffraction Limited, Photonic Science, Spectral Instruments, Inc, Hamamatsu Photonics K.K., Thorlabs, Inc, Raptor Photonics, IDEX Health & Science LLC., Atik Cameras, Teledyne Princeton Instruments , Oxford Instruments (Andor Technology), XIMEA GmbH and Tucsen Photonics Co., Ltd.
In January 2023, Teledyne e2v has released its Hydra3D+, the first high resolution Time-of-Flight (ToF) CMOS image sensor to work in all light conditions without motion artefacts. It incorporates 832 x 600 pixel resolution and is tailored for versatile 3D detection and measurement.
In July 2022, Teledyne brings its Engineering Innovation to SPIE's Astronomical Telescopes + Instrumentation Conference.
In June 2021, Photonic Science launched the HAWKeye sCMOS camera 4123. It features the sCMOS Fairchild 4123 sensor equipped with 0.5 readout noise of electrons, a defective pixel count, and a low dark current.