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市场调查报告书
商品编码
1887109
短波红外线成像市场规模、占有率、成长及全球产业分析:依类型、应用和地区划分的洞察,以及2024-2032年预测Short Wave Infrared Imaging Market Size, Share, Growth and Global Industry Analysis By Type & Application, Regional Insights and Forecast to 2024-2032 |
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全球短波红外线成像市场正经历快速成长,其驱动因素包括国防投资增加、工业自动化程度提高以及对高精度成像的需求不断增长。根据2024年的估值,短波红外线(SWIR)成像市场预计在2024年达到4.307亿美元,2025年增长至4.824亿美元,并最终在2032年达到10.872亿美元。预计2025年至2032年间,该市场将以12.3%的复合年增长率高速成长。北美地区在2024年占全球市场34.31%的占有率,这主要得益于其在国防、边境监控、半导体检测和航空航天项目中的大规模部署。
市场驱动因素
市场成长的关键驱动因素是短波红外线(SWIR)成像技术在国防监控和目标侦测领域的应用日益广泛。 SWIR的工作波长范围为1000-2000奈米,能够穿透雾、霾、烟雾和灰尘进行成像-这对军事行动至关重要。全球国防机构依赖短波红外线(SWIR)视觉系统进行侦察、夜间目标捕获、边境安全以及基于无人机(UAV)的情报收集。
例如,2023年2月,美国空军AFWERX部门授予普林斯顿红外线技术公司749,961美元,用于开发一种用于无人机高光谱成像的扩展波长SWIR感测器。关键材料(如InGaAs和HgCdTe)的进步进一步提高了感测器的效率、小型化程度和稳健性,从而加强了SWIR技术在关键任务中的应用。
另一个强劲的驱动因素是SWIR成像技术在半导体製造、食品检测、回收、生物医学诊断和农业监测等众多领域的日益广泛应用。这些产业利用SWIR技术来视觉化水分含量、检测污染物、检查硅片以及识别可见光不可见的缺陷。
市场限制因子
儘管市场需求强劲,但短波红外线 (SWIR) 相机和感测器的高昂成本仍然是一个重大障碍。诸如砷化铟镓 (InGaAs) 和碲镉汞 (MCT) 等材料价格昂贵,并推高了生产成本,限制了其在价格敏感型市场的普及。中小企业、消费性电子产业以及预算有限的产业往往难以证明投资昂贵的 SWIR 系统的合理性。
市场机会
SWIR 技术在精准农业领域正日益普及,创造了新的机会。 SWIR 感测器可以帮助农民监测作物健康状况、检测病害早期迹象、测量土壤湿度并优化灌溉。基于卫星的 SWIR 成像技术在农业监测领域的应用正在全球范围内不断扩展。
印度太空研究组织 (ISRO) 和法国国家太空研究中心 (CNES) 共同进行的 TRISHNA 任务(计画于 2024 年进行)就是一个典型的例子。该任务将整合高解析度短波红外线 (SWIR) 成像技术,用于全球自然资源评估,包括农业。人们对永续农业和粮食安全的日益关注,有望加速 SWIR 技术在农业生态系统中的应用。
市场挑战
整合挑战依然令人担忧。由于许多产业依赖传统的可见光或热成像系统,SWIR 整合面临相容性问题、校准要求以及高昂的客製化成本等诸多挑战。这些挑战可能会延长部署时间,并阻碍大规模应用。
依技术划分
由于其价格实惠、设计紧凑且能效高,非製冷红外线成像技术将在 2024 年占市场主导地位,使其能够应用于无人机、手持设备和工业工具。同时,由于其卓越的灵敏度和远距离探测能力,冷却式短波红外线成像技术预计将以最高的复合年增长率增长,尤其是在国防和科研领域。
依波长范围划分
2024年,0.9-1.7 μm波段将占最大的市场占有率,这主要得益于其广泛的应用,包括半导体检测、食品分类、包装和精准农业。同时,1.7-2.5 μm波段预计将实现最快成长,因为它能够探测水吸收带、气体、矿物质和环境变化。
依应用程式划分
监控和安防领域正在推动市场成长,这得益于对基于短波红外线(SWIR)的夜视设备、边境安全和军事侦察领域投资的不断增加。同时,作物和食品品质监测领域预计将实现最快成长,这主要得益于对水分检测、污染物识别和自动化食品分类的需求。
依组件划分
截至2024年,感测器引领市场,这主要得益于工业和国防领域对高灵敏度InGaAs和MCT基侦测器的需求不断增长。光学元件(包括透镜和滤光片)位居第二,这主要归功于它们在高光谱和机器视觉应用中日益普及。
依行业划分
2024年,航空航太和国防领域仍是最大的垂直市场,这主要得益于短波红外线(SWIR)技术能够穿透雾、烟和霾,提供即时影像。汽车、医疗和工业领域也做出了显着贡献,这主要归功于自动驾驶、医疗诊断和半导体检测需求的成长。
北美
2024年,北美维持了最大的市场占有率,这主要得益于强劲的国防开支以及政府在侦察和目标定位安全领域依赖SWIR技术的项目。美国凭藉其先进的航空航太和半导体产业,持续引领全球短波红外线(SWIR)检测系统的应用。
欧洲
欧洲的工业应用在半导体检测、食品品质分析和化学领域正快速成长。德国和英国是主要贡献者,这得益于製造业和工业自动化的进步。
亚太地区
亚太地区的成长得益于半导体製造、电子和汽车製造领域的快速扩张。中国、日本和韩国等国家是短波红外线(SWIR)检测系统的主要应用国。
拉丁美洲与中东
在拉丁美洲,短波红外线 (SWIR) 技术在农业领域的应用正在不断扩展;而在中东,SWIR 技术正日益被应用于石油和天然气检测、边境安全和监控系统。
2025 年预测
依技术分类
依波长范围分类
依应用分类
依组件分类
依行业
依地区
The global short-wave infrared (SWIR) imaging market is experiencing rapid advancement, driven by rising defense investments, expanding industrial automation, and growing demand for high-precision imaging. According to the 2024 assessment, the SWIR imaging market was valued at USD 430.7 million in 2024, and is expected to increase to USD 482.4 million in 2025, eventually reaching USD 1,087.2 million by 2032, growing at a strong CAGR of 12.3% from 2025-2032. North America dominated the global market in 2024 with a 34.31% market share, supported by large-scale deployment in defense, border surveillance, semiconductor inspection, and aerospace programs.
Market Drivers
A major driver of market growth is the expanding use of SWIR imaging in defense surveillance and target detection. SWIR operates in the 1000-2000 nm wavelength range, enabling imaging through fog, haze, smoke, and dust-capabilities essential for military operations. Defense agencies worldwide rely on SWIR-enabled vision systems for reconnaissance, night-time target acquisition, border security, and UAV-based intelligence.
For example, in February 2023, the U.S. Air Force's AFWERX office awarded USD 749,961 to Princeton Infrared Technologies for developing extended-wavelength SWIR sensors for hyperspectral imaging on UAVs. Advancements in key materials such as InGaAs and HgCdTe are further improving sensor efficiency, compactness, and ruggedness, strengthening the adoption of SWIR technology in critical missions.
Another strong driver is the increasing use of SWIR imaging across semiconductor manufacturing, food inspection, recycling, biomedical diagnostics, and agricultural monitoring. Industries rely on SWIR to view moisture, detect contaminants, inspect silicon wafers, and identify defects invisible in visible light.
Market Restraints
Despite strong demand, the high cost of SWIR cameras and sensors remains a major barrier. Materials such as Indium Gallium Arsenide (InGaAs) and Mercury Cadmium Telluride (MCT) are expensive, making production costly and limiting adoption in price-sensitive markets. Smaller enterprises, consumer electronics, and low-budget industries often struggle to justify investment in high-priced SWIR systems.
Market Opportunities
SWIR technology is gaining traction in precision agriculture, creating new opportunities. SWIR sensors help farmers monitor crop health, detect early signs of disease, measure soil moisture, and optimize irrigation. Satellite-based SWIR imaging for agricultural monitoring is expanding globally.
A key example is the ISRO-CNES TRISHNA mission (2024), which integrates high-resolution SWIR imaging for global natural resource assessment, including agriculture. Increasing focus on sustainable farming and food security will accelerate SWIR adoption across agricultural ecosystems.
Market Challenges
Integration challenges remain a concern. Many industries rely on legacy visible-light or thermal imaging systems, making SWIR integration complex due to compatibility issues, calibration requirements, and high customization costs. These challenges can lengthen deployment timelines and hinder mass adoption.
By Technology
The uncooled infrared imaging segment dominated in 2024 due to affordability, compact design, and energy efficiency, enabling deployment in drones, handhelds, and industrial tools. Meanwhile, cooled SWIR imaging is projected to grow at the fastest CAGR owing to superior sensitivity and long-range detection, especially in defense and scientific applications.
By Wavelength Range
The 0.9-1.7 μm segment held the largest share in 2024 because of its wide use in semiconductor inspection, food sorting, packaging, and precision agriculture. The 1.7-2.5 μm range is projected to grow fastest due to its ability to detect water absorption bands, gases, minerals, and environmental changes.
By Application
Surveillance & security dominated the market, supported by rising investments in SWIR-based night vision, border security, and military reconnaissance. Meanwhile, crop & food quality monitoring is expected to grow fastest, fueled by demand for moisture detection, contamination identification, and automated food sorting.
By Component
Sensors led the market in 2024 due to rising demand for high-sensitivity InGaAs and MCT-based detectors across industrial and defense sectors. Optics, including lenses and filters, ranked second due to rising adoption in hyperspectral and machine-vision applications.
By Vertical
Aerospace & defense remained the top vertical in 2024, owing to SWIR's ability to penetrate fog, haze, and smoke for real-time imaging. Automotive, healthcare, and industrial sectors also contributed significantly, driven by autonomous driving, medical diagnostics, and semiconductor inspection.
North America
North America held the largest share in 2024, supported by strong defense spending and government programs relying on SWIR for reconnaissance, targeting, and security. The U.S. continues to lead global adoption due to its advanced aerospace and semiconductor industries.
Europe
Europe is experiencing strong industrial adoption across semiconductor inspection, food quality analysis, and chemicals. Germany and the U.K. are significant contributors due to advancements in manufacturing and industrial automation.
Asia Pacific
APAC growth is fueled by rapid expansion in semiconductor fabrication, electronics, and automotive manufacturing. Countries such as China, Japan, and South Korea are major adopters of SWIR-based inspection systems.
Latin America & Middle East
Latin America benefits from agricultural SWIR use cases, while the Middle East is expanding SWIR adoption for oil & gas inspection, border security, and surveillance.
Conclusion
Overall, the short-wave infrared imaging market is set for strong long-term growth, rising from USD 430.7 million in 2024 to USD 1,087.2 million by 2032, driven by defense modernization, industrial automation, agricultural innovation, and technological advancements in sensors and optics.
Forcast Year 2025
By Technology
By Wavelength Range
By Application
By Component
By Vertical
By Geography