市场调查报告书
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1609834
2025-2033 年日本光达市场报告(按安装类型、组件、应用和地区)Japan LiDAR Market Report by Installation Type, Component, Application, and Region 2025-2033 |
2024年,日本IMARC Group雷达市场规模达到1.834亿美元。对精确和高解析度三维(3D) 测绘的需求不断增长、自动驾驶汽车的技术整合度不断提高、日本政府实施的各种战略和政策、公用事业行业不断增加的技术采用以及环境领域不断增长的技术需求保护是推动市场的一些关键因素。
光探测和测距 (LiDAR) 是指利用雷射脉衝进行精确距离测量并产生周围环境的复杂三维 (3D) 地图的遥感技术。它包括机载光达、地面光达和移动光达,每种光达都经过战略设计,以满足特定应用的需求。 LiDAR 系统由几个基本组件组成,包括雷射、全球定位系统 (GPS) 接收器、扫描仪、惯性测量单元 (IMU) 和资料处理系统。它由轻质、高强度和耐用的材料製成,例如铝合金和复合材料,有助于提供最佳的效率和性能。雷射雷达广泛应用于城市规划、地形测绘、自动驾驶汽车、农业、洪水建模、林业、考古和环境监测。此外,它还广泛应用于灾难应变、製图、电力线路检查、地形研究、采矿作业、沿海地区管理和文化遗产记录。雷射雷达具有多种优势,例如高解析度测绘、即时资料采集、非侵入式测量和改进的灾害管理。它还有助于增强物体辨识能力,促进快速资料收集,减少现场时间,并提供穿透茂密植被的能力。
城市规划和基础设施开发项目对准确、高解析度三维 (3D) 测绘的需求不断增长,对市场成长产生了积极影响。此外,自动驾驶汽车的技术整合度不断提高,为自动驾驶汽车提供即时环境意识,从而增强安全性和导航能力,正在推动市场成长。除此之外,先进驾驶辅助系统(ADAS) 中越来越多地利用技术来降低事故风险并增强驾驶体验,这也是另一个推动成长的因素。此外,日本政府为加强灾害管理和减灾工作而实施的各种策略和政策正在促进雷射雷达技术的采用,因为它有助于评估受灾地区并实现高效的救援行动。除此之外,公用事业行业越来越多地采用技术来有效监控输电线路和资产,从而能够主动检测和纠正故障,这也促进了市场的成长。此外,环境保护领域对监测野生动物栖息地并做出符合永续发展目标的明智决策的技术需求不断增长,正在促进市场成长。此外,建筑和房地产活动中越来越多地采用技术来提供精确的高程模型、等高线图和体积计算,这有利于市场的成长。此外,对雷射雷达的需求不断增加,以促进历史遗址和文物的详细数位复製品的创建,从而帮助保护工作,正在支持市场的成长。
The Japan LiDAR market size reached USD 183.4 Million in 2024. Looking forward, IMARC Group expects the market to reach USD 844.3 Million by 2033, exhibiting a growth rate (CAGR) of 18.5% during 2025-2033. The increasing demand for accurate and high-resolution three-dimensional (3D) mapping, rising technology integration in autonomous vehicles, imposition of various strategies and policies by the Government of Japan, increasing technology adoption by the utility industry, and growing technology demand in environmental conservation represent some of the key factors driving the market.
Light detection and ranging (LiDAR) refer to remote sensing technology that employs laser pulses for precise distance measurement and the generation of intricate three-dimensional (3D) maps of the surroundings. It encompasses airborne LiDAR, terrestrial LiDAR, and mobile LiDAR, each strategically designed to cater to specific applications. The LiDAR system comprises several essential components, including lasers, global positioning system (GPS) receivers, scanners, inertial measurement units (IMUs), and a data processing system. It is constructed from lightweight, high-strength, and durable materials, such as aluminum alloys and composites, which aids in delivering optimal efficiency and performance. LiDAR is widely used in urban planning, topographic mapping, autonomous vehicles, agriculture, flood modeling, forestry, archaeology, and environmental monitoring. Additionally, it finds extensive applications in disaster response, cartography, power line inspection, geomorphology studies, mining operations, coastal zone management, and cultural heritage documentation. LiDAR provides several advantages, such as high-resolution mapping, real-time data acquisition, non-invasive surveying, and improved disaster management. It also aids in enhancing object recognition capabilities, facilitating swift data collection, reducing field time, and providing the ability to penetrate dense vegetation.
The increasing demand for accurate and high-resolution three-dimensional (3D) mapping in urban planning and infrastructure development projects is positively influencing the market growth. Additionally, rising technology integration in autonomous vehicles to provide real-time environmental awareness to self-driving cars, thus enhancing safety and navigation, is propelling the market growth. Along with this, the growing technology utilization in advanced driver assistance systems (ADAS) to mitigate the risk of accidents and enhance the driving experience is acting as another growth-inducing factor. Furthermore, the imposition of various strategies and policies by the Government of Japan to bolster disaster management and mitigation efforts is facilitating the adoption of LiDAR technology, as it aids in assessing disaster-stricken areas and enables efficient rescue operations. Apart from this, the increasing technology adoption by the utility industry to efficiently monitor transmission lines and assets, thus enabling proactive detection and rectification of faults, is contributing to the market growth. Moreover, the growing technology demand in environmental conservation to monitor wildlife habitats and make informed decisions that align with sustainability goals is catalyzing the market growth. In addition, the rising technology adoption in construction and real estate activities to provide precise elevation models, contour maps, and volumetric calculations is favoring the market growth. Moreover, increasing demand for LiDAR to facilitate the creation of detailed digital replicas of historical sites and artifacts, thus aiding in conservation efforts, is supporting the market growth.