多光谱目标检测算法及相关数据集综述

A review of multispectral target detection algorithms and related datasets

  • 摘要: 相较于单一波段目标检测技术,多光谱目标检测技术通过捕获物体在多个不同波长的光谱波段下的反射或辐射信息,极大地提高目标检测的准确性和应对复杂环境的鲁棒性。在遥感、农业检测、环境保护、工业生产以及国防安全等领域有着广泛的应用。然而,目前多光谱目标检测领域仍面临着严峻挑战:多样化的高质量数据集以及高效目标检测算法的缺乏,严重制约了该技术的进一步发展和应用。鉴于此,综合阐释了多光谱目标检测数据集的制作方法以及多光谱目标检测算法的重要进展。首先,系统分析了多光谱数据集的构建过程,包括数据采集,预处理和数据标注。其次,全面分析了目标检测算法发展的历史脉络,这些算法涵盖了基于传统特征提取技术的目标检测算法、深度学习方法以及其改进版本。此外,着重强调了算法开发者为提升多光谱目标检测性能在特征融合、模型架构和子网络方面所作的关键改进。最后,探讨了多光谱目标检测技术未来的发展方向,期望为研究人员指明潜在的研究热点和应用领域,促成多光谱目标检测技术在实际场景中更广泛的应用,提升其社会价值。

     

    Abstract: Compared with single-band object detection technology, multispectral object detection technology greatly improves the accuracy of object detection and the robustness in dealing with complex environments by capturing the reflection or radiation information of objects in multiple spectral bands of different wavelengths. Therefore, it has extensive applications in fields such as remote sensing, agricultural detection, environmental protection, industrial production, and national defense security. However, the field of multispectral object detection still faces severe challenges at present: the lack of diverse high-quality datasets and efficient object detection algorithms seriously restricts further development and application of this technology. In view of this, this paper comprehensively explains the production method of multispectral object detection datasets and the important progress of multispectral object detection algorithms. First, the article systematically analyzes the construction process of multispectral datasets, including data acquisition, preprocessing, and data annotation, aiming to provide technical support for the subsequent construction of high-quality multispectral object detection datasets. Second, this paper comprehensively analyzes the historical context of the development of object detection algorithms. These algorithms cover object detection algorithms based on traditional feature extraction technologies, deep learning methods, and their improved versions. In addition, this paper summarizes the key improvements made by algorithm developers in terms of feature fusion, model architecture, and sub-networks to improve the performance of multispectral object detection based on deep learning-based object detection algorithms. Finally, this paper discusses future development direction of multispectral object detection technology, hoping to indicate potential research hotspots and application fields for researchers, and promote the wider application of multispectral object detection technology in actual scenarios and enhance its social value.

     

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