Acta Aeronautica et Astronautica Sinica ›› 2025, Vol. 46 ›› Issue (23): 632761.doi: 10.7527/S1000-6893.2025.32761
• special column • Previous Articles
Bo PENG1,2, Jikang BAI2,3, Weiwen CHEN3, Xiangtao ZHENG3(
), Jianjun LEI1, Xiaoqiang LU3
Received:2025-09-08
Revised:2025-09-24
Accepted:2025-10-22
Online:2025-11-14
Published:2025-11-13
Contact:
Xiangtao ZHENG
E-mail:xiangtaoz@gmail.com
Supported by:CLC Number:
Bo PENG, Jikang BAI, Weiwen CHEN, Xiangtao ZHENG, Jianjun LEI, Xiaoqiang LU. Research progress for UAV search and rescue methods based on deep learning[J]. Acta Aeronautica et Astronautica Sinica, 2025, 46(23): 632761.
Table 2
Different types of imaging environmental interference and countermeasures
| 干扰类型 | 问题表现 | 解决方法 | 方法特点 |
|---|---|---|---|
| 低光照干扰 | 成像环境亮度低,使可见光图像噪声大、细节模糊且目标纹理不明显,目标与背景的区分度不高 | 联合低光照图像增强与目标检测的方法; 跨模态信息融合; 配置辅助设备 | 多任务网络模型复杂度高;“先增强,再检测”的框架实时性不佳;检测效果受增强效果的影响 融合红外模态可以适应极端黑暗环境;计算复杂度高,对算力要求高;需要配准可见光和红外数据 通过深度相机等,可以在极端黑暗环境看清目标 |
| 雨雾干扰 | 雨雾中微粒会吸收和散射可见光和红外信号的能量,破坏目标与背景温度差异,影响红外成像质量 | 基于深度线索的自适应特征调制方法; 联合去雾与目标检测的多任务网络; 雷达探测; | 利用深度信息,引入物理先验,模型泛化性强;检测精度依赖深度图质量 去雾任务与检测任务更新方向不同,多任务网络训练难度高;检测精度受去雾的效果影响 雷达探测可穿透雨雾,但设备要求高 |
| 运动模糊干扰 | 目标相对运动导致边缘模糊、纹理被破环 | 联合去模糊与目标检测的多任务网络 | 多任务网络训练复杂,且需要考虑模型优化以减少参数量,提升实时性 |
Table 3
Detection datasets that can be used for UAV search and rescue
| 数据类型 | 数据集 | 发布年份 | 下载地址 |
|---|---|---|---|
| 可见光 | HERIDAL | 2019 | https:∥universe.roboflow.com/licenta-ynwvo/heridal-lrbkc |
| TinyPerson | 2020 | https:∥github.com/ucas-vg/TinyBenchmark | |
| SARD | 2021 | https:∥universe.roboflow.com/datasets-pdabr/sard-8xjhy | |
| AFO | 2021 | https:∥datasetninja.com/afo | |
| Manipal-UAV | 2023 | https:∥github.com/Akshathakrbhat/Manipal-UAV-Person-Dataset | |
| Archangel | 2023 | https:∥a2i2-archangel.vision | |
| C2A | 2024 | https:∥github.com/Ragib-Amin-Nihal/C2A | |
| 红外 | BIRDSAI | 2020 | https:∥lila.science/datasets/conservationdrones |
| UAV thermal image | 2020 | https:∥zenodo.org/records/4327118 | |
| HIT-UAV | 2023 | https:∥www.kaggle.com/datasets/pandrii000/hituav-a-highaltitude-infrared-thermal-dataset | |
| POP | 2025 | https:∥osf.io/kmcva/ | |
| 雷达 | UWB radar dataset | 2024 | https:∥zenodo.org/records/10731867 |
| 多光谱 | SeaDronesSee | 2022 | https:∥seadronessee.cs.uni-tuebingen.de./ |
| NII-CU | 2022 | https:∥www.nii-cu-multispectral.org/ | |
| WiSARD | 2022 | https:∥sites.google.com/uw.edu/wisard/ | |
| RGBTDronePerson | 2023 | https:∥nnnnerd.github.io/RGBTDronePerson/ | |
| VTSaR | 2025 | https:∥github.com/zxq309/VTSaR |
Table 4
Scale, collection scenarios and labeling of different datasets
| 数据类型 | 数据集 | 数据规模 | 采集场景 | 标注 |
|---|---|---|---|---|
| 可见光 | HERIDAL | 500张标注的全尺寸航拍图像 | 山地、荒野、森林等 | 人物位置边界框 |
| TinyPerson | 1 610张标注图像 | 海洋、海滩等 | 目标类别标注及边界框 | |
| SARD | 1 981张标注图像 | 岩石区、森林等 | 人物位置边界框 | |
| AFO | 3 647张标注图像 | 海洋 | 目标类别标注及边界框 | |
| Manipal-UAV | 13 462张标注图像 | 学校、道路及建筑等 | 人物位置边界框 | |
| Archangel | 4 643 900张标注图像 | 草地、沙漠等 | 目标类别标注、边界框、人物姿态标注及无人机与目标相对位置的元数据 | |
| C2A | 10 215张标注图像 | 火灾、洪水、废墟及交通事故等 | 人物位置边界框、人物姿态及灾难场景 | |
| 红外 | BIRDSAI | 172段标注红外视频 | 草地、水域及森林等 | 目标类别标注及边界框 |
| UAV thermal image | 6 447张标注的红外图像 | 海滩、树木及建筑等 | 人物位置边界框、人物 | |
| HIT-UAV | 2 898张标注的红外图像 | 学校、道路及操场等 | 目标类别标注、边界框及无人机飞行高度、拍摄视角、时间及天气 | |
| POP | 8 768张标注的红外图像 | 树林、草地及山区等 | 人物位置边界框 | |
| 雷达 | UWB radar | 270个完整采集会话 | 不同风力的野外场景 | 人体是否存在 |
| 多光谱 | SeaDronesSee | 超54 000张标注图像,包括432张多光谱图像 | 海洋 | 目标类别标注、边界框及无人机状态的元数据 |
| NII-CU | 5 880对标注RGB和红外图像 | 棒球场、森林等 | 人物位置边界框 | |
| WiSARD | 55 942张标注图像,包括15 453对标注RGB和红外图像 | 森林、岩石区、海岸、山地及雪地等 | 人物位置边界框及包含时间、相机视角等的元数据 | |
| RGBTDrone-Person | 6 125对标注RGB和红外图像 | 森林、建筑及田野等 | 目标类别标注及边界框 | |
| VTSaR | 32 400张标注图像,包括9 602对标注RGB和红外图像 | 街区、海岸线、海洋、工业区及荒野等 | 人物位置边界框 |
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Total visits: 6658907 Today visits: 1341

