喀斯特山地不同复合生境火龙果植物遥感识别与快速产量估算

IF 3.3 2区 农林科学 Q1 AGRONOMY
Zhongfa Zhou, Ruiwen Peng, Ruoshuang Li, Yiqiu Li, Denghong Huang, Meng Zhu
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引用次数: 0

摘要

火龙果产业是中国贵州山区的特色水果产业。贵州种植面积7200公顷,居全国首位。目前火龙果种植缺乏高效的产量估算方法,这对火龙果下游产业链产生了负面影响,阻碍了市场的持续增长。喀斯特山区破碎复杂的地形和多变的天气影响了传统卫星遥感方法对作物的准确识别,目前对山地特色作物产量估算的尝试较少。本文基于无人机(UAV)遥感影像,将喀斯特背景下火龙果种植场地的复杂性划分为色彩相似、地形变化、多种作物共存的复杂场景。在相似颜色的场景中,使用近色植被指数(CCVI)提取火龙果植物,样本点的平均准确率达到92.37%;在地形变化复杂的场景下,利用基于冠层高度模型(Canopy Height Model, CHM)的点云数据提取火龙果植物,准确率达到89.09%;在多种作物共存的场景中,使用U-Net深度学习模型(DLM)识别火龙果植物,准确率达到92.76%。随后,基于田间多期实测的火龙果产量数据,构建火龙果产量估算模型,并对3个应用场景进行快速产量估算和检验。结果表明:颜色相似的复杂场景产量估计的平均精度为91.25%,地形变化场景产量估计的平均精度为93.40%,多种作物共存场景产量估计的平均精度为95.18%。总体良率估算结果显示出较高的精度。实验结果表明,利用无人机遥感影像对复杂喀斯特生境特征作物进行识别和快速估算是可行的,也可为山区其他作物的快速估算提供科学参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Remote Sensing Identification and Rapid Yield Estimation of Pitaya Plants in Different Karst Mountainous Complex Habitats
The Pitaya industry is a specialty fruit industry in the mountainous region of Guizhou, China. The planted area in Guizhou reaches 7200 ha, ranking first in the country. At present, Pitaya planting lacks efficient yield estimation methods, which has a negative impact on the Pitaya downstream industry chain, stymying the constant growing market. The fragmented and complex terrain in karst mountainous areas and the capricious local weather have hindered accurate crop identification using traditional satellite remote sensing methods, and there is currently little attempt made to tackle the mountainous specialty crops’ yield estimation. In this paper, based on UAV (unmanned aerial vehicle) remote sensing images, the complexity of Pitaya planting sites in the karst background has been divided into three different scenes as complex scenes with similar colors, with topographic variations, and with the coexistence of multiple crops. In scenes with similar colors, using the Close Color Vegetation Index (CCVI) to extract Pitaya plants, the accuracy reached 92.37% on average in the sample sites; in scenes with complex topographic variations, using point clouds data based on the Canopy Height Model (CHM) to extract Pitaya plants, the accuracy reached 89.09%; and in scenes with the coexistence of multiple crops, using the U-Net Deep Learning Model (DLM) to identify Pitaya plants, the accuracy reached 92.76%. Thereafter, the Pitaya yield estimation model was constructed based on the fruit yield data measured in the field for several periods, and the fast yield estimations were carried out and examined for three application scenes. The results showed that the average accuracy of yield estimation in complex scenes with similar colors was 91.25%, the average accuracy of yield estimation in scenes with topographic variations was 93.40%, and the accuracy of yield estimation in scenes with the coexistence of multiple crops was 95.18%. The overall yield estimation results show a high accuracy. The experimental results show that it is feasible to use UAV remote sensing images to identify and rapidly estimate the characteristic crops in the complex karst habitat, which can also provide scientific reference for the rapid yield estimation of other crops in mountainous regions.
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来源期刊
Agriculture-Basel
Agriculture-Basel Agricultural and Biological Sciences-Food Science
CiteScore
4.90
自引率
13.90%
发文量
1793
审稿时长
11 weeks
期刊介绍: Agriculture (ISSN 2077-0472) is an international and cross-disciplinary scholarly and scientific open access journal on the science of cultivating the soil, growing, harvesting crops, and raising livestock. We will aim to look at production, processing, marketing and use of foods, fibers, plants and animals. The journal Agriculturewill publish reviews, regular research papers, communications and short notes, and there is no restriction on the length of the papers. Our aim is to encourage scientists to publish their experimental and theoretical research in as much detail as possible. Full experimental and/or methodical details must be provided for research articles.
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