物候窗口和多源中高分辨率影像的稻虾田提取

魏浩东; 杨靖雅; 蔡志文; 陈云坪; 张馨予; 徐保东; 胡琼

doi:10.11834/jrs.20211070

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物候窗口和多源中高分辨率影像的稻虾田提取
Phenology windows and multi-source medium-/high-resolution image extraction for rice-crayfish paddy fields mapping
2022年26卷第7期页码：1423-1436
收稿：2021-02-08，

纸质出版：2022-07-07
DOI： 10.11834/jrs.20211070
稿件说明：

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魏浩东，杨靖雅，蔡志文，陈云坪，张馨予，徐保东，胡琼.2022.物候窗口和多源中高分辨率影像的稻虾田提取.遥感学报，26（7）： 1423-1436 DOI： 10.11834/jrs.20211070.

Wei H D，Yang J Y，Cai Z W，Chen Y P，Zhang X Y，Xu B D and Hu Q. 2022. Phenology windows and multi-source medium-/high-resolution image extraction for rice-crayfish paddy fields mapping. National Remote Sensing Bulletin， 26（7）：1423-1436 DOI： 10.11834/jrs.20211070.

摘要

由于显著的经济效益和生态效益，近年来稻虾共作模式分布面积迅猛扩张。准确获取稻虾田空间分布信息，对于水稻种植结构调整、产量估算和水资源管理具有重要意义。本文以“小龙虾之乡”——湖北省潜江市为研究区域，基于Google Earth Engine平台协同Landsat 7/8和Sentinel-2卫星数据，通过分析稻虾田的农业耕作管理和季相节律特征，提取了稻虾田区别其他农作物的关键“水淹”信号和“植被”信号。基于实地稻虾田样本统计分析关键特征的阈值，构建稻虾田规则集识别模型，提取了湖北省潜江市2019年稻虾田空间分布。最后，基于实地样本验证该物候窗口特征方法的精度，并评估和比较了该方法与随机森林和基于水体季相差异方法的表现。结果表明：物候窗口1月1日—4月30日内的水淹信号（LSWI>NDVI或EVI）、物候窗口7月15日—9月30日内的植被信号（NDVI或EVI>LSWI）和物候窗口11月10日—12月31日内的水淹信号是稻虾田遥感识别的典型特征。基于该方法提取的2019年潜江市稻虾田制图精度和用户精度分别为90.74%、94.69%，显著高于水体季相差异方法和随机森林方法的精度。基于关键物候窗口的稻虾田提取方法具有较高的泛化能力，能以较少的实地样本进行时空尺度的延展，从而为大尺度长时序稻虾田遥感制图提供重要的方法支撑。

Abstract

Rice-crayfish co-culture is a kind of comprehensive ecological agriculture pattern. Rice-crayfish co-culture has expanded rapidly in China in the past decade due to its outstanding ecological and economic benefits. The accurate spatial distribution information of this newly emerging agricultural pattern is crucial for growth monitoring

yield estimation

and water resource management. However

most studies have focused on field-level research on the farmland ecosystem

and rice-crayfish mapping at regional or larger scales has received less attention.

In this study

Qianjiang City in Hubei Province

known as the “hometown of crayfish” was selected as the test area. The cloud computing approach was used for all available Landsat 7/8 and Sentinel-2 imagery in 2019 with the Google Earth Engine (GEE) platform. By analyzing farming characteristics and the spectral curves of rice-crayfish fields

we identified the crucial phenology windows and classification features (i.e.

flooding and vegetation signals) for rice-crayfish mapping. On the basis of the key phenological characteristics and associated frequency thresholds derived from field samples

we developed a rule-based algorithm for rice-crayfish mapping and generated the rice-crayfish map of Qianjiang City in 2019. To further evaluate the potential of our proposed method

we compared it with the random forest method and a method based on seasonal differences of water bodies.

The spectral analysis of time series images showed that the unique phenological characteristics of rice-crayfish co-culture were flooding signal (LSWI

NDVI or LSWI

EVI) in phenology window 1 (from January 1 to April 30)

vegetation signal (NDVI

LSWI or EVI

LSWI) in phenology window 2 (from July 15 to September 30)

and flooding signal in phenology window 3 (from November 10 to December 31). With the mapping results

the total area for rice-crayfish planting in Qianjiang City in 2019 was estimated to 575.58 km

and rice-crayfish plots were mainly distributed in the southwest. The producer’s accuracy of the classification result was 90.74%

the user’s accuracy was 94.69%

and the overall accuracy was 95.23%. The method based on phenology window features had fewer commission errors compared with the random forest method and fewer omission errors compared with the method based on water body seasonal differences. Among the three methods

the proposed method presented the highest overall classification accuracy.

The rice-crayfish mapping method based on phenology windows

flooding signal

and vegetation signal showed high separability. The method based on phenology windows can be easily generalized to other regions and other images because of its strong physical interpretation for rice-crayfish. On the one hand

this method has relatively low dependence on training samples. On the other hand

as long as the key phenology window can be obtained

other medium-high resolution images

such as GF-1 and GF-6

can achieve high-accuracy mapping results for rice-crayfish. Therefore

the method based on phenology windows can be effectively extended to large areas and long time series. It can provide essential information for rice production management and decision-making in the crayfish industry.

关键词

Keywords

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