利用地质统计学和遥感技术将作物生产数据降尺度为精细估算:棉花纤维质量绘图案例研究

IF 5.4 2区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY
M. J. Tilse, P. Filippi, B. Whelan, T. F. A. Bishop
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引用次数: 0

摘要

目的 使用棉花产量和纤维质量(长度和微米)数据(以模块(区域/区块)平均值衡量),说明对作物生产数据进行降尺度区域观测的通用方法。方法降尺度算法的两个特点是:(i) 利用遥感图像等精细分辨率预测因子进行回归,估计产量和质量的空间趋势;(ii) 在没有有用的空间趋势模型的情况下,利用区域到点克里金法(A2PK)降尺度观测数据,或利用趋势模型的残差(如果有用)降尺度测量区域平均值。结果棉花纤维产量与遥感协变量的相关性比棉花纤维细度的相关性强,与棉花纤维长度的相关性相比要强得多。在几乎所有的棉田中,利用带或不带 A2PK 的遥感协变量进行回归,可以估算出棉花纤维产量和细度的空间趋势,模型质量较高。相反,棉花纤维长度的模型质量较差,空模型和趋势模型之间的模型性能差异很小。当使用精细分辨率的产量观测数据测试降尺度方法时,与模块分辨率相比,精细分辨率下的模型性能较差,这是意料之中的。更精细的空间分辨率可使种植者或农学家更好地了解田间变异的驱动因素,评估管理影响,并以更高的分辨率制定管理计划。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Downscaling crop production data to fine scale estimates with geostatistics and remote sensing: a case study in mapping cotton fibre quality

Downscaling crop production data to fine scale estimates with geostatistics and remote sensing: a case study in mapping cotton fibre quality

Purpose

A generalised approach to downscale areal observations of crop production data is illustrated using cotton yield and fibre quality (length and micronaire) data which is measured as a module (areal/block) average.

Methods

Two features of the downscaling algorithm are; (i) to estimate spatial trends in yield and quality using regression with fine resolution predictors such as remote sensing imagery, and (ii) use area-to-point kriging (A2PK) to downscale either the observations in the absence of a useful spatial trend model or the residuals from the trend model (if useful) from areal averages.

Results

Correlations with remote sensing covariates were stronger for cotton fibre yield than for cotton fibre micronaire, and much stronger compared to those for cotton fibre length. Spatial trends in cotton fibre yield and micronaire could be estimated with good model quality using regression with remote sensing covariates with or without A2PK in almost all fields. Conversely, model quality was poorer for cotton fibre length and there was only a small difference in model performance between the null and trend models. When the downscaling approach was tested using fine-resolution yield observations, model performance was poorer at a fine-resolution compared to the module-resolution, which was to be expected.

Conclusion

This approach enables the creation of high-resolution raster maps of variables of interest with a much finer spatial resolution compared to the areal observations, and can be applied for any areal averaged crop production data in a range of broadacre and horticultural industries (e.g. sugarcane, apples, citrus). The finer spatial resolution may allow growers or agronomists to better understand the drivers of variability within fields, assess management implications, and create management plans at a higher resolution.

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来源期刊
Precision Agriculture
Precision Agriculture 农林科学-农业综合
CiteScore
12.30
自引率
8.10%
发文量
103
审稿时长
>24 weeks
期刊介绍: Precision Agriculture promotes the most innovative results coming from the research in the field of precision agriculture. It provides an effective forum for disseminating original and fundamental research and experience in the rapidly advancing area of precision farming. There are many topics in the field of precision agriculture; therefore, the topics that are addressed include, but are not limited to: Natural Resources Variability: Soil and landscape variability, digital elevation models, soil mapping, geostatistics, geographic information systems, microclimate, weather forecasting, remote sensing, management units, scale, etc. Managing Variability: Sampling techniques, site-specific nutrient and crop protection chemical recommendation, crop quality, tillage, seed density, seed variety, yield mapping, remote sensing, record keeping systems, data interpretation and use, crops (corn, wheat, sugar beets, potatoes, peanut, cotton, vegetables, etc.), management scale, etc. Engineering Technology: Computers, positioning systems, DGPS, machinery, tillage, planting, nutrient and crop protection implements, manure, irrigation, fertigation, yield monitor and mapping, soil physical and chemical characteristic sensors, weed/pest mapping, etc. Profitability: MEY, net returns, BMPs, optimum recommendations, crop quality, technology cost, sustainability, social impacts, marketing, cooperatives, farm scale, crop type, etc. Environment: Nutrient, crop protection chemicals, sediments, leaching, runoff, practices, field, watershed, on/off farm, artificial drainage, ground water, surface water, etc. Technology Transfer: Skill needs, education, training, outreach, methods, surveys, agri-business, producers, distance education, Internet, simulations models, decision support systems, expert systems, on-farm experimentation, partnerships, quality of rural life, etc.
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