一种光谱传递函数来协调不同协议生成的现有土壤光谱库

IF 2.1 Q3 SOIL SCIENCE
Nicolas Francos, Daniela Heller-Pearlshtien, J. A. Demattê, B. van Wesemael, R. Milewski, S. Chabrillat, Nikolaos V. Tziolas, Adrian Sanz Diaz, María Julia Yagüe Ballester, A. Gholizadeh, E. Ben-Dor
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引用次数: 2

摘要

土壤光谱库(SSLs)是重要的大数据档案(与土壤属性相关的光谱),通过机器学习算法进行分析,以估计土壤属性。由于在构建ssl时应用了不同的频谱测量协议,因此有必要研究调和技术以合并数据。近年来,人们提出了几种协调技术,其中应用最多的是内部土壤标准(ISS)协议,并证明了其在光谱测量过程中纠正系统影响的能力。在这里,我们假设如果使用ISS协议重新测量来自两个(或更多)不同ssl的样本子集,则可以在现有(旧)ssl之间提取光谱传递函数(TF)。开发了一种机器学习TF策略,利用来自两个现有ssl的土壤样本,组装基于随机森林(RF)光谱的模型来预测ISS的光谱状况。这些ssl已经在没有任何ISS处理的情况下使用不同的协议进行了测量,巴西(BSSL,于2019年产生)和欧洲(LUCAS,于2009-2012年产生)ssl。为了验证TF在协调不同SSLs协议后改善土壤属性光谱评估的能力,开发了基于RF频谱的土壤有机碳(OC)估算模型。结果表明,ISS和ISS - tf的光谱观测结果具有很高的相似性,表明后ISS校正是可能的。此外,将SSLs与tf合并后,基于光谱的OC评估得到了显著改善,从R2 = 0.61, RMSE (g/kg) = 12.46提高到R2 = 0.69, RMSE (g/kg) = 11.13。鉴于我们的研究结果,本文通过对遥感、土壤调查和数字土壤制图的分析做出贡献,增强了土壤光谱学的重要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Spectral Transfer Function to Harmonize Existing Soil Spectral Libraries Generated by Different Protocols
Soil spectral libraries (SSLs) are important big-data archives (spectra associated with soil properties) that are analyzed via machine-learning algorithms to estimate soil attributes. Since different spectral measurement protocols are applied when constructing SSLs, it is necessary to examine harmonization techniques to merge the data. In recent years, several techniques for harmonization have been proposed, among which the internal soil standard (ISS) protocol is the most largely applied and has demonstrated its capacity to rectify systematic effects during spectral measurements. Here, we postulate that a spectral transfer function (TF) can be extracted between existing (old) SSLs if a subset of samples from two (or more) different SSLs are remeasured using the ISS protocol. A machine-learning TF strategy was developed, assembling random forest (RF) spectral-based models to predict the ISS spectral condition using soil samples from two existing SSLs. These SSLs had already been measured using different protocols without any ISS treatment the Brazilian (BSSL, generated in 2019) and the European (LUCAS, generated in 2009–2012) SSLs. To verify the TF’s ability to improve the spectral assessment of soil attributes after harmonizing the different SSLs’ protocols, RF spectral-based models for estimating organic carbon (OC) in soil were developed. The results showed high spectral similarities between the ISS and the ISS–TF spectral observations, indicating that post-ISS rectification is possible. Furthermore, after merging the SSLs with the TFs, the spectral-based assessment of OC was considerably improved, from R2 = 0.61, RMSE (g/kg) = 12.46 to R2 = 0.69, RMSE (g/kg) = 11.13. Given our results, this paper enhances the importance of soil spectroscopy by contributing to analyses in remote sensing, soil surveys, and digital soil mapping.
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来源期刊
Applied and Environmental Soil Science
Applied and Environmental Soil Science Earth and Planetary Sciences-Earth-Surface Processes
CiteScore
4.00
自引率
4.50%
发文量
55
审稿时长
18 weeks
期刊介绍: Applied and Environmental Soil Science is a peer-reviewed, Open Access journal that publishes research and review articles in the field of soil science. Its coverage reflects the multidisciplinary nature of soil science, and focuses on studies that take account of the dynamics and spatial heterogeneity of processes in soil. Basic studies of the physical, chemical, biochemical, and biological properties of soil, innovations in soil analysis, and the development of statistical tools will be published. Among the major environmental issues addressed will be: -Pollution by trace elements and nutrients in excess- Climate change and global warming- Soil stability and erosion- Water quality- Quality of agricultural crops- Plant nutrition- Soil hydrology- Biodiversity of soils- Role of micro- and mesofauna in soil
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