Multivariate chemometrics as a key tool for prediction of K and Fe in a diverse German agricultural soil-set using EDXRF

被引:15
作者
Buechele, Dominique [1 ,2 ]
Chao, Madlen [1 ,2 ]
Ostermann, Markus [1 ]
Leenen, Matthias [3 ]
Bald, Ilko [1 ,2 ]
机构
[1] BAM Fed Inst Mat Res & Testing, Proc Analyt Technol, Richard Willstatter Str 11, D-12489 Berlin, Germany
[2] Univ Potsdam, Inst Chem Phys Chem, Karl Liebknecht Str 24-25, D-14476 Potsdam, Germany
[3] Univ Bonn, Inst Crop Sci & Resource Conservat INRES Soil Sci, Nussallee 13, D-53115 Bonn, Germany
关键词
X-RAY-FLUORESCENCE; PRINCIPAL COMPONENT ANALYSIS; FIELD PORTABLE XRF; SPECTROSCOPY; SPECTROMETRY; QUALITY; TRACE; ELEMENTS; TEXTURE; CU;
D O I
10.1038/s41598-019-53426-5
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Within the framework of precision agriculture, the determination of various soil properties is moving into focus, especially the demand for sensors suitable for in-situ measurements. Energy-dispersive X-ray fluorescence (EDXRF) can be a powerful tool for this purpose. In this study a huge diverse soil set (n = 598) from 12 different study sites in Germany was analysed with EDXRF. First, a principal component analysis (PCA) was performed to identify possible similarities among the sample set. Clustering was observed within the four texture classes clay, loam, silt and sand, as clay samples contain high and sandy soils low iron mass fractions. Furthermore, the potential of uni- and multivariate data evaluation with partial least squares regression (PLSR) was assessed for accurate determination of nutrients in German agricultural samples using two calibration sample sets. Potassium and iron were chosen for testing the performance of both models. Prediction of these nutrients in 598 German soil samples with EDXRF was more accurate using PLSR which is confirmed by a better overall averaged deviation and PLSR should therefore be preferred.
引用
收藏
页数:11
相关论文
共 42 条
[1]   Recent Developments on Nanotechnology in Agriculture: Plant Mineral Nutrition, Health, and Interactions with Soil Microflora [J].
Achari, Gauri A. ;
Kowshik, Meenal .
JOURNAL OF AGRICULTURAL AND FOOD CHEMISTRY, 2018, 66 (33) :8647-8661
[2]   On-the-go soil sensors for precision agriculture [J].
Adamchuk, VI ;
Hummel, JW ;
Morgan, MT ;
Upadhyaya, SK .
COMPUTERS AND ELECTRONICS IN AGRICULTURE, 2004, 44 (01) :71-91
[3]   Principal component analysis-assisted energy dispersive X-ray fluorescence spectroscopy for non-invasive quality assurance characterization of complex matrix materials [J].
Angeyo, K. H. ;
Gari, S. ;
Mangala, J. M. ;
Mustapha, A. O. .
X-RAY SPECTROMETRY, 2012, 41 (05) :321-327
[4]  
[Anonymous], 2010, Scheffer/Schachtschabel-Soil Science Textbook (Lehrbuch der Bodenkunde)
[5]  
de Carvalho GGA, 2018, J ANAL ATOM SPECTROM, V33, P919, DOI [10.1039/c7ja00293a, 10.1039/C7JA00293A]
[6]  
Awasthi S., 2017, Analytical Chemistry Research, V12, P10, DOI DOI 10.1016/j.ancr.2017.01.001
[7]   Towards quantitative laser-induced breakdown spectroscopy analysis of soil samples [J].
Bousquet, B. ;
Sirven, J. -B. ;
Canioni, L. .
SPECTROCHIMICA ACTA PART B-ATOMIC SPECTROSCOPY, 2007, 62 (12) :1582-1589
[8]   Combining XRF analysis and chemometric tools for a preliminary classification of argentine soils [J].
Custo, G ;
Boeykens, S ;
Cicerone, D ;
Vázquez, C .
X-RAY SPECTROMETRY, 2002, 31 (02) :132-135
[9]   Influence of long-term mineral fertilization on metal contents and properties of soil samples taken from different locations in Hesse, Germany [J].
Czarnecki, S. ;
Duering, R-A .
SOIL, 2015, 1 (01) :23-33
[10]   Principal component analysis of the geochemistry of soil developed on till in Northern Ireland [J].
Dempster, Michael ;
Dunlop, Paul ;
Scheib, Andreas ;
Cooper, Mark .
JOURNAL OF MAPS, 2013, 9 (03) :373-389