2017
DOI: 10.1080/17538947.2017.1349841
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Mapping fractional landscape soils and vegetation components from Hyperion satellite imagery using an unsupervised machine-learning workflow

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Cited by 7 publications
(7 citation statements)
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“…Other challenges for satellite applications are the relatively low image resolution, restricted availability of high-quality temporal and spatial images, primarily as a result of adverse atmospheric conditions and sensor requirements [71]. For example, in Brazil, Friedel et al [72] utilized spectroscopy techniques and spaceborne (Hyperion satellite) imagery to quantify soil obtained from the tropics. They indicated that because of the presence of shadow within the study area, satellite image efficiency was hampered.…”
Section: Discussionmentioning
confidence: 99%
“…Other challenges for satellite applications are the relatively low image resolution, restricted availability of high-quality temporal and spatial images, primarily as a result of adverse atmospheric conditions and sensor requirements [71]. For example, in Brazil, Friedel et al [72] utilized spectroscopy techniques and spaceborne (Hyperion satellite) imagery to quantify soil obtained from the tropics. They indicated that because of the presence of shadow within the study area, satellite image efficiency was hampered.…”
Section: Discussionmentioning
confidence: 99%
“…The authors in [12,13] stated that Sentinel-2 data indicate a high potential for applied forestry and vegetation analysis. The authors in [14] used unsupervised machine learning to map landscape…”
mentioning
confidence: 99%
“…However, as a rich and diverse data source, combining and preprocessing RS data is often expensive for ML, requiring standardizing data across sources; thus, an automated data fusion procedure (Bean et al, 2018) and pattern extraction scheme (Wang et al, 2019) were needed to expand ML applicability. Friedel et al (2018) proposed a workflow for soil mapping to efficiently use RS spectral data for ensem-ble clustering before training unsupervised self-organizing map network. Based on RS information, global soil texture mapping accuracies have also been evaluated using CNN (Beucher et al, 2022), ANN (Ghanbarian & Yokeley, 2021), and other MLs, such as SVM (Ließ et al, 2021;Okujeni et al, 2018), BRT (Gebauer et al, 2022), and Cubist tree (Silvero et al, 2021).…”
Section: Soil Texturesmentioning
confidence: 99%