Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc
Identifying the provenance of volcanic rocks can be essential for improving geological maps in the field of geology and providing a tool for the geochemical fingerprinting of ancient artifacts like millstones and anchors in the field of geoarchaeology. This study examines a new approach to this prob...
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doaj-cae2664fc8e44867aef4248031f219842021-09-25T23:39:10ZengMDPI AGApplied Sciences2076-34172021-09-01118318831810.3390/app11188318Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic ArcAthanasios G. Ouzounis0George A. Papakostas1HUMAIN-Lab, Department of Computer Science, International Hellenic University, 65404 Kavala, GreeceHUMAIN-Lab, Department of Computer Science, International Hellenic University, 65404 Kavala, GreeceIdentifying the provenance of volcanic rocks can be essential for improving geological maps in the field of geology and providing a tool for the geochemical fingerprinting of ancient artifacts like millstones and anchors in the field of geoarchaeology. This study examines a new approach to this problem by using machine learning algorithms (MLAs). In order to discriminate the four active volcanic regions of the Hellenic Volcanic Arc (HVA) in Southern Greece, MLAs were trained with geochemical data of major elements, acquired from the GEOROC database, of the volcanic rocks of the Hellenic Volcanic Arc (HVA). Ten MLAs were trained with six variations of the same dataset of volcanic rock samples originating from the HVA. The experiments revealed that the Extreme Gradient Boost model achieved the best performance, reaching 93.07% accuracy. The model developed in the framework of this research was used to implement a cloud-based application which is publicly accessible at This application can be used to predict the provenance of a volcanic rock sample, within the area of the HVA, based on its geochemical composition, easily obtained by using the X-ray fluorescence (XRF) technique.https://www.mdpi.com/2076-3417/11/18/8318machine learningHellenic Volcanic Arcgeochemistrygeoarchaeologygeochemical fingerprinting |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Athanasios G. Ouzounis George A. Papakostas |
spellingShingle |
Athanasios G. Ouzounis George A. Papakostas Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc Applied Sciences machine learning Hellenic Volcanic Arc geochemistry geoarchaeology geochemical fingerprinting |
author_facet |
Athanasios G. Ouzounis George A. Papakostas |
author_sort |
Athanasios G. Ouzounis |
title |
Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc |
title_short |
Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc |
title_full |
Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc |
title_fullStr |
Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc |
title_full_unstemmed |
Machine Learning in Discriminating Active Volcanoes of the Hellenic Volcanic Arc |
title_sort |
machine learning in discriminating active volcanoes of the hellenic volcanic arc |
publisher |
MDPI AG |
series |
Applied Sciences |
issn |
2076-3417 |
publishDate |
2021-09-01 |
description |
Identifying the provenance of volcanic rocks can be essential for improving geological maps in the field of geology and providing a tool for the geochemical fingerprinting of ancient artifacts like millstones and anchors in the field of geoarchaeology. This study examines a new approach to this problem by using machine learning algorithms (MLAs). In order to discriminate the four active volcanic regions of the Hellenic Volcanic Arc (HVA) in Southern Greece, MLAs were trained with geochemical data of major elements, acquired from the GEOROC database, of the volcanic rocks of the Hellenic Volcanic Arc (HVA). Ten MLAs were trained with six variations of the same dataset of volcanic rock samples originating from the HVA. The experiments revealed that the Extreme Gradient Boost model achieved the best performance, reaching 93.07% accuracy. The model developed in the framework of this research was used to implement a cloud-based application which is publicly accessible at This application can be used to predict the provenance of a volcanic rock sample, within the area of the HVA, based on its geochemical composition, easily obtained by using the X-ray fluorescence (XRF) technique. |
topic |
machine learning Hellenic Volcanic Arc geochemistry geoarchaeology geochemical fingerprinting |
url |
https://www.mdpi.com/2076-3417/11/18/8318 |
work_keys_str_mv |
AT athanasiosgouzounis machinelearningindiscriminatingactivevolcanoesofthehellenicvolcanicarc AT georgeapapakostas machinelearningindiscriminatingactivevolcanoesofthehellenicvolcanicarc |
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