Sulphuric acid geofluid contribution on thermal carbonate coastal springs (Italy)

Hypogenic caves, developed by sulphuric acid speleogenesis, are known all over the world among which the Santa Cesarea Terme caves have been included. They are four submerged caves, located along a coastal carbonate sector in Southern Italy and hosting the outflow of coastal springs of thermal mixed...

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Veröffentlicht in:Environmental earth sciences 2018-07, Vol.77 (13), p.1-18, Article 517
Hauptverfasser: Zuffianò, L. E., Polemio, M., Laviano, R., De Giorgio, G., Pallara, M., Limoni, P. P., Santaloia, F.
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container_end_page 18
container_issue 13
container_start_page 1
container_title Environmental earth sciences
container_volume 77
creator Zuffianò, L. E.
Polemio, M.
Laviano, R.
De Giorgio, G.
Pallara, M.
Limoni, P. P.
Santaloia, F.
description Hypogenic caves, developed by sulphuric acid speleogenesis, are known all over the world among which the Santa Cesarea Terme caves have been included. They are four submerged caves, located along a coastal carbonate sector in Southern Italy and hosting the outflow of coastal springs of thermal mixed waters (from 21 to 33 °C). These waters derive from the mixing of three water end members: the fresh pure groundwater of a wide karstic aquifer, the deep sulphur thermal water and the seawater. This cave system represents an almost unique case of hypogenic sea caves in carbonate environment. The thermal mixed waters have a different effect on the surrounding rocks of the caves, influencing the sulphuric acid speleogenetic process within the whole cave system. To understand the complex and overlapping natural processes acting on the development of these coastal caves, a multidisciplinary study has been carried out. This study has integrated all the data resulting from different methods and technologies, merging morphology, structural geology, hydrogeology, hydrogeochemistry and mineralogy. This multidisciplinary study has allowed to define the main geochemical processes acting within these caves, including the cave development and the formation of the mineral concretions. After the introduction of H 2 S in the thermal waters, formed by the reduction of sulphates in the sedimentary deposits crossed at depth in the offshore, the oxidation occurs within the caves, producing sulphuric acid. Favoured by upwelling deep-seated thermal flows, this acid dissolves the limestone, with condensation corrosion process that involve replacement of limestone rock with gypsum. This process has resulted to be more active and remarkable within the Gattulla Cave, one of the Santa Cesarea Terme sea caves.
doi_str_mv 10.1007/s12665-018-7688-8
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The thermal mixed waters have a different effect on the surrounding rocks of the caves, influencing the sulphuric acid speleogenetic process within the whole cave system. To understand the complex and overlapping natural processes acting on the development of these coastal caves, a multidisciplinary study has been carried out. This study has integrated all the data resulting from different methods and technologies, merging morphology, structural geology, hydrogeology, hydrogeochemistry and mineralogy. This multidisciplinary study has allowed to define the main geochemical processes acting within these caves, including the cave development and the formation of the mineral concretions. After the introduction of H 2 S in the thermal waters, formed by the reduction of sulphates in the sedimentary deposits crossed at depth in the offshore, the oxidation occurs within the caves, producing sulphuric acid. Favoured by upwelling deep-seated thermal flows, this acid dissolves the limestone, with condensation corrosion process that involve replacement of limestone rock with gypsum. 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This cave system represents an almost unique case of hypogenic sea caves in carbonate environment. The thermal mixed waters have a different effect on the surrounding rocks of the caves, influencing the sulphuric acid speleogenetic process within the whole cave system. To understand the complex and overlapping natural processes acting on the development of these coastal caves, a multidisciplinary study has been carried out. This study has integrated all the data resulting from different methods and technologies, merging morphology, structural geology, hydrogeology, hydrogeochemistry and mineralogy. This multidisciplinary study has allowed to define the main geochemical processes acting within these caves, including the cave development and the formation of the mineral concretions. 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subjects Acids
Aquifers
Biogeosciences
Carbonates
Caves
Coastal environments
Concretions
Condensation
Corrosion
Earth and Environmental Science
Earth Sciences
Environmental Science and Engineering
Geochemistry
Geology
Groundwater
Gypsum
Hydrogen sulfide
Hydrogeochemistry
Hydrogeology
Hydrology/Water Resources
Karst
Limestone
Mineralogy
Morphology
Multidisciplinary research
Ocean circulation
Offshore
Original Article
Outflow
Oxidation
Rocks
Seawater
Sediment
Sedimentary structures
Structural geology
Sulfur
Sulfuric acid
Sulphates
Sulphur
Sulphuric acid
Terrestrial Pollution
Thermal water
Upwelling
Water springs
title Sulphuric acid geofluid contribution on thermal carbonate coastal springs (Italy)
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