Arsenic mineralization, source, distribution, and abundance in the Kutahya region of the western Anatolia, Turkey
Environmental exposure to arsenic (As) in the Kutahya region of the western Anatolia, Turkey has been reported to cause various types of arsenic-associated skin disorders (Dogan, Dogan, Celebi, & Baris, 2005). A geological and mineralogical study was conducted to find the sources and distributio...
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description | Environmental exposure to arsenic (As) in the Kutahya region of the western Anatolia, Turkey has been reported to cause various types of arsenic-associated skin disorders (Dogan, Dogan, Celebi, & Baris, 2005). A geological and mineralogical study was conducted to find the sources and distribution of the As. Geogenic (background) levels were measured in samples collected from various sources in the Gediz, Simav, Tavsanli, Emet, Yoncali, Yenicekoy, and Muratdagi areas of the Kutahya region. Based on this analysis, we determined that natural sources are a domineering factor affecting the distribution of As, which was found: (1) mainly in evaporitic minerals, including colemanite (269-3900 ppm) and gypsum (11-99,999 ppm), but also in alunite (7-10 ppm) and chert (54-219 ppm); (2) in secondary epithermal gypsum, which has a high concentration of As in the form of realgar and orpiment along fracture zones of Mesozoic and Cenozoic carbonate aquifers; (3) in rocks, including limestone/dolomite (3-699 ppm) and travertine (5-4736 ppm), which are relatively more enriched in As than volcanics (2-14 ppm), probably because of secondary enrichment through hydrological systems; (4) in coal (1.9-46.5 ppm) in the sedimentary successions of the Tertiary basins; (5) in thermal waters, where As is unevenly distributed at concentrations varying from 0.0-0.9 mg/l. The highest As concentrations in thermal water (Gediz and Simav) correlate to the higher pH (7-9.3) and T (60-83°C) conditions and to the type of water (Na-HCO₃-SO₄ with high concentration of Ca, Mg, K, SiO₂, and Cl in the water). Changes in pH can be related to some redox reactions, such as the cation exchange reactions driving the dissolution of carbonates and silicates. Fe-oxidation, high pH values (7-9.3), presence of other trace metals (Ni, Co, Pb, Zn, Al), increased salinity (Na, Cl), high B, Li, F, and SiO, high Fe, SO₄ (magnetite, specularite-hematite, gypsum), and graphite, and the presence of U, Fe, Cu, Pb, Zn, and B, especially in the Emet, Gediz, and Simav areas, are the typical indicators for the geothermally affected water with high As content. A sixth source of As in this region is the ground (0.0-10.7 mg/l) and the surface waters (0.0022-0.01 mg/l), which are controlled by water-rock interaction, fracture system, and mixing/dilution of thermal waters. The high As concentration in groundwater corresponds to the areas where pathological changes are greatest in the habitants. Arsenic in ground water also e |
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Umran</creator><creatorcontrib>Dogan, Meral ; Dogan, A. Umran</creatorcontrib><description>Environmental exposure to arsenic (As) in the Kutahya region of the western Anatolia, Turkey has been reported to cause various types of arsenic-associated skin disorders (Dogan, Dogan, Celebi, & Baris, 2005). A geological and mineralogical study was conducted to find the sources and distribution of the As. Geogenic (background) levels were measured in samples collected from various sources in the Gediz, Simav, Tavsanli, Emet, Yoncali, Yenicekoy, and Muratdagi areas of the Kutahya region. Based on this analysis, we determined that natural sources are a domineering factor affecting the distribution of As, which was found: (1) mainly in evaporitic minerals, including colemanite (269-3900 ppm) and gypsum (11-99,999 ppm), but also in alunite (7-10 ppm) and chert (54-219 ppm); (2) in secondary epithermal gypsum, which has a high concentration of As in the form of realgar and orpiment along fracture zones of Mesozoic and Cenozoic carbonate aquifers; (3) in rocks, including limestone/dolomite (3-699 ppm) and travertine (5-4736 ppm), which are relatively more enriched in As than volcanics (2-14 ppm), probably because of secondary enrichment through hydrological systems; (4) in coal (1.9-46.5 ppm) in the sedimentary successions of the Tertiary basins; (5) in thermal waters, where As is unevenly distributed at concentrations varying from 0.0-0.9 mg/l. The highest As concentrations in thermal water (Gediz and Simav) correlate to the higher pH (7-9.3) and T (60-83°C) conditions and to the type of water (Na-HCO₃-SO₄ with high concentration of Ca, Mg, K, SiO₂, and Cl in the water). Changes in pH can be related to some redox reactions, such as the cation exchange reactions driving the dissolution of carbonates and silicates. Fe-oxidation, high pH values (7-9.3), presence of other trace metals (Ni, Co, Pb, Zn, Al), increased salinity (Na, Cl), high B, Li, F, and SiO, high Fe, SO₄ (magnetite, specularite-hematite, gypsum), and graphite, and the presence of U, Fe, Cu, Pb, Zn, and B, especially in the Emet, Gediz, and Simav areas, are the typical indicators for the geothermally affected water with high As content. A sixth source of As in this region is the ground (0.0-10.7 mg/l) and the surface waters (0.0022-0.01 mg/l), which are controlled by water-rock interaction, fracture system, and mixing/dilution of thermal waters. The high As concentration in groundwater corresponds to the areas where pathological changes are greatest in the habitants. Arsenic in ground water also effects ecology. For example, only Juriperus oxycedrus and J. varioxycedrus types of vegetation are observed in locations with the highest concentration of As in the region. Branches and roots of these plants are enriched in As.</description><identifier>ISSN: 0269-4042</identifier><identifier>EISSN: 1573-2983</identifier><identifier>DOI: 10.1007/s10653-006-9071-z</identifier><identifier>PMID: 17288006</identifier><language>eng</language><publisher>Netherlands: Dordrecht : Kluwer Academic Publishers</publisher><subject>Arsenic ; Arsenic - adverse effects ; Arsenic - analysis ; Arsenic mineralization ; Arsenic Poisoning - epidemiology ; Arsenic Poisoning - etiology ; Arsenic Poisoning - prevention & control ; Carbonates ; Cation exchange ; Cenozoic ; Chert ; Demography ; Dolomite ; Environmental Exposure ; Environmental Monitoring ; Epidemiological Monitoring ; Geologic Sediments - analysis ; groundwater ; Gypsum ; Humans ; Industrial Waste - adverse effects ; Industrial Waste - analysis ; Kutahya ; Lead ; Limestone ; Mesozoic ; Messinian crisis ; Mineralization ; Redox reactions ; Rocks ; Silicates ; Skin diseases ; Sources of arsenic ; Surface water ; Thermal water ; Trace metals ; Travertine ; Turkey ; Turkey - epidemiology ; Water Supply - analysis ; Western Anatolia</subject><ispartof>Environmental geochemistry and health, 2007-04, Vol.29 (2), p.119-129</ispartof><rights>Springer Science+Business Media B.V. 2007.</rights><lds50>peer_reviewed</lds50><woscitedreferencessubscribed>false</woscitedreferencessubscribed><citedby>FETCH-LOGICAL-a435t-109153df12d53d372ef4ef7d00302c3a2d7cd4699be8efef93b1e9bf84817eab3</citedby><cites>FETCH-LOGICAL-a435t-109153df12d53d372ef4ef7d00302c3a2d7cd4699be8efef93b1e9bf84817eab3</cites></display><links><openurl>$$Topenurl_article</openurl><openurlfulltext>$$Topenurlfull_article</openurlfulltext><thumbnail>$$Tsyndetics_thumb_exl</thumbnail><link.rule.ids>314,776,780,27901,27902</link.rule.ids><backlink>$$Uhttps://www.ncbi.nlm.nih.gov/pubmed/17288006$$D View this record in MEDLINE/PubMed$$Hfree_for_read</backlink></links><search><creatorcontrib>Dogan, Meral</creatorcontrib><creatorcontrib>Dogan, A. Umran</creatorcontrib><title>Arsenic mineralization, source, distribution, and abundance in the Kutahya region of the western Anatolia, Turkey</title><title>Environmental geochemistry and health</title><addtitle>Environ Geochem Health</addtitle><description>Environmental exposure to arsenic (As) in the Kutahya region of the western Anatolia, Turkey has been reported to cause various types of arsenic-associated skin disorders (Dogan, Dogan, Celebi, & Baris, 2005). A geological and mineralogical study was conducted to find the sources and distribution of the As. Geogenic (background) levels were measured in samples collected from various sources in the Gediz, Simav, Tavsanli, Emet, Yoncali, Yenicekoy, and Muratdagi areas of the Kutahya region. Based on this analysis, we determined that natural sources are a domineering factor affecting the distribution of As, which was found: (1) mainly in evaporitic minerals, including colemanite (269-3900 ppm) and gypsum (11-99,999 ppm), but also in alunite (7-10 ppm) and chert (54-219 ppm); (2) in secondary epithermal gypsum, which has a high concentration of As in the form of realgar and orpiment along fracture zones of Mesozoic and Cenozoic carbonate aquifers; (3) in rocks, including limestone/dolomite (3-699 ppm) and travertine (5-4736 ppm), which are relatively more enriched in As than volcanics (2-14 ppm), probably because of secondary enrichment through hydrological systems; (4) in coal (1.9-46.5 ppm) in the sedimentary successions of the Tertiary basins; (5) in thermal waters, where As is unevenly distributed at concentrations varying from 0.0-0.9 mg/l. The highest As concentrations in thermal water (Gediz and Simav) correlate to the higher pH (7-9.3) and T (60-83°C) conditions and to the type of water (Na-HCO₃-SO₄ with high concentration of Ca, Mg, K, SiO₂, and Cl in the water). Changes in pH can be related to some redox reactions, such as the cation exchange reactions driving the dissolution of carbonates and silicates. Fe-oxidation, high pH values (7-9.3), presence of other trace metals (Ni, Co, Pb, Zn, Al), increased salinity (Na, Cl), high B, Li, F, and SiO, high Fe, SO₄ (magnetite, specularite-hematite, gypsum), and graphite, and the presence of U, Fe, Cu, Pb, Zn, and B, especially in the Emet, Gediz, and Simav areas, are the typical indicators for the geothermally affected water with high As content. A sixth source of As in this region is the ground (0.0-10.7 mg/l) and the surface waters (0.0022-0.01 mg/l), which are controlled by water-rock interaction, fracture system, and mixing/dilution of thermal waters. The high As concentration in groundwater corresponds to the areas where pathological changes are greatest in the habitants. Arsenic in ground water also effects ecology. For example, only Juriperus oxycedrus and J. varioxycedrus types of vegetation are observed in locations with the highest concentration of As in the region. Branches and roots of these plants are enriched in As.</description><subject>Arsenic</subject><subject>Arsenic - adverse effects</subject><subject>Arsenic - analysis</subject><subject>Arsenic mineralization</subject><subject>Arsenic Poisoning - epidemiology</subject><subject>Arsenic Poisoning - etiology</subject><subject>Arsenic Poisoning - prevention & control</subject><subject>Carbonates</subject><subject>Cation exchange</subject><subject>Cenozoic</subject><subject>Chert</subject><subject>Demography</subject><subject>Dolomite</subject><subject>Environmental Exposure</subject><subject>Environmental Monitoring</subject><subject>Epidemiological Monitoring</subject><subject>Geologic Sediments - analysis</subject><subject>groundwater</subject><subject>Gypsum</subject><subject>Humans</subject><subject>Industrial Waste - adverse effects</subject><subject>Industrial Waste - analysis</subject><subject>Kutahya</subject><subject>Lead</subject><subject>Limestone</subject><subject>Mesozoic</subject><subject>Messinian crisis</subject><subject>Mineralization</subject><subject>Redox reactions</subject><subject>Rocks</subject><subject>Silicates</subject><subject>Skin diseases</subject><subject>Sources of arsenic</subject><subject>Surface water</subject><subject>Thermal water</subject><subject>Trace metals</subject><subject>Travertine</subject><subject>Turkey</subject><subject>Turkey - epidemiology</subject><subject>Water Supply - analysis</subject><subject>Western Anatolia</subject><issn>0269-4042</issn><issn>1573-2983</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2007</creationdate><recordtype>article</recordtype><sourceid>EIF</sourceid><sourceid>BENPR</sourceid><recordid>eNqFkU9v1DAQxS1ERbeFD8AFLA6cNmX8J3F8XFVQEJV6oD1bTjxuXbJOayeqdj99XbISEhdOI41-72nmPULeMzhjAOpLZtDUogJoKg2KVftXZMVqJSquW_GarIA3upIg-TE5yfkeALSS7RtyzBRv2yJbkcdNyhhDT7chYrJD2NspjHFN8zinHtfUhTyl0M3L1kZHbTdHZ2OPNEQ63SH9OU_2bmdpwtsC0dH_2T5hnjBFuol2Godg1_R6Tr9x95YceTtkfHeYp-Tm29fr8-_V5dXFj_PNZWWlqKeKgWa1cJ5xV4ZQHL1ErxyAAN4Ly53qnWy07rBFj16LjqHufCtbptB24pR8Xnwf0vg4l2PMNuQeh8FGHOdsmG6EbLX-PyiVlkyLAn76B7wvIcXyhFGyRNpw3haILVCfxpwTevOQwtamnWFgXlozS2umxG9eWjP7ovlwMJ67Lbq_ikNNBfi4AN6Oxt6mkM3NLw5MFL9aC9mIZ5zpnOA</recordid><startdate>20070401</startdate><enddate>20070401</enddate><creator>Dogan, Meral</creator><creator>Dogan, A. 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Umran</author></sort><facets><frbrtype>5</frbrtype><frbrgroupid>cdi_FETCH-LOGICAL-a435t-109153df12d53d372ef4ef7d00302c3a2d7cd4699be8efef93b1e9bf84817eab3</frbrgroupid><rsrctype>articles</rsrctype><prefilter>articles</prefilter><language>eng</language><creationdate>2007</creationdate><topic>Arsenic</topic><topic>Arsenic - adverse effects</topic><topic>Arsenic - analysis</topic><topic>Arsenic mineralization</topic><topic>Arsenic Poisoning - epidemiology</topic><topic>Arsenic Poisoning - etiology</topic><topic>Arsenic Poisoning - prevention & control</topic><topic>Carbonates</topic><topic>Cation exchange</topic><topic>Cenozoic</topic><topic>Chert</topic><topic>Demography</topic><topic>Dolomite</topic><topic>Environmental Exposure</topic><topic>Environmental Monitoring</topic><topic>Epidemiological Monitoring</topic><topic>Geologic Sediments - analysis</topic><topic>groundwater</topic><topic>Gypsum</topic><topic>Humans</topic><topic>Industrial Waste - adverse effects</topic><topic>Industrial Waste - analysis</topic><topic>Kutahya</topic><topic>Lead</topic><topic>Limestone</topic><topic>Mesozoic</topic><topic>Messinian crisis</topic><topic>Mineralization</topic><topic>Redox reactions</topic><topic>Rocks</topic><topic>Silicates</topic><topic>Skin diseases</topic><topic>Sources of arsenic</topic><topic>Surface water</topic><topic>Thermal water</topic><topic>Trace metals</topic><topic>Travertine</topic><topic>Turkey</topic><topic>Turkey - epidemiology</topic><topic>Water Supply - analysis</topic><topic>Western Anatolia</topic><toplevel>peer_reviewed</toplevel><toplevel>online_resources</toplevel><creatorcontrib>Dogan, Meral</creatorcontrib><creatorcontrib>Dogan, A. 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Umran</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Arsenic mineralization, source, distribution, and abundance in the Kutahya region of the western Anatolia, Turkey</atitle><jtitle>Environmental geochemistry and health</jtitle><addtitle>Environ Geochem Health</addtitle><date>2007-04-01</date><risdate>2007</risdate><volume>29</volume><issue>2</issue><spage>119</spage><epage>129</epage><pages>119-129</pages><issn>0269-4042</issn><eissn>1573-2983</eissn><abstract>Environmental exposure to arsenic (As) in the Kutahya region of the western Anatolia, Turkey has been reported to cause various types of arsenic-associated skin disorders (Dogan, Dogan, Celebi, & Baris, 2005). A geological and mineralogical study was conducted to find the sources and distribution of the As. Geogenic (background) levels were measured in samples collected from various sources in the Gediz, Simav, Tavsanli, Emet, Yoncali, Yenicekoy, and Muratdagi areas of the Kutahya region. Based on this analysis, we determined that natural sources are a domineering factor affecting the distribution of As, which was found: (1) mainly in evaporitic minerals, including colemanite (269-3900 ppm) and gypsum (11-99,999 ppm), but also in alunite (7-10 ppm) and chert (54-219 ppm); (2) in secondary epithermal gypsum, which has a high concentration of As in the form of realgar and orpiment along fracture zones of Mesozoic and Cenozoic carbonate aquifers; (3) in rocks, including limestone/dolomite (3-699 ppm) and travertine (5-4736 ppm), which are relatively more enriched in As than volcanics (2-14 ppm), probably because of secondary enrichment through hydrological systems; (4) in coal (1.9-46.5 ppm) in the sedimentary successions of the Tertiary basins; (5) in thermal waters, where As is unevenly distributed at concentrations varying from 0.0-0.9 mg/l. The highest As concentrations in thermal water (Gediz and Simav) correlate to the higher pH (7-9.3) and T (60-83°C) conditions and to the type of water (Na-HCO₃-SO₄ with high concentration of Ca, Mg, K, SiO₂, and Cl in the water). Changes in pH can be related to some redox reactions, such as the cation exchange reactions driving the dissolution of carbonates and silicates. Fe-oxidation, high pH values (7-9.3), presence of other trace metals (Ni, Co, Pb, Zn, Al), increased salinity (Na, Cl), high B, Li, F, and SiO, high Fe, SO₄ (magnetite, specularite-hematite, gypsum), and graphite, and the presence of U, Fe, Cu, Pb, Zn, and B, especially in the Emet, Gediz, and Simav areas, are the typical indicators for the geothermally affected water with high As content. A sixth source of As in this region is the ground (0.0-10.7 mg/l) and the surface waters (0.0022-0.01 mg/l), which are controlled by water-rock interaction, fracture system, and mixing/dilution of thermal waters. The high As concentration in groundwater corresponds to the areas where pathological changes are greatest in the habitants. Arsenic in ground water also effects ecology. For example, only Juriperus oxycedrus and J. varioxycedrus types of vegetation are observed in locations with the highest concentration of As in the region. Branches and roots of these plants are enriched in As.</abstract><cop>Netherlands</cop><pub>Dordrecht : Kluwer Academic Publishers</pub><pmid>17288006</pmid><doi>10.1007/s10653-006-9071-z</doi><tpages>11</tpages></addata></record> |
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subjects | Arsenic Arsenic - adverse effects Arsenic - analysis Arsenic mineralization Arsenic Poisoning - epidemiology Arsenic Poisoning - etiology Arsenic Poisoning - prevention & control Carbonates Cation exchange Cenozoic Chert Demography Dolomite Environmental Exposure Environmental Monitoring Epidemiological Monitoring Geologic Sediments - analysis groundwater Gypsum Humans Industrial Waste - adverse effects Industrial Waste - analysis Kutahya Lead Limestone Mesozoic Messinian crisis Mineralization Redox reactions Rocks Silicates Skin diseases Sources of arsenic Surface water Thermal water Trace metals Travertine Turkey Turkey - epidemiology Water Supply - analysis Western Anatolia |
title | Arsenic mineralization, source, distribution, and abundance in the Kutahya region of the western Anatolia, Turkey |
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