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    Keith et al 2017 serpentinite in Burgess Shale
    September 29, 2020
    Keith et al 2017 Talc Lake BC Cambrian mud volcano
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    Spieth et al 2019 Au in Kupferschiefer ABS

    By: Magma Chem Research Institute

    $10.00

    Abstract

    12-3 Spieth, Volker, Keith, Stanley B., and Massonne, Hans-Joachim, 2019, Hydrothermal gold in Permian black shale Kupferschiefer; a hot hydrothermal extrusion meets the euxinic Zechstein Sea at 252 Ma: Abstracts With Programs Geological Society of America, v. 51, no. 5, Abstract No. 80-4.

    Categories: Abstracts, Membership Publications, Publication
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    Description

    Abstract

    12-3 Spieth, Volker, Keith, Stanley B., and Massonne, Hans-Joachim, 2019, Hydrothermal gold in Permian black shale Kupferschiefer; a hot hydrothermal extrusion meets the euxinic Zechstein Sea at 252 Ma: Abstracts With Programs Geological Society of America, v. 51, no. 5, Abstract No. 80-4.

    Detecting gold (Electrum AuAg) exsolutions in hot hydrothermal copper minerals in Permian Kupferschiefer is in the case of the European Kupferschiefer a paradigm change, with consequences.

    During the late Permian, the Zechstein sea covered more than 600,000 km2 with a centimeter thick layer of siliceous to carbonaceous euxinic sediments summarily called the Kupferschiefer. At the southern margin. The sea extends the European Copper Belt, on top of a Variscan basement with a failed rifting zone, over more than 750 km west to east, where today the Kupferschiefer with its associated polymetallic and precious metals are mined at a volume of about 500,000 tons of Cu metal per annum.

    The paradigm change is the detection of precious metals (Au, Ag) in hot hydrothermal digenite, bornite and chalcocite copper minerals causing the abandonment of the low energy synsedimentary – low temperature epigenetic depositional concept. Active hydrothermal brine emplacement from deep sourced open systems caused large scale metal, hydrocarbon and chemical mud slurry intrusions and extrusions in the shallow Kupferschiefer sea making it to be hostile to life, contributing to the Permian extinction event. New exploration, geological, geophysical, mineralogical, geochemical and sulfur isotope data support this model, that is proven in the high grade Zechstein Kupferschiefer mines of Rudna, Lubin, Polkowicze, Mansfeld, Sangerhausen, Richelsdorf and has led to the discovery of the Cu-Ag-Au Spremberg deposit, Germany.

    Some of the new research results:

    • Much of the productive Kupferschiefer is an amorphous siliceous-calcareous, hydrocarbon, metal rich slurry mud
    • Gold and silver are primary constituents of the copper mineralization associated with hydrocarbons and are of hot hydrothermal origin
    • The Zechstein Weissliegend sands belong to the hydrothermal system, are extrudites, and carry large volume and high grade primary copper mineralization
    • The depositional model is: open seeps of hot hydrothermal hydrocarbon-metal carrying slurry mud brines extruding on a shallow sea floor causing it to be hostile to life
    • Existing exploration (Spremberg, Germany) and mining activities (Lubin, Rudna, Poland) are confirming this new hydrothermal-dynamic resource model.

     

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    Abstract

    12-3 Spieth, Volker, Keith, Stanley B., and Massonne, Hans-Joachim, 2019, Hydrothermal gold in Permian black shale Kupferschiefer; a hot hydrothermal extrusion meets the euxinic Zechstein Sea at 252 Ma: Abstracts With Programs Geological Society of America, v. 51, no. 5, Abstract No. 80-4.

    Detecting gold (Electrum AuAg) exsolutions in hot hydrothermal copper minerals in Permian Kupferschiefer is in the case of the European Kupferschiefer a paradigm change, with consequences.

    During the late Permian, the Zechstein sea covered more than 600,000 km2 with a centimeter thick layer of siliceous to carbonaceous euxinic sediments summarily called the Kupferschiefer. At the southern margin. The sea extends the European Copper Belt, on top of a Variscan basement with a failed rifting zone, over more than 750 km west to east, where today the Kupferschiefer with its associated polymetallic and precious metals are mined at a volume of about 500,000 tons of Cu metal per annum.

    The paradigm change is the detection of precious metals (Au, Ag) in hot hydrothermal digenite, bornite and chalcocite copper minerals causing the abandonment of the low energy synsedimentary – low temperature epigenetic depositional concept. Active hydrothermal brine emplacement from deep sourced open systems caused large scale metal, hydrocarbon and chemical mud slurry intrusions and extrusions in the shallow Kupferschiefer sea making it to be hostile to life, contributing to the Permian extinction event. New exploration, geological, geophysical, mineralogical, geochemical and sulfur isotope data support this model, that is proven in the high grade Zechstein Kupferschiefer mines of Rudna, Lubin, Polkowicze, Mansfeld, Sangerhausen, Richelsdorf and has led to the discovery of the Cu-Ag-Au Spremberg deposit, Germany.

    Some of the new research results:

    • Much of the productive Kupferschiefer is an amorphous siliceous-calcareous, hydrocarbon, metal rich slurry mud
    • Gold and silver are primary constituents of the copper mineralization associated with hydrocarbons and are of hot hydrothermal origin
    • The Zechstein Weissliegend sands belong to the hydrothermal system, are extrudites, and carry large volume and high grade primary copper mineralization
    • The depositional model is: open seeps of hot hydrothermal hydrocarbon-metal carrying slurry mud brines extruding on a shallow sea floor causing it to be hostile to life
    • Existing exploration (Spremberg, Germany) and mining activities (Lubin, Rudna, Poland) are confirming this new hydrothermal-dynamic resource model.

     

    Key words

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