Evolution of diagenetic conditions and burial history in Buntsandstein Gp. fractured sandstones (Upper Rhine Graben) from in-situ δ18O of quartz and 40Ar/39Ar geochronology of K-feldspar overgrowths

In-situ δ 18 O measured in the quartz overgrowths help identify temperature and fluid origin variations responsible for cementation of the pore network (matrix and fracture) in the Buntsandstein Gp. sandstone reservoirs within the Upper Rhine Graben. The overgrowths record two types of the evolution...

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Veröffentlicht in:International journal of earth sciences : Geologische Rundschau 2021-11, Vol.110 (8), p.2779-2802
Hauptverfasser: Bossennec, Claire, Géraud, Yves, Böcker, Johannes, Klug, Bernd, Mattioni, Luca, Sizun, Jean-Pierre, Sudo, Masafumi, Moretti, Isabelle
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container_title International journal of earth sciences : Geologische Rundschau
container_volume 110
creator Bossennec, Claire
Géraud, Yves
Böcker, Johannes
Klug, Bernd
Mattioni, Luca
Sizun, Jean-Pierre
Sudo, Masafumi
Moretti, Isabelle
description In-situ δ 18 O measured in the quartz overgrowths help identify temperature and fluid origin variations responsible for cementation of the pore network (matrix and fracture) in the Buntsandstein Gp. sandstone reservoirs within the Upper Rhine Graben. The overgrowths record two types of the evolution of δ 18 O: 1) a monotonous decrease of the δ 18 O overgrowth interpreted as linked to an increasing burial temperature and 2) random fluctuations, interpreted as pointing out the injection of allochthonous fluids in faulted areas, on the cementation processes of the pore network (both intergranular and fracture planes). Fluids causing the quartz cementation are either autochthonous buffered in 18 O from clay illitisation; or allochthonous fluids of meteoric origin with δ 18 O below − 5%. These allochthonous fluids are in thermal disequilibrium with the host sandstone. The measured signal of δ 18 O overgrowth measured from samples and calculated curves testing hypothetic δ 18 O fluid are compared to T–t evolution during burial. This modelling proposes the initiation of quartz cementation during the Jurassic and is validated by the in-situ 40 Ar/ 39 Ar dating results obtained on the feldspar overgrowths predating quartz overgrowths. A similar diagenetic history is recorded on the graben shoulders and in the buried parts of the basin. Here, the beginning of the pore network cementation predates the structuration in blocks of the basin before the Cenozoic graben opening.
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subjects Allochthonous deposits
Cementation
Cenozoic
Diagenesis
Earth and Environmental Science
Earth Sciences
Environmental Sciences
Evolution
Feldspars
Fluids
Geochemistry
Geochronology
Geochronometry
Geology
Geophysics/Geodesy
Graben
Intergranular fracture
Isotopes
Jurassic
Mineral Resources
Mineralogy
Original Paper
Quartz
Radiometric dating
Sandstone
Sciences of the Universe
Sedimentary rocks
Sedimentology
Structural Geology
Temperature
title Evolution of diagenetic conditions and burial history in Buntsandstein Gp. fractured sandstones (Upper Rhine Graben) from in-situ δ18O of quartz and 40Ar/39Ar geochronology of K-feldspar overgrowths
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