Submarine hydrothermal processes, mirroring the geotectonic evolution of the NE Hungarian Jurassic Szarvaskő Unit

  • Gabriella B. Kiss
  • Tamás Zagyva
  • Domokos Pásztor
  • Federica Zaccarini
Original Paper
  • 28 Downloads

Abstract

The Jurassic pillow basalt of the NE Hungarian Szarvaskő Unit is part of an incomplete ophiolitic sequence, formed in a back-arc- or marginal basin of Neotethyan origin. Different, often superimposing hydrothermal processes were studied aiming to characterise them and to discover their relationship with the geotectonic evolution of the region. Closely packed pillow, pillow-fragmented hyaloclastite breccia and transition to peperitic facies of a submarine lava flow were observed. The rocks underwent primary and cooling-related local submarine hydrothermal processes immediately after eruption at ridge setting. Physico-chemical data of this process and volcanic facies analyses revealed distal formation in the submarine lava flow. A superimposing, more extensive fluid circulation system resulted in intense alteration of basalt and in the formation of mostly sulphide-filled cavities. This lower temperature, but larger-scale process was similar to VMS systems and was related to ridge setting. As a peculiarity of the Szarvaskő Unit, locally basalt may be completely altered to a grossular-bearing mineral assemblage formed by rodingitisation s.l. This unique process observed in basalt happened in ridge setting/during spreading, in the absence of known large ultramafic blocks. Epigenetic veins formed also during Alpine regional metamorphism, related to subduction/obduction. The observed hydrothermal minerals represent different steps of the geotectonic evolution of the Szarvaskő Unit, from the ridge setting and spreading till the subduction/obduction. Hence, studying the superimposing alteration mineral assemblages can be a useful tool for reconstructing the tectonic history of an ophiolitic complex. Though the found mineral parageneses are often similar, careful study can help in distinguishing the processes and characterising their P, T, and X conditions.

Keywords

Submarine fluid–rock interaction Local sulphide mineralisation Rodingitisation s.l. in basalt Volcanic facies analyses Fluid inclusion study Mineral and rock chemistry 

Notes

Acknowledgements

Constructive comments of E. Harman-Tóth (Eötvös Loránd University) field discussions with F. Molnár and English review of K. Kobelrausch and Zs. Sáry have highly improved the original version of the manuscript. Constructive suggestions of L. A. Palinkaš and an anonymous reviewer are greatly acknowledged. The University Centre for Applied Geosciences (University of Leoben) is thanked for the access to the Eugen F. Stumpfl Electron Microprobe Laboratory while the Research Instrument Core Facility (Eötvös Loránd University) is thanked for the access to the Raman laboratory. This work was supported by the Hungarian National Science Fund [Grant No. OTKA PD 112580 to G. B. Kiss] by NKFIH.

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Copyright information

© Springer-Verlag GmbH Germany, part of Springer Nature 2018

Authors and Affiliations

  1. 1.Department of MineralogyEötvös Loránd UniversityBudapestHungary
  2. 2.Department of Applied Geosciences and GeophysicsMontanuniversität LeobenLeobenAustria

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