Morphostratigraphy of landform series from the Late Cretaceous to the Quaternary: The “3 + 1” model of the quadripartite watershed system at the NW edge of the Bohemian Massif

Publikation: Beitrag in FachzeitschriftÜbersichtsarbeitForschungPeer-Review

Autoren

  • Harald G. Dill
  • Sorin Ionut Balaban
  • Martin Füssl
  • Herbert Pöllmann
  • Andrei Buzatu

Organisationseinheiten

Externe Organisationen

  • Birkbeck University of London
  • Regierung von Oberfranken
  • Martin-Luther-Universität Halle-Wittenberg
  • Al. I. Cuza University
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Details

OriginalspracheEnglisch
Aufsatznummer108489
FachzeitschriftGeomorphology
Jahrgang419
Frühes Online-Datum14 Okt. 2022
PublikationsstatusVeröffentlicht - 15 Dez. 2022

Abstract

The quadripartite/ orthogonal and domal Central European Watershed (CEW) at the NW edge of the Bohemian Massif has been studied by a terrain analysis (fluvial, colluvial, cryogenic, aeolian landforms) combined with geochronological dating (hydraulic correlation) of landforms and the resultant hydrographic correlation of relief generations. It resulted in a morphostratigraphic review (subdivided into a protostage- creating the terrestrial platform, prestages - controlling the physical and chemical regime of the landform series, and stages- fine-tuning of the modern landscape) of the Late Cretaceous to Quaternary relief generations that lead to the creation of the “3 + 1” model of the CEW. The term “3 + 1” refers to a triple junction supplemented with a fourth branch. The characteristic land-form type of the CEW is called the “intermediate sediment trap”, a wetland caused by structural or impact-related damming processes. The evolution of the CEW is discussed by a set of four different drivers: The endogenous 1st order drivers are activities along lineamentary fault zones which demarcate the watershed systems. The 2nd order endogenous driver is the alkaline volcanic activity from the Late Cretaceous to the Holocene which contributed to dome-and starlike geomorphological expression. The 3rd order impact-related driver of the Ries Meteorite impact provoked a deflection and damming of channels thereby leading to one of the intermediate sediment traps. The 4th exogenous driver is the climate change. It is accountable for the transition from fluvial incision during the Late Cretaceous and Paleogene (humid-tropical climate zone) to a planation during the Neogene (tropical wet and dry paleoclimate zone). The Quaternary humid mid-latitude, dry continental, and (peri)glacial climate zones put the final touch on the CEW's geomorphological outward appearance. The influence of mining, metallurgy, and mineral processing on the landscape debated in the final stage 8 heralds the onset of the Anthropocene in the CEW. This review of the evolution of the CEW also lends support to the idea that an advanced terrain analysis can be an efficient tool for mineral exploration.

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Morphostratigraphy of landform series from the Late Cretaceous to the Quaternary: The “3 + 1” model of the quadripartite watershed system at the NW edge of the Bohemian Massif. / Dill, Harald G.; Balaban, Sorin Ionut; Füssl, Martin et al.
in: Geomorphology, Jahrgang 419, 108489, 15.12.2022.

Publikation: Beitrag in FachzeitschriftÜbersichtsarbeitForschungPeer-Review

Dill HG, Balaban SI, Füssl M, Pöllmann H, Buzatu A. Morphostratigraphy of landform series from the Late Cretaceous to the Quaternary: The “3 + 1” model of the quadripartite watershed system at the NW edge of the Bohemian Massif. Geomorphology. 2022 Dez 15;419:108489. Epub 2022 Okt 14. doi: 10.1016/j.geomorph.2022.108489
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title = "Morphostratigraphy of landform series from the Late Cretaceous to the Quaternary: The “3 + 1” model of the quadripartite watershed system at the NW edge of the Bohemian Massif",
abstract = "The quadripartite/ orthogonal and domal Central European Watershed (CEW) at the NW edge of the Bohemian Massif has been studied by a terrain analysis (fluvial, colluvial, cryogenic, aeolian landforms) combined with geochronological dating (hydraulic correlation) of landforms and the resultant hydrographic correlation of relief generations. It resulted in a morphostratigraphic review (subdivided into a protostage- creating the terrestrial platform, prestages - controlling the physical and chemical regime of the landform series, and stages- fine-tuning of the modern landscape) of the Late Cretaceous to Quaternary relief generations that lead to the creation of the “3 + 1” model of the CEW. The term “3 + 1” refers to a triple junction supplemented with a fourth branch. The characteristic land-form type of the CEW is called the “intermediate sediment trap”, a wetland caused by structural or impact-related damming processes. The evolution of the CEW is discussed by a set of four different drivers: The endogenous 1st order drivers are activities along lineamentary fault zones which demarcate the watershed systems. The 2nd order endogenous driver is the alkaline volcanic activity from the Late Cretaceous to the Holocene which contributed to dome-and starlike geomorphological expression. The 3rd order impact-related driver of the Ries Meteorite impact provoked a deflection and damming of channels thereby leading to one of the intermediate sediment traps. The 4th exogenous driver is the climate change. It is accountable for the transition from fluvial incision during the Late Cretaceous and Paleogene (humid-tropical climate zone) to a planation during the Neogene (tropical wet and dry paleoclimate zone). The Quaternary humid mid-latitude, dry continental, and (peri)glacial climate zones put the final touch on the CEW's geomorphological outward appearance. The influence of mining, metallurgy, and mineral processing on the landscape debated in the final stage 8 heralds the onset of the Anthropocene in the CEW. This review of the evolution of the CEW also lends support to the idea that an advanced terrain analysis can be an efficient tool for mineral exploration.",
keywords = "Central Europe, Hydraulic correlation, Long-term drainage evolution, Palynological age, Radiometric dating",
author = "Dill, {Harald G.} and Balaban, {Sorin Ionut} and Martin F{\"u}ssl and Herbert P{\"o}llmann and Andrei Buzatu",
note = "Funding information: We thank two reviewers for their constructive comments to our paper. We also extend our gratitude to the editor-in-chief A. A. Beylich for his editorial handling of our review submitted to GEOMORPHOLOGY.",
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doi = "10.1016/j.geomorph.2022.108489",
language = "English",
volume = "419",
journal = "Geomorphology",
issn = "0169-555X",
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Download

TY - JOUR

T1 - Morphostratigraphy of landform series from the Late Cretaceous to the Quaternary

T2 - The “3 + 1” model of the quadripartite watershed system at the NW edge of the Bohemian Massif

AU - Dill, Harald G.

AU - Balaban, Sorin Ionut

AU - Füssl, Martin

AU - Pöllmann, Herbert

AU - Buzatu, Andrei

N1 - Funding information: We thank two reviewers for their constructive comments to our paper. We also extend our gratitude to the editor-in-chief A. A. Beylich for his editorial handling of our review submitted to GEOMORPHOLOGY.

PY - 2022/12/15

Y1 - 2022/12/15

N2 - The quadripartite/ orthogonal and domal Central European Watershed (CEW) at the NW edge of the Bohemian Massif has been studied by a terrain analysis (fluvial, colluvial, cryogenic, aeolian landforms) combined with geochronological dating (hydraulic correlation) of landforms and the resultant hydrographic correlation of relief generations. It resulted in a morphostratigraphic review (subdivided into a protostage- creating the terrestrial platform, prestages - controlling the physical and chemical regime of the landform series, and stages- fine-tuning of the modern landscape) of the Late Cretaceous to Quaternary relief generations that lead to the creation of the “3 + 1” model of the CEW. The term “3 + 1” refers to a triple junction supplemented with a fourth branch. The characteristic land-form type of the CEW is called the “intermediate sediment trap”, a wetland caused by structural or impact-related damming processes. The evolution of the CEW is discussed by a set of four different drivers: The endogenous 1st order drivers are activities along lineamentary fault zones which demarcate the watershed systems. The 2nd order endogenous driver is the alkaline volcanic activity from the Late Cretaceous to the Holocene which contributed to dome-and starlike geomorphological expression. The 3rd order impact-related driver of the Ries Meteorite impact provoked a deflection and damming of channels thereby leading to one of the intermediate sediment traps. The 4th exogenous driver is the climate change. It is accountable for the transition from fluvial incision during the Late Cretaceous and Paleogene (humid-tropical climate zone) to a planation during the Neogene (tropical wet and dry paleoclimate zone). The Quaternary humid mid-latitude, dry continental, and (peri)glacial climate zones put the final touch on the CEW's geomorphological outward appearance. The influence of mining, metallurgy, and mineral processing on the landscape debated in the final stage 8 heralds the onset of the Anthropocene in the CEW. This review of the evolution of the CEW also lends support to the idea that an advanced terrain analysis can be an efficient tool for mineral exploration.

AB - The quadripartite/ orthogonal and domal Central European Watershed (CEW) at the NW edge of the Bohemian Massif has been studied by a terrain analysis (fluvial, colluvial, cryogenic, aeolian landforms) combined with geochronological dating (hydraulic correlation) of landforms and the resultant hydrographic correlation of relief generations. It resulted in a morphostratigraphic review (subdivided into a protostage- creating the terrestrial platform, prestages - controlling the physical and chemical regime of the landform series, and stages- fine-tuning of the modern landscape) of the Late Cretaceous to Quaternary relief generations that lead to the creation of the “3 + 1” model of the CEW. The term “3 + 1” refers to a triple junction supplemented with a fourth branch. The characteristic land-form type of the CEW is called the “intermediate sediment trap”, a wetland caused by structural or impact-related damming processes. The evolution of the CEW is discussed by a set of four different drivers: The endogenous 1st order drivers are activities along lineamentary fault zones which demarcate the watershed systems. The 2nd order endogenous driver is the alkaline volcanic activity from the Late Cretaceous to the Holocene which contributed to dome-and starlike geomorphological expression. The 3rd order impact-related driver of the Ries Meteorite impact provoked a deflection and damming of channels thereby leading to one of the intermediate sediment traps. The 4th exogenous driver is the climate change. It is accountable for the transition from fluvial incision during the Late Cretaceous and Paleogene (humid-tropical climate zone) to a planation during the Neogene (tropical wet and dry paleoclimate zone). The Quaternary humid mid-latitude, dry continental, and (peri)glacial climate zones put the final touch on the CEW's geomorphological outward appearance. The influence of mining, metallurgy, and mineral processing on the landscape debated in the final stage 8 heralds the onset of the Anthropocene in the CEW. This review of the evolution of the CEW also lends support to the idea that an advanced terrain analysis can be an efficient tool for mineral exploration.

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KW - Hydraulic correlation

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