Fritz Schlunegger

Dr. Fritz Schlunegger

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Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 2010 in Geomorphology
Verified
Journal Article
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OKOliver Korup
Oliver Korup
ADAlexander L. Densmore
Alexander L. Densmore
FSFritz Schlunegger
Fritz Schlunegger

22 January 2011 in Journal of Geophysical Research: Earth Surface
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Journal Article
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CBC. Berger
C. Berger
BMB. W. McArdell
B. W. McArdell
FSFritz Schlunegger
Fritz Schlunegger

9 September 2010 in Earth Surface Processes and Landforms
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Journal Article
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CBCatherine Berger
Catherine Berger
MSMarcel Schulze
Marcel Schulze
DRDirk Rieke‐Zapp
Dirk Rieke‐Zapp
FSFritz Schlunegger
Fritz Schlunegger

1 January 2004 in Geology
Verified
Journal Article
Closed access
CCCharlotte E. Cederbom
Charlotte E. Cederbom
HSHugh D. Sinclair
Hugh D. Sinclair
FSFritz Schlunegger
Fritz Schlunegger
MRMeinert K. Rahn
Meinert K. Rahn
Foreland basins record the regional isostatic compensation of mountain belts; during periods of crustal thickening, they subside, and when erosion unloads the mass of the mountains, the basins rebound and are eroded. In order to evaluate this mechanism for rebound, it is critical that the timing and magnitude of erosion are documented. We present data estimating the timing and magnitude of late orogenic or postorogenic erosion in the North Alpine Foreland Basin of Switzerland. Mineral cooling ages demonstrate that the basin underwent 1-3 km of erosion soon after 5 Ma. This erosion coincided with a decline in structural deformation in the Swiss Alps, and a doubling of sediment accu- mulation rates in surrounding depocenters. We propose that accelerated erosional un- roofing of the Swiss Alps triggered isostatic rebound and erosion of the foreland basin after 5 Ma. A projection of the isostatic rebound of the basin into the mountains suggests that at least 6.5 km of erosion should have occurred in the high topography of the Aar Massif. Accelerated erosion in the Swiss Alps at that time is explained by an increase in atmospheric moisture driven by an intensification of the Atlantic Gulf Stream at 4.6 Ma. Consequently, we propose that the changing erosional capacity of the climate triggered late orogenic to postorogenic mass reduction and isostatic rebound of the Swiss Alps and their neighboring foreland basin.

1 March 2013 in Earth-Science Reviews
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Journal Article
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MHMatthias Hinderer
Matthias Hinderer
MKMartin Kastowski
Martin Kastowski
AKAchim Kamelger
Achim Kamelger
CBCarlo Bartolini
Carlo Bartolini
FSFritz Schlunegger
Fritz Schlunegger

27 October 2014 in Earth Surface Processes and Landforms
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Journal Article
Closed access
PDF file
RCRafael Caduff
Rafael Caduff
FSFritz Schlunegger
Fritz Schlunegger
AKAndrew Kos
Andrew Kos
AWAndreas Wiesmann
Andreas Wiesmann