Christian Brandes

Christian Brandes

orcid

Research Focus & Metrics

Academic Career Length

20Years (2007-Present)

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

Representative Publications

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4 June 2013 in International Journal of Earth Sciences
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Journal Article
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CBChristian Brandes
Christian Brandes
JWJutta Winsemann
Jutta Winsemann

16 March 2012 in Basin Research
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Journal Article
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CBChristian Brandes
Christian Brandes
LPLukas Pollok
Lukas Pollok
CSCarolin Schmidt
Carolin Schmidt
VWVolker Wilde
Volker Wilde
JWJutta Winsemann
Jutta Winsemann

19 January 2011 in Basin Research
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Journal Article
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CBChristian Brandes
Christian Brandes
UPUlrich Polom
Ulrich Polom
JWJutta Winsemann
Jutta Winsemann

2 June 2013 in International Journal of Earth Sciences
Verified
Journal Article
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CBChristian Brandes
Christian Brandes
CSCarolin Schmidt
Carolin Schmidt
DTDavid Tanner
David Tanner
JWJutta Winsemann
Jutta Winsemann

7 January 2008 in Basin Research
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Journal Article
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CBChristian Brandes
Christian Brandes
AAA. Astorga
A. Astorga
RLR. Littke
R. Littke
JWJ. Winsemann
J. Winsemann

21 January 2019 in Terra Nova
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Journal Article
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CBChristian Brandes
Christian Brandes
TPThomas Plenefisch
Thomas Plenefisch
DTDavid Tanner
David Tanner
NGNicolai Gestermann
Nicolai Gestermann
Holger SteffenHolger Steffen
Holger Steffen
We present new evidence for seven deep crustal, intraplate earthquakes in northern Germany, a region regarded as an area of low seismicity. From 2000 to 2018, seven earthquakes with magnitudes of ML 1.3–3.1, were detected at depths of 17.0–31.4 km. By placing the earthquake hypocentres in a geological three‐dimensional model, we can correlate two of the earthquakes with the Thor Suture, a major fault zone in this area. Five of the earthquakes group in the lower crust near the Moho, which implies that parts of the lower crust and the crust/mantle boundary in northern Germany act as a structural discontinuity on which deformation localizes. Numerical simulation implies that stress changes due to glacial isostatic adjustment most likely triggered these deep crustal earthquakes.