Ductile, weak flow of continental lower crust is inferred for a number of orogenic systems, including the Andes and the Himalayan-Tibetan system. Sub-horizontal, high-temperature fabrics in rare exposures of exhumed lower continental crust provide important directly observable constraints on the physical mechanisms of lower crustal flow. This study uses m- to tens-of-km-scale examples of sub-horizontal granulite grade fabric in a large exposure of exhumed lower continental crust to constrain the conditions and timing of lower crustal flow. High-resolution electron microprobe monazite geochronology and trace element analysis in oriented tectonites reveals a protracted record of Neoarchean (ca. 2.63-2.53 Ga) garnet growth and sub-horizontal f...
International audienceThis study provides an in situ geological perspective on fabrics produced by s...
Gneiss domes involving the South Tibetan Detachment System provide evidence for crustal extension si...
The strike-slip Davenport Shear Zone in Central Australia developed during the Petermann Orogeny (~5...
The \u3e20,000 km2 Athabasca granulite terrane is one of Earth\u27s largest exposures of continental...
The continental lower crust is an important composition- and strength-jump layer in the lithosphere....
The Athabasca granulite terrane represents \u3e 20,000 km2 of continental lower crust exposed in the...
Exhumed sections of migmatites are beautifully exposed in the middle crust of old orogens such as th...
Typescript (photocopy).To gain insight into the rheology of selected feldspar-bearing rocks from the...
The study of fabric development and juvenile batholith emplacement across the tilted crustal section...
ABSTRACT Doubtful Sound, in SW New Zealand, exposes an exhumed section of lower crust that represent...
The growth and modification of continental lithosphere are fundamental geologic processes that have ...
Granulites in the Datong-Huai'an area of North China are characterized by high P-T assemblages ...
Despite the major role played by shear zones in large-scale deformation accommodation processes acro...
Gneiss domes involving the South Tibetan Detachment System provide evidence for crustal extension si...
High strain rocks in the Musgrave Ranges (Central Australia) provide a rather unique insight into th...
International audienceThis study provides an in situ geological perspective on fabrics produced by s...
Gneiss domes involving the South Tibetan Detachment System provide evidence for crustal extension si...
The strike-slip Davenport Shear Zone in Central Australia developed during the Petermann Orogeny (~5...
The \u3e20,000 km2 Athabasca granulite terrane is one of Earth\u27s largest exposures of continental...
The continental lower crust is an important composition- and strength-jump layer in the lithosphere....
The Athabasca granulite terrane represents \u3e 20,000 km2 of continental lower crust exposed in the...
Exhumed sections of migmatites are beautifully exposed in the middle crust of old orogens such as th...
Typescript (photocopy).To gain insight into the rheology of selected feldspar-bearing rocks from the...
The study of fabric development and juvenile batholith emplacement across the tilted crustal section...
ABSTRACT Doubtful Sound, in SW New Zealand, exposes an exhumed section of lower crust that represent...
The growth and modification of continental lithosphere are fundamental geologic processes that have ...
Granulites in the Datong-Huai'an area of North China are characterized by high P-T assemblages ...
Despite the major role played by shear zones in large-scale deformation accommodation processes acro...
Gneiss domes involving the South Tibetan Detachment System provide evidence for crustal extension si...
High strain rocks in the Musgrave Ranges (Central Australia) provide a rather unique insight into th...
International audienceThis study provides an in situ geological perspective on fabrics produced by s...
Gneiss domes involving the South Tibetan Detachment System provide evidence for crustal extension si...
The strike-slip Davenport Shear Zone in Central Australia developed during the Petermann Orogeny (~5...