The cause-and-effect relationship between the ca. 201 Ma eruption of the Central Atlantic magmatic province (CAMP) and the end-Triassic abrupt climate change and mass extinction is at present based on controversial temporal correlations. Upper Triassic sedimentary strata underlying CAMP basalts in Morocco illustrate a clear mineralogical and geochemical fingerprint of early CAMP basaltic eruptions, namely unusually high contents of MgO (10\u201332wt%) and of mafic clay minerals (11\u201384%). In the same rocks a coincident negative carbon-isotope excursion (CIE) is present, equivalent to the so-called \u2018initial negative CIE\u2019 recorded worldwide shortly before the Triassic\u2013Jurassic boundary. The new data show that the onset of C...
The Triassic-Jurassic (Tr-J) boundary marks one of the most severe Phanerozoic mass extinctions. Wit...
During Triassic time, in the proto-North Atlantic area, the late Palaeozoic fracture system, inherit...
The Triassic–Jurassic transition is characterized by the end-Triassic mass extinction approximately ...
The cause-and-effect relationship between the c. 201 Ma eruption of the Central Atlantic magmatic pr...
Different lines of evidence suggest that the main trigger mechanism for the end-Triassic mass extinc...
International audienceThe end-Triassic extinction is one of the Phanerozoic's largest mass extinctio...
The end-Triassic mass extinction (ca. 201.4 Ma) coincided with a major carbon cycle perturbation, ba...
The end-Triassic mass extinction (ETME) is thought to have been caused by voluminous, pulsed volcani...
The Central Atlantic Magmatic Province (CAMP) has long been proposed as having a causal relationship...
We present new data and a synthesis of cyclostratigraphic, lithostratigraphic, biostratigraphic, and...
The Triassic-Jurassic transition (~201.5 Ma) is marked by one of the largest mass extinctions in Ear...
A leading hypothesis explaining Phanerozoic mass extinctions and associated carbon isotopic anomalie...
Throughout geological history of life, a small number of mass extinctions have forever changed the p...
The Triassic-Jurassic (Tr-J) boundary marks one of the most severe Phanerozoic mass extinctions. Wit...
During Triassic time, in the proto-North Atlantic area, the late Palaeozoic fracture system, inherit...
The Triassic–Jurassic transition is characterized by the end-Triassic mass extinction approximately ...
The cause-and-effect relationship between the c. 201 Ma eruption of the Central Atlantic magmatic pr...
Different lines of evidence suggest that the main trigger mechanism for the end-Triassic mass extinc...
International audienceThe end-Triassic extinction is one of the Phanerozoic's largest mass extinctio...
The end-Triassic mass extinction (ca. 201.4 Ma) coincided with a major carbon cycle perturbation, ba...
The end-Triassic mass extinction (ETME) is thought to have been caused by voluminous, pulsed volcani...
The Central Atlantic Magmatic Province (CAMP) has long been proposed as having a causal relationship...
We present new data and a synthesis of cyclostratigraphic, lithostratigraphic, biostratigraphic, and...
The Triassic-Jurassic transition (~201.5 Ma) is marked by one of the largest mass extinctions in Ear...
A leading hypothesis explaining Phanerozoic mass extinctions and associated carbon isotopic anomalie...
Throughout geological history of life, a small number of mass extinctions have forever changed the p...
The Triassic-Jurassic (Tr-J) boundary marks one of the most severe Phanerozoic mass extinctions. Wit...
During Triassic time, in the proto-North Atlantic area, the late Palaeozoic fracture system, inherit...
The Triassic–Jurassic transition is characterized by the end-Triassic mass extinction approximately ...