Diamonds originate in the deep roots of ancient continental blocks (cratons) that extend into the diamond stability field beneath about 140 km. Over the last two decades, rare diamonds derived from even greater depths—the deep upper mantle, the transition zone (410-660 km), and the lower mantle—have been recognized. Inclusions in diamonds from the deep upper mantle and the transition zone document sources of basaltic composition, possibly related to subduction of old oceanic crust back into Earth's mantle. Diamonds from the lower mantle carry inclusions that largely confirm predictions of the composition and mineralogy of the deep mantle based on a “pyrolite” (primitive peridotitic) composition of silicate Earth. For some inclusions, howeve...
Mineral inclusions in diamonds play a critical role in constraining the relationship between diamond...
Earth's deep convecting upper mantle is believed to represent a rather homogenous geochemical reserv...
Ophiolite-hosted diamond from peridotites and podiform chromitites significantly differs from those ...
Diamonds originate in the deep roots of ancient continental blocks (cratons) that extend into the di...
Diamond can crystallize throughout the mantle below about 150 km and while it exists metastably in t...
Diamonds and the mineral inclusions that they trap during growth are among the most studied geologic...
Diamonds are renowned as the record of Earth's evolution history. Natural diamonds on the Earth...
Abstract Rare oceanic diamonds are believed to have a mantle transition zone origin like super-deep ...
Inclusions of majoritic garnet in diamonds from the Jagersfontein kimberlite formed at unusually gre...
The composition of the lithospheric and sublithospheric mantle beneath the Slave craton was investig...
Diamondites are mantle xenoliths comprised of polycrystalline diamond intergrown with garnet and min...
Diamondites are mantle xenoliths comprised of polycrystalline diamond intergrown with garnet and min...
The vast majority of diamonds mined from primary deposits in kimberlite and lamproite pipes and from...
The original publication is available at www.springerlink.comThe diamond population from the Jagersf...
Super-deep diamonds (SDDs) are those that form at depths between ~300 and ~1000 km in Earth’s mantle...
Mineral inclusions in diamonds play a critical role in constraining the relationship between diamond...
Earth's deep convecting upper mantle is believed to represent a rather homogenous geochemical reserv...
Ophiolite-hosted diamond from peridotites and podiform chromitites significantly differs from those ...
Diamonds originate in the deep roots of ancient continental blocks (cratons) that extend into the di...
Diamond can crystallize throughout the mantle below about 150 km and while it exists metastably in t...
Diamonds and the mineral inclusions that they trap during growth are among the most studied geologic...
Diamonds are renowned as the record of Earth's evolution history. Natural diamonds on the Earth...
Abstract Rare oceanic diamonds are believed to have a mantle transition zone origin like super-deep ...
Inclusions of majoritic garnet in diamonds from the Jagersfontein kimberlite formed at unusually gre...
The composition of the lithospheric and sublithospheric mantle beneath the Slave craton was investig...
Diamondites are mantle xenoliths comprised of polycrystalline diamond intergrown with garnet and min...
Diamondites are mantle xenoliths comprised of polycrystalline diamond intergrown with garnet and min...
The vast majority of diamonds mined from primary deposits in kimberlite and lamproite pipes and from...
The original publication is available at www.springerlink.comThe diamond population from the Jagersf...
Super-deep diamonds (SDDs) are those that form at depths between ~300 and ~1000 km in Earth’s mantle...
Mineral inclusions in diamonds play a critical role in constraining the relationship between diamond...
Earth's deep convecting upper mantle is believed to represent a rather homogenous geochemical reserv...
Ophiolite-hosted diamond from peridotites and podiform chromitites significantly differs from those ...