Accretion and early evolution of Earth: Insights from Nd-isotope systematics of meteorites and Archean terrestrial rocks

Keyphrases

• 142Nd 100%
• Archean 100%
• Nd Isotopes 100%
• Isotope Systematics 100%
• Early Evolution 100%
• R-process 42%
• Dust 42%
• P-process 42%
• Isua 42%
• Silicate 42%
• Heterogeneous Distribution 28%
• Terrestrial Planets 28%
• Solar System 28%
• Protoplanetary Disks 28%
• Mantle Reservoirs 14%
• Mantle Source 14%
• Final Assembly 14%
• Age Estimation 14%
• Bulk Composition 14%
• Analytical Skills 14%
• Plate Tectonics 14%
• Precision Analysis 14%
• Terranes 14%
• Formation Age 14%
• Chondritic Meteorites 14%
• Isotope Ratio 14%
• Crustal Recycling 14%
• Isotopic Signature 14%
• Eoarchean 14%
• Archean Rocks 14%
• Molecular Clouds 14%
• High-precision Measurement 14%
• Parts per Million 14%
• Chemical Properties 14%
• Central Star 14%
• Early Onset 14%
• Ingrowth 14%
• Hadean 14%
• Bulk Silicate Earth 14%
• Isua Supracrustal Belt 14%
• Nebulae 14%
• Isotopic Anomalies 14%
• Thermal Processing 14%
• Inductively Coupled Plasma Mass Spectrometry 14%
• Internal Dynamics 14%
• Evolution Stage 14%
• Earth-like 14%
• Data Accuracy 14%
• Mass-dependent 14%
• Primitive Meteorites 14%
• Magma Ocean 14%
• Analytical Artefact 14%
• Neutron-rich Isotopes 14%
• Dense Core 14%
• S-process 14%
• Extraterrestrial Materials 14%
• Homogenization Method 14%
• Sm-Nd 14%
• SW Greenland 14%
• Resampling 14%
• Carbonaceous Chondrites 14%

Physics

• Terrestrial Planet 100%
• Protoplanetary Disk 100%
• Nebula 50%
• Molecular Clouds 50%
• Greenland 50%
• Homogenizing 50%
• Carbonaceous Chondrite 50%

Earth and Planetary Sciences

• Solar System Evolution 33%
• Transport of Material 33%