All Stories

  1. Geophysical time series forecasting at the Piton de la Fournaise volcano by machine learning
  2. A general machine learning model of aluminosilicate melt viscosity and its application to the surface properties of dry lava planets
  3. Redox conditions in a carbonatite-alkaline complex: Deciphering Fe- and S-XANES in melt inclusions with silicate‑carbonate immiscibility
  4. Effect of the Na/Mg mixing on the structure and properties of aluminosilicate melts
  5. The oxidation state of titanium in silicate melts
  6. Effect of the Na/Mg Mixing on the Structure and Properties of Aluminosilicate Melts
  7. Machine learning predicts the properties of aluminosilicate glasses and melts
  8. Atomic structure and physical properties of peridotite glasses at 1 bar
  9. Viscosity of lavas from the active submarine volcanic chain of Mayotte
  10. How water is dissolved into common calcium aluminosilicate glasses?
  11. Redox controls on H and N speciation and intermolecular isotopic fractionations in aqueous fluids at high pressure and high temperature: Insights from in-situ experiments
  12. Spinel Harzburgite-Derived Silicate Melts Forming Sulfide-Bearing Orthopyroxenite in the Lithosphere. Part 1: Partition Coefficients and Volatile Evolution Accompanying Fluid- and Redox-Induced Sulfide Formation
  13. Redox-induced crystallisation in Ti-bearing glass-forming melts: A Ti K-edge XANES study
  14. Fractional crystallisation of eclogite during the birth of a Hawaiian Volcano
  15. Link between Medium and Long-range Order and Macroscopic Properties of Silicate Glasses and Melts
  16. Méthodes d’analyse des verres
  17. Raman spectroscopy to determine CO2 solubility in mafic silicate melts at high pressure: Haplobasaltic, haploandesitic and approach of basaltic compositions
  18. How to Measure the Oxidation State of Multivalent Elements in Minerals, Glasses, and Melts?
  19. Iron in Silicate Glasses and Melts
  20. The Redox Behavior of Rare Earth Elements
  21. Deep learning helps understanding and predicting the properties of glasses and volcanic lavas
  22. A combined Fourier transform infrared and Cr K-edge X-ray absorption near-edge structure spectroscopy study of the substitution and diffusion of H in Cr-doped forsterite
  23. Compositions and Classification of Fractionated Boninite Series Melts from the Izu–Bonin–Mariana Arc: A Machine Learning Approach
  24. Quantifying dynamic pressure and temperature conditions on fault asperities during earthquake slip
  25. Iron cation vacancies in Pt(iv)-doped hematite
  26. Effect of Ti4+ on the Structure of Nepheline (NaAlSiO4) Glass
  27. Revisiting water speciation in hydrous alumino-silicate glasses: A discrepancy between solid-state 1H NMR and NIR spectroscopy in the determination of X-OH and H2O
  28. In situ XANES study of the influence of varying temperature and oxygen fugacity on iron oxidation state and coordination in a phonolitic melt
  29. Iron in silicate glasses and melts: implications for volcanological processes
  30. Magmas are the Largest Repositories and Carriers of Earth’s Redox Processes
  31. Rheological Controls on Asperity Weakening During Earthquake Slip
  32. Raman spectroscopy study of C-O-H-N speciation in reduced basaltic glasses: Implications for reduced planetary mantles
  33. Primordial signatures of volatile elements trapped in diamonds from the deep Earth
  34. Measuring the oxidation of iron in the magma that build the oceanic floor
  35. Observation of the Chemical Structure of Water up to the Critical Point by Raman Spectroscopic Analysis of Fluid Inclusions
  36. Point defect populations of forsterite revealed by two-stage metastable hydroxylation experiments
  37. Perrhenate sodalite growth from alkali silicate melts by noble metal catalysis
  38. Synthesis and characterization of polycrystalline KAlSi3O8 hollandite [liebermannite]: Sound velocities vs. pressure to 13 GPa at room temperature
  39. Silicate Glasses
  40. How boninite magma form at mature subduction zones?
  41. Structure of glasses and melts contains atomic channels, influencing their properties.
  42. In situ study at high pressure and temperature of the environment of water in hydrous Na and Ca aluminosilicate melts and coexisting aqueous fluids
  43. How the molecular structure of silicate melts controls their way to flow?
  44. Elastic moduli of XAlSiO4 aluminosilicate glasses: effects of charge-balancing cations
  45. Experimentally determined sulfur isotope fractionation between metal and silicate and implications for planetary differentiation
  46. Intramolecular fractionation of hydrogen isotopes in silicate quenched melts
  47. Erratum to: The dependence of Raman defect bands in silica glasses on densification revisited
  48. The dependence of Raman defect bands in silica glasses on densification revisited
  49. Solubility and solution mechanisms of chlorine and fluorine in aluminosilicate melts at high pressure and high temperature
  50. In situ study of the fractionation of hydrogen isotopes between aluminosilicate melts and coexisting aqueous fluids at high pressure and high temperature – Implications for the δ D in magmatic processes
  51. Water and magmas: insights about the water solution mechanisms in alkali silicate melts from infrared, Raman, and 29Si solid-state NMR spectroscopies
  52. Complex IR spectra of OH- groups in silicate glasses: Implications for the use of the 4500 cm-1 IR peak as a marker of OH- groups concentration
  53. Alkali influence on the water speciation and the environment of protons in silicate glasses revealed by 1H MAS NMR spectroscopy
  54. Rheology of phonolitic magmas – the case of the Erebus lava lake
  55. The amphoteric behavior of water in silicate melts from the point of view of their ionic-polymeric constitution
  56. Aluminium in silicate glasses and silicate liquids
  57. Speciation and amphoteric behaviour of water in aluminosilicate melts and glasses: high-temperature Raman spectroscopy and reaction equilibria
  58. Effect of the Na/K mixing on the structure and the rheology of tectosilicate silica-rich melts
  59. Measuring the water concentration in glasses with Raman spectroscopy
  60. Structure et propriété des verres et des liquides : le rôle de l’aluminium
  61. La spectrométrie Raman, un outil de choix pour étudier les volatils dissous dans un verre ou un silicate fondu : le cas de l’eau