Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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Materials Map under construction

The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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Sapienza University of Rome

in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (6/6 displayed)

  • 2021High pressure experimental investigation of clinopyroxene dissolution in a K-basaltic melt4citations
  • 2015In Situ Determination of Viscosity and Structure of Carbonatitic to Carbonate-Silicate Melts as Function of Pressure and Temperaturecitations
  • 2014Growth Kinetics of a Reaction Rim Between Iron and Graphite/Diamond and the Carbon Diffusion Mechanism at High Pressure and Temperaturecitations
  • 2013Back-Transformation kinetics in the MgSiO3 system at upper mantle conditionscitations
  • 2013In situ X-ray observations of the melting relations in the Fe-S-H system under high pressure and high temperaturecitations
  • 2012Carbon diffusion in solid iron as function of pressure and temperaturecitations

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Bonechi, Barbara
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Perinelli, Cristina
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Mollo, Silvio
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Fabbrizio, Alessandro
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Hrubiak, Rostislav
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Gaeta, Mario
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Lustrino, M.
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Kono, Y.
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Irifune, T.
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Fei, Y.
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Crispin, K. L.
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Shahar, A.
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Jing, Z.
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Shibazaki, Y.
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Wang, Y.
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Ohuchi, T.
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Higo, Y.
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2015
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Co-Authors (by relevance)

  • Bonechi, Barbara
  • Perinelli, Cristina
  • Mollo, Silvio
  • Fabbrizio, Alessandro
  • Hrubiak, Rostislav
  • Gaeta, Mario
  • Lustrino, M.
  • Kono, Y.
  • Irifune, T.
  • Fei, Y.
  • Crispin, K. L.
  • Shahar, A.
  • Jing, Z.
  • Shibazaki, Y.
  • Nestola, F.
  • Wang, Y.
  • Ohuchi, T.
  • Higo, Y.
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article

Growth Kinetics of a Reaction Rim Between Iron and Graphite/Diamond and the Carbon Diffusion Mechanism at High Pressure and Temperature

  • Fei, Y.
  • Stagno, Vincenzo
  • Crispin, K. L.
  • Shahar, A.
Abstract

Thermodynamic calculations of the fo2 on modeled bulk silicate Earth mantle composition predict the formation of Fe-Ni metal alloy at about 250-300 km in depth. At such conditions the speciation of subducted carbon will be mainly affected by the local Fe(Ni)/C ratio, with diamond, Fe3C and C-bearing Fe-Ni alloys being the most likely stable phases. To date however, no data are available to determine the effect of pressure and temperature on 1) the transport of carbon by diffusion in iron metal and 2) the kinetics of formation of carbide phases. We performed multianvil experiments between 3 and 10 GPa and temperatures of 700-1200 ºC with the aim of measuring C diffusion in γ-Fe. Glassy carbon and synthetic diamond were used as diffusants, placed directly in contact with pure iron rod rods with a thickness of 800-1400 μm. FE-SEM was used for accurate analyses of the Fe-C interface and concentration profiles of carbon in iron were measured by electron microprobe. Results show that the diffusion coefficient for carbon in iron metal (~3x10-11 m2s-1) and the activation energy (~62 kJ/mol) are similar to previous data from 1 atm and suggest a small pressure effect. The activation volume (~1.5x10-6 m3/mol) determined from isothermal runs is in agreement with that determined for other elements for which an interstitial diffusion mechanism in iron has been established. At the interface between carbon and Fe the growth of a reaction rim was often observed. Time series experiments were therefore performed, to investigate the growth kinetics of iron carbide (Fe3C). Results will be used to 1) determine a model for the storage of C in metallic phases in the Earth's interior and 2) provide an experimental constraint on the formation of carbide phases during subduction, with implications for the deep carbon cycle and isotopic fractionation.

Topics
  • impedance spectroscopy
  • Carbon
  • phase
  • experiment
  • carbide
  • iron
  • activation
  • interstitial
  • fractionation
  • field-emission scanning electron microscopy