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Published/Copyright: December 30, 2019
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American Mineralogist
From the journal American Mineralogist Volume 105 Issue 1

Experimental quantification of the Fe-valence state at amosite-asbestos boundaries using acSTEM dual-electron energy-loss spectroscopy by R. Vigliaturo, S. Pollastri, R. Gieré, A.F. Gualtieri, and G. Dražić (December, vol. 104, p. 1820–1828, 2019) Article DOI: https://doi.org/10.2138/am-2019-7218 Erratum DOI: https://doi.org/10.2138/am-2020-E105124

Chemical and textural relations of britholite- and apatite-group minerals from hydrothermal REE mineralization at the Rodeo de los Molles deposit, Central Argentina by M. Lorenz, U. Altenberger, R.B. Trumbull, R. Lira, M. López de Luchi, C. Günter, and S. Eidner (December, vol. 104, p. 1840–1850, 2019) Article DOI: https://doi.org/10.2138/am-2019-6969 Erratum DOI: https://doi.org/10.2138/am-2020-E105125

Table 3 in this article should appear as below. American Mineralogist regrets this error.

Table 3

ROI characteristics summary

Valence state
ROI thickness (nm)White-line intensity ratio (windows)Geometrical model(Pollastri 2015)XPS
Universal curve (2eV)2 eV4 eV8 eV1st2ndBulk (Mössbauer)
Short amosite Mean16.252.442.332.472.572.492.352.082.67
(7.69)(0.31)(0.38)(0.31)(0.25)(0.44)(0.48)(0.04)
Long amosite Mean25.302.192.012.162.172.212.15
(9.77)(0.05)(0.07)(0.19)(0.20)(0.10)(0.14)

  1. Note: Valence states obtained using progressively larger integrating windows for short and long amosite fibers, the standard deviation (σn–1) is given in parentheses.

Figure 5 in this article should appear as below. Additionally, two references were left out, and they are listed below. American Mineralogist regrets these errors.

Figure 5 Electron microprobe analyses of fluorbritholite-(Ce) and fluorapatite minerals from Rodeo de los Molles plottet on a classification diagram of apatite-supergroup minerals (after Pasero et al. 2010; Uher et al. 2015). The few points in the britholite field are from highly altered grains within the transition zone between the vein mineralization and the surrounding fenite (see Fig. 2b). INT1 and INT2 on the legend, for intergrowth type 1 and 2, see text. (Color online.)
Figure 5

Electron microprobe analyses of fluorbritholite-(Ce) and fluorapatite minerals from Rodeo de los Molles plottet on a classification diagram of apatite-supergroup minerals (after Pasero et al. 2010; Uher et al. 2015). The few points in the britholite field are from highly altered grains within the transition zone between the vein mineralization and the surrounding fenite (see Fig. 2b). INT1 and INT2 on the legend, for intergrowth type 1 and 2, see text. (Color online.)

References cited

Anenburg, M., Burnham, A.D., and Mavrogenes, J.A. (2018) REE redistribution textures in altered fluorapatite: Symplectites, veins, and phosphate-silicatecarbonate assemblages from the Nolans Bore P-REE-Th deposit, Northern Territory, Australia. The Canadian Mineralogist, 56(3), 331–354.10.3749/canmin.1700038Search in Google Scholar

Pandur, K., Ansdell, K.M., and Kontak, D.J. (2015) Graphic-textured inclusions in apatite: Evidence for pegmatitic growth in a REE-enriched carbonatitic system. Geology, 43(6), 547–550.10.1130/G36613.1Search in Google Scholar

Published Online: 2019-12-30
Published in Print: 2020-01-28

© 2020 Walter de Gruyter GmbH, Berlin/Boston

Articles in the same Issue

  1. Highlights and Breakthroughs
  2. Regolith-hosted rare-earth elements: The phyllosilicate connection
  3. MSA Centennial Review Paper
  4. Heirs of the revolution: X-ray diffraction and the birth of the Mineralogical Society of America
  5. Deep Earth carbon reactions through time and space
  6. Magmatic carbon outgassing and uptake of CO2 by alkaline waters
  7. New insights into the evolution of Mississippi Valley-Type hydrothermal system: A case study of the Wusihe Pb-Zn deposit, South China, using quartz in-situ trace elements and sulfides in situ S-Pb isotopes
  8. Celestine discovered in Hawaiian basalts
  9. Microstructural controls on the chemical heterogeneity of cassiterite revealed by cathodoluminescence and elemental X-ray mapping
  10. Hornblende as a tool for assessing mineral-melt equilibrium and recognition of crystal accumulation
  11. The role of clay minerals in formation of the regolith-hosted heavy rare earth element deposits
  12. The tetrahedrite group: Nomenclature and classification
  13. Caseyite, a new mineral containing a variant of the flat-Al13 polyoxometalate cation
  14. Incorporation of Mg in phase Egg, AlSiO3OH: Toward a new polymorph of phase H, MgSiH2O4, a carrier of water in the deep mantle
  15. Imaging trace-element zoning in pyroxenes using synchrotron XRF mapping with the Maia detector array: Benefit of low-incident energy
  16. Discussion
  17. “Kamchatite” diamond aggregate from northern Kamchatka, Russia: New find of diamond formed by gas phase condensation or chemical vapor deposition—Discussion
  18. Reply
  19. On “Kamchatite” diamond aggregate from northern Kamchatka, Russia: New find of CVD-formed diamond in nature—Reply to K.D. Litasov, T.B. Bekker, and H. Kagi
  20. Memorial of Enver Murad 1941–2019
  21. Errata
https://doi.org/10.2138/am-2020-E105125

Articles in the same Issue

  1. Highlights and Breakthroughs
  2. Regolith-hosted rare-earth elements: The phyllosilicate connection
  3. MSA Centennial Review Paper
  4. Heirs of the revolution: X-ray diffraction and the birth of the Mineralogical Society of America
  5. Deep Earth carbon reactions through time and space
  6. Magmatic carbon outgassing and uptake of CO2 by alkaline waters
  7. New insights into the evolution of Mississippi Valley-Type hydrothermal system: A case study of the Wusihe Pb-Zn deposit, South China, using quartz in-situ trace elements and sulfides in situ S-Pb isotopes
  8. Celestine discovered in Hawaiian basalts
  9. Microstructural controls on the chemical heterogeneity of cassiterite revealed by cathodoluminescence and elemental X-ray mapping
  10. Hornblende as a tool for assessing mineral-melt equilibrium and recognition of crystal accumulation
  11. The role of clay minerals in formation of the regolith-hosted heavy rare earth element deposits
  12. The tetrahedrite group: Nomenclature and classification
  13. Caseyite, a new mineral containing a variant of the flat-Al13 polyoxometalate cation
  14. Incorporation of Mg in phase Egg, AlSiO3OH: Toward a new polymorph of phase H, MgSiH2O4, a carrier of water in the deep mantle
  15. Imaging trace-element zoning in pyroxenes using synchrotron XRF mapping with the Maia detector array: Benefit of low-incident energy
  16. Discussion
  17. “Kamchatite” diamond aggregate from northern Kamchatka, Russia: New find of diamond formed by gas phase condensation or chemical vapor deposition—Discussion
  18. Reply
  19. On “Kamchatite” diamond aggregate from northern Kamchatka, Russia: New find of CVD-formed diamond in nature—Reply to K.D. Litasov, T.B. Bekker, and H. Kagi
  20. Memorial of Enver Murad 1941–2019
  21. Errata
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