Reference Type | Journal (article/letter/editorial) |
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Title | Amorphous silica from the Rigid Unit Mode approach |
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Journal | Mineralogical Magazine |
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Authors | Dove, M. T. | Author |
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Hammonds, K. D. | Author |
Harris, M. J. | Author |
Heine, V. | Author |
Keen, D. A. | Author |
Pryde, A. K. A. | Author |
Trachenko, K. | Author |
Warren, M. C. | Author |
Year | 2000 (June) | Volume | 64 |
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Issue | 3 |
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Publisher | Mineralogical Society |
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DOI | doi:10.1180/002646100549454Search in ResearchGate |
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| Generate Citation Formats |
Mindat Ref. ID | 243178 | Long-form Identifier | mindat:1:5:243178:3 |
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GUID | 0 |
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Full Reference | Dove, M. T., Hammonds, K. D., Harris, M. J., Heine, V., Keen, D. A., Pryde, A. K. A., Trachenko, K., Warren, M. C. (2000) Amorphous silica from the Rigid Unit Mode approach. Mineralogical Magazine, 64 (3) 377-388 doi:10.1180/002646100549454 |
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Plain Text | Dove, M. T., Hammonds, K. D., Harris, M. J., Heine, V., Keen, D. A., Pryde, A. K. A., Trachenko, K., Warren, M. C. (2000) Amorphous silica from the Rigid Unit Mode approach. Mineralogical Magazine, 64 (3) 377-388 doi:10.1180/002646100549454 |
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Abstract/Notes | AbstractWe apply the Rigid Unit Mode model, which was initially developed for crystalline silicates, to the study of the flexibility of silica glass. Using a density-of-states approach we show that silica glass has the same flexibility against infinitesimal displacements of crystalline phases. Molecular dynamics simulations also show that parts of the silica structure are able to undergo large spontaneous changes through reorientations of the SiO4 tetrahedra with no energy cost. |
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