Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite

Hodge, J. D. ; Lessing, P. A. ; Gordon, R. S.
Springer
Published 1977
ISSN:
1573-4803
Source:
Springer Online Journal Archives 1860-2000
Topics:
Mechanical Engineering, Materials Science, Production Engineering, Mining and Metallurgy, Traffic Engineering, Precision Mechanics
Notes:
Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
Type of Medium:
Electronic Resource
URL:
_version_ 1798296726407217152
autor Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
autorsonst Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
book_url http://dx.doi.org/10.1007/BF00542810
datenlieferant nat_lic_papers
hauptsatz hsatz_simple
identnr NLM194541770
issn 1573-4803
journal_name Journal of materials science
materialart 1
notes Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
package_name Springer
publikationsjahr_anzeige 1977
publikationsjahr_facette 1977
publikationsjahr_intervall 8024:1975-1979
publikationsjahr_sort 1977
publisher Springer
reference 12 (1977), S. 1598-1604
search_space articles
shingle_author_1 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
shingle_author_2 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
shingle_author_3 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
shingle_author_4 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
shingle_catch_all_1 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
1573-4803
15734803
Springer
shingle_catch_all_2 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
1573-4803
15734803
Springer
shingle_catch_all_3 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
1573-4803
15734803
Springer
shingle_catch_all_4 Hodge, J. D.
Lessing, P. A.
Gordon, R. S.
Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
Abstract The construction of deformation mechanism maps for a polycrystalline ionic solid in which anion and cation transport are coupled has been demonstrated. Because of anioncation ambipolar coupling, two regimes of Coble creep are possible in systems where anion grain boundary transport is rapid: (1) rate-controlled at low temperatures and small grain sizes by cation grain-boundary diffusion, and (2) rate-limited at high temperatures and large grain sizes by anion grain-boundary diffusion. A new type of deformation mechanism map was introduced in which the temperature and grain size were primary variables. This map was shown to be particularly useful for materials which deform primarily by diffusional creep mechanisms. Ambipolar diffusional creep theory was used to construct several deformation mechanism maps for polycrystalline MgO and magnesiowustite over wide ranges of stress, grain size, temperature and composition.
1573-4803
15734803
Springer
shingle_title_1 Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
shingle_title_2 Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
shingle_title_3 Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
shingle_title_4 Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
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source_archive Springer Online Journal Archives 1860-2000
timestamp 2024-05-06T09:56:41.219Z
titel Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
titel_suche Creep mapping in a polycrystalline ceramic: application to magnesium oxide and magnesiowustite
topic ZL
uid nat_lic_papers_NLM194541770