Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy

Fan, G. J. ; Quan, M. X. ; Hu, Z. Q.

Woodbury, NY : American Institute of Physics (AIP)
Published 1996
ISSN:
1077-3118
Source:
AIP Digital Archive
Topics:
Physics
Notes:
A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
Type of Medium:
Electronic Resource
URL:
_version_ 1798289615754362880
autor Fan, G. J.
Quan, M. X.
Hu, Z. Q.
autorsonst Fan, G. J.
Quan, M. X.
Hu, Z. Q.
book_url http://dx.doi.org/10.1063/1.116072
datenlieferant nat_lic_papers
hauptsatz hsatz_simple
identnr NLZ218155670
issn 1077-3118
journal_name Applied Physics Letters
materialart 1
notes A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
package_name American Institute of Physics (AIP)
publikationsjahr_anzeige 1996
publikationsjahr_facette 1996
publikationsjahr_intervall 8004:1995-1999
publikationsjahr_sort 1996
publikationsort Woodbury, NY
publisher American Institute of Physics (AIP)
reference 68 (1996), S. 319-321
search_space articles
shingle_author_1 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
shingle_author_2 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
shingle_author_3 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
shingle_author_4 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
shingle_catch_all_1 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_2 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_3 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_catch_all_4 Fan, G. J.
Quan, M. X.
Hu, Z. Q.
Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
A melt-spun metallic Fe80B20 glass was subjected to high-energy ball milling. Microstructural changes of the glassy sample during milling were characterized by means of x-ray diffraction, differential scanning calorimetry, Mossbauer spectroscopy, and Curie temperature measurements. It was found that the metallic glass may relax towards a low energetic configuration by mechanical milling, leading to a reduction of the heat release associated with crystallization of the amorphous phase and an increase of the average hyperfine field as well as of the Curie temperature. These results can be attributed to the occurrence of a strong short-range order in the amorphous state. Our experimental observations suggest that mechanical milling may induce structural relaxation in the amorphous Fe80B20 alloy. © 1996 American Institute of Physics.
1077-3118
10773118
American Institute of Physics (AIP)
shingle_title_1 Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
shingle_title_2 Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
shingle_title_3 Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
shingle_title_4 Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
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timestamp 2024-05-06T08:03:40.005Z
titel Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
titel_suche Mechanically induced structural relaxation in an amorphous metallic Fe80B20 alloy
topic U
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