Heisenberg indistinguishability principle versus magnetic hyperfine fields

In previous investigations it was reported that certain transition metal-rich amorphous alloys consist of distorted bcc nano-clusters. Two kinds of these amorphous alloys are of special interest due to their physical properties: (1) metallic glasses with no boundaries between grains and (2) nanoglasses. Nanoglasses are specified with a high proportion of boundary /Interface between amorphous grains. Similar to the nanoglasses, the nano-sized crystalline clusters such as bcc-Fe clusters consist meanly of two components: (1) nanometer-size bcc-Fe clusters (frequently called nanograins with sizes of about 3 nm or less) and (2) Interfaces between grain. A fundamentally feature of these materials seems to be their magnetic properties that are controlled by a quantum mechanical effect, the indistinguishability effect. Based on the experimentally observed magnetic properties of nano-sized bcc-Fe, it is suggesting that the application of the indistinguishability effect may open the way for the production and understanding of this class of materials.

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Publication Details

Journal
Discover Nano
Published
2025-02-11
DOI
https://doi.org/10.1186/s11671-025-04202-0
Citations
1
Primary Topic
Theoretical and Computational Physics
Type
article
Field-Weighted Citation Impact
1.26
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article

Heisenberg indistinguishability principle versus magnetic hyperfine fields

H. Gleiter, M. Ghafari, Tao Feng
1 citations
Discover Nano
Theoretical and Computational Physics
1.26
article

Heisenberg indistinguishability principle versus magnetic hyperfine fields

H. Gleiter, M. Ghafari, Tao Feng
article en
1 citations

Abstract

In previous investigations it was reported that certain transition metal-rich amorphous alloys consist of distorted bcc nano-clusters. Two kinds of these amorphous alloys are of special interest due to their physical properties: (1) metallic glasses with no boundaries between grains and (2) nanoglasses. Nanoglasses are specified with a high proportion of boundary /Interface between amorphous grains. Similar to the nanoglasses, the nano-sized crystalline clusters such as bcc-Fe clusters consist meanly of two components: (1) nanometer-size bcc-Fe clusters (frequently called nanograins with sizes of about 3 nm or less) and (2) Interfaces between grain. A fundamentally feature of these materials seems to be their magnetic properties that are controlled by a quantum mechanical effect, the indistinguishability effect. Based on the experimentally observed magnetic properties of nano-sized bcc-Fe, it is suggesting that the application of the indistinguishability effect may open the way for the production and understanding of this class of materials.

Discover NanoVol. 20(1)
Nanjing University of Science and Technology (CN)
Openalex Percentile: Top 24%
Theoretical and Computational Physics
1.26
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