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Literature DB >> 21475171

Materials science: the pull of stronger magnets.

Nicola Jones.

Abstract

Year: 2011 PMID： 21475171 DOI： 10.1038/472022a

Source DB: PubMed Journal: Nature ISSN： 0028-0836 Impact factor: 49.962

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7 in total

1. A guideline for atomistic design and understanding of ultrahard nanomagnets.

Authors: Carolin Antoniak; Markus E Gruner; Marina Spasova; Anastasia V Trunova; Florian M Römer; Anne Warland; Bernhard Krumme; Kai Fauth; Shouheng Sun; Peter Entel; Michael Farle; Heiko Wende
Journal: Nat Commun Date: 2011-11-08 Impact factor: 14.919

2. Chemically Inhomogeneous RE-Fe-B Permanent Magnets with High Figure of Merit: Solution to Global Rare Earth Criticality.

Authors: Jiaying Jin; Tianyu Ma; Yujing Zhang; Guohua Bai; Mi Yan
Journal: Sci Rep Date: 2016-08-24 Impact factor: 4.379

3. Formation of strong L1₀-FePd/α-Fe nanocomposite magnets by visualizing efficient exchange coupling.

Authors: Kenshi Matsumoto; Ryota Sato; Thang Thuy Trinh; Noritsugu Sakuma; Tetsuya Shoji; Mitsutaka Haruta; Hiroki Kurata; Toshiharu Teranishi
Journal: Nanoscale Adv Date: 2019-05-20

4. Comparisons of Dy Utilization Efficiency by DyH_x Grain Boundary Addition and Surface Diffusion Methods in Nd-Y-Fe-B Sintered Magnet.

Authors: Shuai Guo; Shicong Liao; Xiaodong Fan; Guangfei Ding; Bo Zheng; Renjie Chen; Aru Yan
Journal: Materials (Basel) Date: 2022-08-29 Impact factor: 3.748

Materials science: the pull of stronger magnets.

1. A guideline for atomistic design and understanding of ultrahard nanomagnets.

2. Chemically Inhomogeneous RE-Fe-B Permanent Magnets with High Figure of Merit: Solution to Global Rare Earth Criticality.

3. Formation of strong L1₀-FePd/α-Fe nanocomposite magnets by visualizing efficient exchange coupling.

4. Comparisons of Dy Utilization Efficiency by DyH_x Grain Boundary Addition and Surface Diffusion Methods in Nd-Y-Fe-B Sintered Magnet.

5. Dipolar magnetism in ordered and disordered low-dimensional nanoparticle assemblies.

6. Magnetic nanostructuring and overcoming Brown's paradox to realize extraordinary high-temperature energy products.

7. Approaching Ferrite-Based Exchange-Coupled Nanocomposites as Permanent Magnets.