Home / Articles / Design of modern magnetic materials with giant coercivity

Design of modern magnetic materials with giant coercivity

Evgenii Andreevich Gorbachev 1
Evgenii Andreevich Gorbachev
, 
Ekaterina Sergeevna Kozlyakova 1
Ekaterina Sergeevna Kozlyakova
, 
Lev Artemovich Trusov 1
Lev Artemovich Trusov
, 
Anastasia Evgenievna Sleptsova 1
Anastasia Evgenievna Sleptsova
, 
Mikhail Aleksandrovich Zykin 2
Mikhail Aleksandrovich Zykin
, 
Pavel Evgen'evich Kazin 1
Pavel Evgen'evich Kazin
1 Lomonosov Moscow State University, Faculty of Chemistry
2 Kurnakov Institute of General and Inorganic Chemistry, Russian Academy of Sciences, Moscow
10.1070/RCR4989
Published 30 November 2020
Review , RCR4989, Volume 90, Issue 10, 1287-1329
50
Share
Cite this
GOST
 | 
Cite this
GOST
Copy cite
Gorbachev E. A. et al. Design of modern magnetic materials with giant coercivity // Russian Chemical Reviews. 2020. Vol. 90. No. 10. pp. 1287-1329.
GOST all authors (up to 50)
Copy cite
Gorbachev E. A., Kozlyakova E. S., Trusov L. A., Sleptsova A. E., Zykin M. A., Kazin P. E. Design of modern magnetic materials with giant coercivity // Russian Chemical Reviews. 2020. Vol. 90. No. 10. pp. 1287-1329.
RIS
 | 
Cite this
RIS
Copy cite
TY - JOUR
DO - 10.1070/RCR4989
UR - https://rcr.colab.ws/publications/10.1070/RCR4989
TI - Design of modern magnetic materials with giant coercivity
T2 - Russian Chemical Reviews
AU - Gorbachev, Evgenii Andreevich
AU - Kozlyakova, Ekaterina Sergeevna
AU - Trusov, Lev Artemovich
AU - Sleptsova, Anastasia Evgenievna
AU - Zykin, Mikhail Aleksandrovich
AU - Kazin, Pavel Evgen'evich
PY - 2020
DA - 2020/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 1287-1329
IS - 10
VL - 90
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
Copy cite
@article{2020_Gorbachev,
author = {Evgenii Andreevich Gorbachev and Ekaterina Sergeevna Kozlyakova and Lev Artemovich Trusov and Anastasia Evgenievna Sleptsova and Mikhail Aleksandrovich Zykin and Pavel Evgen'evich Kazin},
title = {Design of modern magnetic materials with giant coercivity},
journal = {Russian Chemical Reviews},
year = {2020},
volume = {90},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4989},
number = {10},
pages = {1287--1329},
doi = {10.1070/RCR4989}
}
MLA
Cite this
MLA
Copy cite
Gorbachev, Evgenii Andreevich, et al. “Design of modern magnetic materials with giant coercivity.” Russian Chemical Reviews, vol. 90, no. 10, Nov. 2020, pp. 1287-1329. https://rcr.colab.ws/publications/10.1070/RCR4989.
Views / Visits / Downloads
39 / 38 / 5

Keywords

coercive field
crystal structure
ferromagnetic resonance
hard magnetic materials
magnetic energy product
magnetic materials
magnetization
magnetocrystalline anisotropy
monodomain particles
permanent magnets
synthesis

Abstract

The review is devoted to compounds and materials demonstrating extremely high magnetic hardness. The recent advances in the synthesis of modern materials for permanent magnets are considered, and a range of exotic compounds interesting for fundamental research is described. The key details of chemical composition, crystal structure and magnetic microstructure responsible for the appearance of high magnetic anisotropy and giant coercivity are analyzed. The challenges of developing the title materials are noted and strategies for their solution are discussed.

The bibliography includes 389 references.

Funders

Russian Foundation for Basic Research
19-13-50430

References

1.
rcr_90_10_1287_bib1
Kojima
Handbook Magn. Mater. , 1982
2.
rcr_90_10_1287_bib2
Krishnan
2016
3.
rcr_90_10_1287_bib3
Smit
1959
4.
rcr_90_10_1287_bib4
Went
Philips Techn. Rev. , 1952
6.
rcr_90_10_1287_bib6
Li
Handbook Magn. Mater. , 2019
9.
rcr_90_10_1287_bib9
Coey
2009
10.
rcr_90_10_1287_bib10
Enz
1982
11.
rcr_90_10_1287_bib11
Blundell
2001
12.
Anisotropy of rare-earth magnets
Skomski R., Sellmyer D.J.
Journal of Rare Earths , 2009
13.
rcr_90_10_1287_bib13
Rakitin
1994
14.
rcr_90_10_1287_bib14
Getzlaff
2008
15.
rcr_90_10_1287_bib15
Bertotti
1998
16.
rcr_90_10_1287_bib16
Kronmüller
2007
17.
rcr_90_10_1287_bib17
Kuz’min
Handbook Magn. Mater. , 2007
18.
rcr_90_10_1287_bib18
Landau
1978
19.
rcr_90_10_1287_bib19
Marchenko
Zh. Eksp. Teoret. Fiz. , 1977
20.
To the theory of the Landau-Lifshitz-Hilbert equation
Gladkov S.O., Bogdanova S.B.
Physics of the Solid State , 2015
21.
Virtues and Weaknesses of the Domain Concept
Brown W.F.
Reviews of Modern Physics , 1945
22.
Domain Structure in CoFeB Thin Films With Perpendicular Magnetic Anisotropy
Yamanouchi M., Jander A., Dhagat P., Ikeda S., Matsukura F., Ohno H.
IEEE Magnetics Letters , 2011
23.
Domain-wall coercivity in ferromagnetic systems with nonuniform local magnetic field
Půst L., Bertotti G., Tomáš I., Vértesy G.
Physical Review B , 1996
24.
The dependence of coercivity on anisotropy field in sintered R-Fe-B permanent magnets
Hirosawa S., Tokuhara K., Matsuura Y., Yamamoto H., Fujimura S., Sagawa M.
Journal of Magnetism and Magnetic Materials , 1986
25.
A mechanism of magnetic hysteresis in heterogeneous alloys
Philosophical Transactions of the Royal Society of London Series A Mathematical and Physical Sciences , 1948
27.
Influence of grain orientation of the coercive field in Fe-Nd-B permanent magnets
Martinek G., Kronmüller H.
Journal of Magnetism and Magnetic Materials , 1990
28.
The role of exchange and dipolar coupling at grain boundaries in hard magnetic materials
Schrefl T., Schmidts H.F., Fidler J., Kronmüller H.
Journal of Magnetism and Magnetic Materials , 1993
30.
Anisotropic exchange in Nd–Fe–B permanent magnets
Gong Q., Yi M., Evans R.F., Gutfleisch O., Xu B.
Materials Research Letters , 2019
31.
rcr_90_10_1287_bib31
Petinov
Zh. Tekhn. Fiz. , 2014
32.
First principles calculation of crystal field parameter near surfaces of Nd2Fe14B
Moriya H., Tsuchiura H., Sakuma A.
Journal of Applied Physics , 2009
33.
Single-domain crystal-anisotropy-dominated coercivity
Paul D.I., Cresswell A.
Physical Review B , 1993
34.
Micromagnetics of passivated and unpassivated iron particles
Schabes M.E.
Journal of Applied Physics , 1991
35.
Micromagnetic simulation of magnetization reversal in small particles with surface anisotropy
Scholz W., Suess D., Schrefl T., Fidler J.
Journal of Applied Physics , 2004
36.
Magnetic nanoparticles: preparation, structure and properties
Gubin S.P., Koksharov Y.A., Khomutov G.B., Yurkov G.Y.
Russian Chemical Reviews , 2005
37.
rcr_90_10_1287_bib37
Guimarães
2009
38.
Theory for the Coercivity and Its Mechanisms in Nanostructured Permanent Magnetic Materials
Zhao G., Zhang X., Morvan F.
Reviews in Nanoscience and Nanotechnology , 2015
39.
rcr_90_10_1287_bib39
Zhao
Chin. Phys. B , 2019
40.
rcr_90_10_1287_bib40
Fischer
Phys. Rev. B , 1998
41.
Analysis of the magnetic hardening mechanism in RE-FeB permanent magnets
Kronmüller H., Durst K.-., Sagawa M.
Journal of Magnetism and Magnetic Materials , 1988
42.
Demagnetizing factors for cylinders
Chen D.-., Brug J.A., Goldfarb R.B.
IEEE Transactions on Magnetics , 1991
43.
rcr_90_10_1287_bib43
Skomski
1999
44.
rcr_90_10_1287_bib44
Ott
2015
46.
rcr_90_10_1287_bib46
Sepehri-Àmin
Handbook Magn. Mater. , 2018
47.
Grain boundary and interface chemistry of an Nd–Fe–B-based sintered magnet
Sepehri-Amin H., Ohkubo T., Shima T., Hono K.
Acta Materialia , 2012
48.
Recent development of Nd–Fe–B sintered magnets and their applications
Matsuura Y.
Journal of Magnetism and Magnetic Materials , 2006
49.
rcr_90_10_1287_bib49
Kuz
J. Appl. Phys. , 2015
51.
Atomic Origin of Magnetocrystalline Anisotropy inNd2Fe14B
Haskel D., Lang J.C., Islam Z., Cady A., Srajer G., van Veenendaal M., Canfield P.C.
Physical Review Letters , 2005
52.
Soft and hard natures of Nd2Fe14B permanent magnet explored by first-order-reversal-curves
Chen P., Yang C., Chang S., Lee M., Tang N., Yen S., Tseng Y.
Journal of Magnetism and Magnetic Materials , 2014
53.
Magnetic anisotropy of the Nd2Fe14B compound and its hydride Nd2Fe14BH4
Mushnikov N.V., Terent’ev P.B., Rosenfel’d E.V.
Physics of Metals and Metallography , 2007
55.
Yang W., Liang D., Kong X., Yang J.
Rare Metals , 2019
56.
Structural and magnetic properties of Nd2Fe14B (invited)
Herbst J.F., Croat J.J., Yelon W.B.
Journal of Applied Physics , 1985
57.
rcr_90_10_1287_bib57
Sugiyama
Phys. Rev. Mater. , 2019
58.
rcr_90_10_1287_bib58
Coehoorn
1991
59.
rcr_90_10_1287_bib59
Fidler
J. Phys.: Condens. Matter , 2004
61.
rcr_90_10_1287_bib61
Min
Trudy VIAM , 2016
63.
Effect of annealing on the microstructure of sintered Nd‐Fe‐B magnets
Mishra R.K., Chen J.K., Thomas G.
Journal of Applied Physics , 1986
65.
Strategy for high-coercivity Nd–Fe–B magnets
Hono K., Sepehri-Amin H.
Scripta Materialia , 2012
66.
rcr_90_10_1287_bib66
Kato
Appl. Phys. Lett. , 2004
67.
Angular dependence and thermal stability of coercivity of Nd-rich Ga-doped Nd–Fe–B sintered magnet
Li J., Tang X., Sepehri-Amin H., Sasaki T.T., Ohkubo T., Hono K.
Acta Materialia , 2020
68.
Overview of Nd–Fe–B magnets and coercivity (invited)
Fidler J., Schrefl T.
Journal of Applied Physics , 1996
69.
Microstructure and annealing effects of NdFeB sintered magnets with Pr-Cu boundary addition
Tang M., Bao X., Zhou Y., Lu K., Li J., Gao X.
Journal of Magnetism and Magnetic Materials , 2020
70.
Microstructure evolution of Dy69Ni31-added Nd-Fe-B sintered magnets during annealing
Liu X., Zhang Y., Zhang P., Ma T., Yan M., Zhao L., Li L.
Journal of Magnetism and Magnetic Materials , 2019
71.
rcr_90_10_1287_bib71
Wang
Sci. Rep. , 2016
72.
Coercivity Enhancement by the Grain Boundary Diffusion Process to Nd–Fe–B Sintered Magnets
Hirota K., Nakamura H., Minowa T., Honshima M.
IEEE Transactions on Magnetics , 2006
73.
Microstructure analysis of Nd-Fe-B sintered magnets improved by Tb-metal vapour sorption
WATANABE N., UMEMOTO H., ISHIMARU M., ITAKURA M., NISHIDA M., MACHIDA K.
Journal of Microscopy , 2009
74.
Application of a Dy3Co0.6Cu0.4Hx Addition for Controlling the Microstructure and Magnetic Properties of Sintered Nd-Fe-B Magnets
Skotnicova K., Prokofev P.A., Kolchugina N.B., Burkhanov G.S., Lukin A.A., Koshkid’ko Y.S., Cegan T., Drulis H., Romanova T., Dormidontov N.A.
Materials , 2019
76.
Substituted (Nd,Pr)2Fe14B alloys: structural features and magnetic properties
Politova G.A., Tereshina I.S., Kaminskaya T.P., Viryus A.A., Paukov M.A., Lukin A.A., Andreev A.V.
Journal of Physics: Conference Series , 2019
77.
Die‐upset Nd2Fe14Mmagnets (M=B and C)
Fuerst C.D., Brewer E.G.
Journal of Applied Physics , 1991
78.
Microstructure and coercivity of grain boundary diffusion processed Dy-free and Dy-containing Nd Fe B sintered magnets
Kim T.-., Sasaki T.T., Ohkubo T., Takada Y., Kato A., Kaneko Y., Hono K.
Acta Materialia , 2019
79.
Rare earth-cobalt permanent magnets
Strnat K.J., Strnat R.M.
Journal of Magnetism and Magnetic Materials , 1991
80.
High-coercivity hot-deformed Nd–Fe–B permanent magnets processed by Nd–Cu eutectic diffusion under expansion constraint
Akiya T., Liu J., Sepehri-Amin H., Ohkubo T., Hioki K., Hattori A., Hono K.
Scripta Materialia , 2014
81.
Magnetization and magnetic anisotropy of R2Co14B and Nd2(Fe1−xCox)14B measured on single crystals
Hirosawa S., Tokuhara K., Yamamoto H., Fujimura S., Sagawa M., Yamauchi H.
Journal of Applied Physics , 1987
84.
Cerium: An Unlikely Replacement of Dysprosium in High Performance Nd-Fe-B Permanent Magnets
Pathak A.K., Khan M., Gschneidner K.A., McCallum R.W., Zhou L., Sun K., Dennis K.W., Zhou C., Pinkerton F.E., Kramer M.J., Pecharsky V.K.
Advanced Materials , 2015
85.
Nanocomposite Nd-rich Nd–Fe–B alloys: Approaching ideal Stoner–Wohlfarth type behavior
Girt E., Krishnan K.M., Thomas G., Altounian Z.
Applied Physics Letters , 2000
86.
rcr_90_10_1287_bib86
Akdogan
Nanotechnology , 2010
87.
Novel microwave assisted chemical synthesis of Nd2Fe14B hard magnetic nanoparticles
Swaminathan V., Deheri P.K., Bhame S.D., Ramanujan R.V.
Nanoscale , 2013
88.
Additive manufacturing of heavy rare earth free high-coercivity permanent magnets
Volegov A.S., Andreev S.V., Selezneva N.V., Ryzhikhin I.A., Kudrevatykh N.V., Mädler L., Okulov I.V.
Acta Materialia , 2020
89.
rcr_90_10_1287_bib89
Fidler
J. Phys. D: Appl. Phys. , 2011
90.
High-field magnetisation of SmCo5−xCux (x≈2.5) determined in pulse fields up to 48T
Kerschl P., Handstein A., Khlopkov K., Gutfleisch O., Eckert D., Nenkov K., Téllez-Blanco J.-., Grössinger R., Müller K.-., Schultz L.
Journal of Magnetism and Magnetic Materials , 2005
91.
Saturation magnetization and anisotropy fields in the Sm(Co1−xCux)5phases
Lectard E., Allibert C.H., Ballou R.
Journal of Applied Physics , 1994
92.
rcr_90_10_1287_bib92
Zhang
2017
93.
Phase modification and magnetic energy product enhancement of PrCo5-based nanomaterials due to carbon addition
Chang H.W., Wang H.Y., Lee Y.I., Guo Y.M., Chang W.C., Shaw C.C.
Journal of Physics and Chemistry of Solids , 2020
94.
rcr_90_10_1287_bib94
Ali
J. Magn. Magn. Mater. , 2020
95.
The influence of substituting Si for Co on the magnetic properties of PrCo5
Coroian N., Klosek V., Isnard O.
Journal of Alloys and Compounds , 2007
96.
PrCo5-based high-energy-density permanent magnets
Velu E.M., Obermyer R.T., Sankar S.G., Wallace W.E.
Journal of the Less Common Metals , 1989
97.
rcr_90_10_1287_bib97
de Campos
J. Phys. Conf. Ser. , 2011
98.
Attractive-domain-wall-pinning controlled Sm-Co magnets overcome the coercivity-remanence trade-off
Chen H., Wang Y., Yao Y., Qu J., Yun F., Li Y., Ringer S.P., Yue M., Zheng R.
Acta Materialia , 2019
100.
rcr_90_10_1287_bib100
Song
J. Alloys Compd. , 2020
101.
Grain boundary effect on the microstructure of solution-treated Fe-rich Sm-Co-Fe-Cu-Zr alloys
Musa M., Song X., Zhou X., Jia W., Yuan T., Ma T., Ren X.
Journal of Alloys and Compounds , 2021
102.
rcr_90_10_1287_bib102
Tang
J. Mater. Chem. C , 2020
103.
rcr_90_10_1287_bib103
Poudyal
J. Phys. D: Appl. Phys. , 2013
104.
rcr_90_10_1287_bib104
Das
Phys. Rev. B , 2019
105.
rcr_90_10_1287_bib105
Long
1991
106.
Electronic Band Structure and Magnetic Moment of SmCo4B
Yehia S.
AIP Conference Proceedings , 2007
107.
Magnetic properties of Sm–Co–B-based nanocomposite magnets
Kim D.H., Zhang Y., Hadjipanayis G.C.
Journal of Magnetism and Magnetic Materials , 1998
109.
Magnetic study of SmCo5, PrCo5, SmCo4B, and Sm3Co11B4under pulse high field
Ido H., Konno K., Ogata H., Sugiyama K., Hachino H., Date M., Maki K.
Journal of Applied Physics , 1991
110.
Crystal structure and low‐temperature magnetic properties of melt‐spun Sm2Co7B3compounds
Yang C.J., Lee W.Y., Choi S.D.
Journal of Applied Physics , 1994
111.
Evolution of magnetic domain structures and coercivity in high-performance SmCo 2:17-type permanent magnets
Gutfleisch O., Müller K.-., Khlopkov K., Wolf M., Yan A., Schäfer R., Gemming T., Schultz L.
Acta Materialia , 2006
112.
High performance Sm-Co powders obtained by crystallization from ball milled amorphous state
Fan J., Zheng Q., Bao R., Yi J., Du J.
Journal of Materials Science and Technology , 2020
113.
Abnormal temperature dependence of intrinsic coercivity in sintered Sm–Co-based permanent magnets
Liu S., Yang J., Doyle G., Potts G., Kuhl G.E.
Journal of Applied Physics , 2000
114.
rcr_90_10_1287_bib114
Menushenkov
Gorn. Inform.-analit. Bull. , 2007
115.
Effect of Heat Treatment on the Microstructure and Magnetic Properties of As-Cast SmCo5-Based Alloys
Menushenkov V.P., Sviridova T.A., Shelekhov E.V., Belova L.M., Menushenkov A.P., Chernikov R.V., Sidorov V.V., Grishina O.V.
Solid State Phenomena , 2012
116.
Hydrogenation disproportionation desorption recombination in Sm–Co alloys by means of reactive milling
Gutfleisch O., Kubis M., Handstein A., Müller K.-., Schultz L.
Applied Physics Letters , 1998
117.
rcr_90_10_1287_bib117
Wagner
2010
118.
Fully Epitaxial, Exchange Coupled SmCo$_{5}$/Fe Multilayers With Energy Densities above 400 kJ/m$^{3}$
Neu V., Sawatzki S., Kopte M., Mickel C., Schultz L.
IEEE Transactions on Magnetics , 2012
119.
rcr_90_10_1287_bib119
Co
ACS Appl. Mater. Interfaces , 2019
120.
A nanocrystalline Sm–Co compound for high-temperature permanent magnets
Zhang Z., Song X., Qiao Y., Xu W., Zhang J., Seyring M., Rettenmayr M.
Nanoscale , 2013
122.
Stabilizing Hard Magnetic SmCo5 Nanoparticles by N-Doped Graphitic Carbon Layer
Ma Z., Yue M., Liu H., Yin Z., Wei K., Guan H., Lin H., Shen M., An S., Wu Q., Sun S.
Journal of the American Chemical Society , 2020
123.
rcr_90_10_1287_bib123
Dong
Nanoscale , 2019
124.
rcr_90_10_1287_bib124
Chen
Appl. Phys. Lett. , 2011
125.
rcr_90_10_1287_bib125
Ma
Nanoscale , 2018
126.
A facile synthesis of anisotropic SmCo5 nanochips with high magnetic performance
Yue M., Li C., Wu Q., Ma Z., Xu H., Palaka S.
Chemical Engineering Journal , 2018
127.
rcr_90_10_1287_bib127
Lee
Front. Chem. , 2018
129.
Electrochemical Synthesis of Sm-Co Metal Magnetic Materials by Co-reduction of Sm(III) and Co(II) in LiCl-KCl-SmCl 3 -CoCl 2 Melt
Liu Y., Yan Y., Zhang M., Liang Y., Qu J., Peng-Li, Ji D., Xue Y., Jing X., Han W.
Electrochimica Acta , 2017
130.
A novel strategy to synthesize anisotropic SmCo5 particles from Co/Sm(OH)3 composites with special morphology
Li C., Wu Q., Ma Z., Xu H., Cong L., Yue M.
Journal of Materials Chemistry C , 2018
131.
rcr_90_10_1287_bib131
Tang
J. Alloys Compd. , 2019
133.
rcr_90_10_1287_bib133
Lee
Sci. Rep. , 2018
134.
rcr_90_10_1287_bib134
Ma
Nanoscale , 2019
135.
Coercivity Recovery Effect of Sm-Fe-Cu-Al Alloy on Sm2Fe17N3 Magnet
Otogawa K., Asahi T., Jinno M., Yamaguchi W., Takagi K., Kwon H.
Journal of the Korean Physical Society , 2018
136.
Synthesis of Sm2Fe17N3 powder having a new level of high coercivity by preventing decrease of coercivity in washing step of reduction-diffusion process
Okada S., Node E., Takagi K., Fujikawa Y., Enokido Y., Moriyoshi C., Kuroiwa Y.
Journal of Alloys and Compounds , 2019
137.
Influence of nitrogenation on structure development and magnetic properties of mechanically alloyed and annealed Sm–Fe powders
Teresiak A., Kubis M., Mattern N., Wolf M., Gruner W., Müller K.-.
Journal of Alloys and Compounds , 1999
138.
Production of Sm–Fe–N bulk magnets by spark plasma sintering method
Saito T.
Journal of Magnetism and Magnetic Materials , 2014
139.
rcr_90_10_1287_bib139
Saito
J. Appl. Phys. , 2012
140.
Magnetic properties and thermal stability of Sm2Fe17Nx with intermediate nitrogen concentrations
Katter M., Wecker J., Kuhrt C., Schultz L., Grössinger R.
Journal of Magnetism and Magnetic Materials , 1992
141.
Possibility of high-performance Sm2Fe17N3 sintered magnets by low-oxygen powder metallurgy process
Takagi K., Soda R., Jinno M., Yamaguchi W.
Journal of Magnetism and Magnetic Materials , 2020
142.
Progress with insulating nanocomposites based on ferrite plating of Sm2Fe17N3 micropowders
Imaoka N., Kakimoto E., Takagi K., Ozaki K., Tada M., Nakagawa T., Abe M.
Journal of Magnetism and Magnetic Materials , 2019
144.
Magnetic properties of the single magnetic domain particles of Sm2Fe17Nx compounds
Kobayashi K., Iriyama T., Yamaguchi T., Kato H., Nakagawa Y.
Journal of Alloys and Compounds , 1993
145.
rcr_90_10_1287_bib145
Popovich
Scientific and Technical Statements of the St. Petersburg State Polytechnic University , 2013
150.
Energy boundaries between single-domain particle and particles having limited number of domains in Sm2Fe17N3 magnetic material
Kobayashi K., Saito A., Nakamura M.
Electrical Engineering in Japan (English translation of Denki Gakkai Ronbunshi) , 2005
151.
rcr_90_10_1287_bib151
2002
152.
Anisotropic Sm2Fe17N3 sintered magnets without coercivity deterioration
Soda R., Takagi K., Jinno M., Yamaguchi W., Ozaki K.
AIP Advances , 2016
153.
Magnetic field-induced nitridation of Sm2Fe17
Onoue M., Kobayashi R., Mitsui Y., Umetsu R.Y., Uwatoko Y., Koyama K.
Journal of Alloys and Compounds , 2020
154.
rcr_90_10_1287_bib154
Xu
J. Magn. Magn. Mater. , 2020
155.
Chen H., Zheng J., Qiao L., Ying Y., Jiang L., Che S.
Rare Metals , 2015
156.
Progress of Sm-Fe-N Anisotropic Magnets
Ohmori K., Ishikawa T.
Journal of Iron and Steel Research International , 2006
157.
rcr_90_10_1287_bib157
Zheng
AIP Adv. , 2020
158.
Coercivity of Sm‐Fe‐N ferromagnets produced by the mechanical alloying technique
Kou X.C., Qiang W.J., Kronmüller H., Schultz L.
Journal of Applied Physics , 1993
159.
Enhanced maximum energy product of (Sm1–Y )2Fe17N caused by abundant yttrium doping
Xu J., Zheng J., Chen H., Qiao L., Ying Y., Cai W., Li W., Yu J., Lin M., Che S.
Journal of Rare Earths , 2020
160.
Phase formation and magnetic hardening mechanism of TbCu7 type Sm-Fe-N powders
Lu C., Hong X., Ding Z., Shi J., Bao X., Gao X., Zhu J.
Journal of Magnetism and Magnetic Materials , 2018
161.
Microstructural changes in high-coercivity Zn-bonded Sm-Fe-N magnets
Matsuura M., Yamamoto K., Tezuka N., Sugimoto S.
Journal of Magnetism and Magnetic Materials , 2020
162.
Metal-coated Sm2Fe17N3 magnet powders with an oxide-free direct metal-metal interface
Yamaguchi W., Soda R., Takagi K.
Journal of Magnetism and Magnetic Materials , 2020
163.
High coercive Zn-bonded Sm-Fe-N magnets prepared using fine Zn particles with low oxygen content
Matsuura M., Shiraiwa T., Tezuka N., Sugimoto S., Shoji T., Sakuma N., Haga K.
Journal of Magnetism and Magnetic Materials , 2018
166.
rcr_90_10_1287_bib166
Yang
J. Appl. Phys. , 2014
168.
Magnetic Materials and Devices for the 21st Century: Stronger, Lighter, and More Energy Efficient
Gutfleisch O., Willard M.A., Brück E., Chen C.H., Sankar S.G., Liu J.P.
Advanced Materials , 2010
169.
An Efficient Process for Recycling Nd–Fe–B Sludge as High-Performance Sintered Magnets
Yin X., Yue M., Lu Q., Liu M., Wang F., Qiu Y., Liu W., Zuo T., Zha S., Li X., Yi X.
Engineering , 2020
170.
Recycling of bonded NdFeB permanent magnets using ionic liquids
Önal M.A., Dewilde S., Degri M., Pickering L., Saje B., Riaño S., Walton A., Binnemans K.
Green Chemistry , 2020
172.
rcr_90_10_1287_bib172
Abhilash
2019
173.
Magnetic hardening and coercivity mechanisms in L10 ordered FePd ferromagnets
Klemmer T., Hoydick D., Okumura H., Zhang B., Soffa W.A.
Scripta Metallurgica et Materialia , 1995
176.
FePt Hard Magnets
Gutfleisch O., Lyubina J., Müller K.-., Schultz L.
Advanced Engineering Materials , 2005
178.
An original route for the preparation of hard FePt
Hai N.H., Dempsey N.M., Veron M., Verdier M., Givord D.
Journal of Magnetism and Magnetic Materials , 2003
179.
Nanocrystalline hard magnetic FePt powders
Lyubina J., Gutfleisch O., Müller K.-., Schultz L., Dempsey N.M.
Journal of Applied Physics , 2004
180.
Chen S., Andre P.
International Journal of Nanotechnology , 2012
181.
Microstructure and magnetic properties of FePt and Fe/FePt polycrystalline films with high coercivity
Takahashi Y.K., Seki T.O., Hono K., Shima T., Takanashi K.
Journal of Applied Physics , 2004
182.
Microstructure and Magnetic Properties for Highly Coercive FePt Sputtered Films
Shima T., Takanashi K., Li G.Q., Ishio S.
Materials Transactions , 2005
183.
On the relationship of high coercivity and L10 ordered phase in CoPt and FePt thin films
Ristau R.A., Barmak K., Lewis L.H., Coffey K.R., Howard J.K.
Journal of Applied Physics , 1999
184.
Monodisperse FePt Nanoparticles and Ferromagnetic FePt Nanocrystal Superlattices
Sun S., Murray C.B., Weller D., Folks L., Moser A.
Science , 2000
185.
Monodisperse face-centred tetragonal FePt nanoparticles with giant coercivity
Elkins K., Li D., Poudyal N., Nandwana V., Jin Z., Chen K., Liu J.P.
Journal Physics D: Applied Physics , 2005
186.
Size-Dependent Chemical and Magnetic Ordering inL10-FePt Nanoparticles
Rong C.-., Li D., Nandwana V., Poudyal N., Ding Y., Wang Z. ., Zeng H., Liu J. .
Advanced Materials , 2006
187.
Ultrahigh coercive force in epitaxial Fe-Pt(0 0 1) films
Ide Y., Goto T., Kikuchi K., Watanabe K., Onagawa J., Yoshida H., Cadogan J.M.
Journal of Magnetism and Magnetic Materials , 1998
188.
Preparation and magnetic properties of highly coercive FePt films
Shima T., Takanashi K., Takahashi Y.K., Hono K.
Applied Physics Letters , 2002
189.
rcr_90_10_1287_bib189
Okamoto
Phys. Rev. B , 2003
190.
Coercivity exceeding 100kOe in epitaxially grown FePt sputtered films
Shima T., Takanashi K., Takahashi Y.K., Hono K.
Applied Physics Letters , 2004
191.
Superior Magnetic Performance in FePt L1 0 Nanomaterials
Son K., Ryu G., Jeong H., Fink L., Merz M., Nagel P., Schuppler S., Richter G., Goering E., Schütz G.
Small , 2019
192.
rcr_90_10_1287_bib192
Wang
Appl. Phys. Lett. , 2009
193.
Synthesis and magnetic properties of CoPt nanoparticles
Sun X., Jia Z.Y., Huang Y.H., Harrell J.W., Nikles D.E., Sun K., Wang L.M.
Journal of Applied Physics , 2004
194.
rcr_90_10_1287_bib194
Kim
Appl. Phys. Lett. , 2007
195.
Enhancement of coercivity in nanometer-size CoPt crystallites
Liou S.H., Huang S., Klimek E., Kirby R.D., Yao Y.D.
Journal of Applied Physics , 1999
196.
CoPt and FePt thin films for high density recording media
Christodoulides J.A., Huang Y., Zhang Y., Hadjipanayis G.C., Panagiotopoulos I., Niarchos D.
Journal of Applied Physics , 2000
197.
Giant coercivity nanodots and fractals in CoPt films grown on (001) SrTiO3 using pulsed laser deposition
Rakshit R.K., Bose S.K., Sharma R., Budhani R.C.
Applied Physics Letters , 2006
198.
On the Ferromagnetic Phase in Manganese-Aluminum System
Kōno H.
Journal of the Physical Society of Japan , 2005
199.
Structural and magnetic properties of nanostructured Mn–Al–C magnetic materials
Zeng Q., Baker I., Cui J.B., Yan Z.C.
Journal of Magnetism and Magnetic Materials , 2007
200.
rcr_90_10_1287_bib200
Wei
AIP Adv. , 2014
202.
Large coercivity in nanostructured rare-earth-free MnxGa films
Nummy T.J., Bennett S.P., Cardinal T., Heiman D.
Applied Physics Letters , 2011
203.
Nanostructured MnGa films on Si/SiO2 with 20.5 kOe room temperature coercivity
Zha C.L., Dumas R.K., Lau J.W., Mohseni S.M., Sani S.R., Golosovsky I.V., Monsen Å.F., Nogués J., Åkerman J.
Journal of Applied Physics , 2011
204.
Giant magnetization on Mn3Ga ultra-thin films grown by magnetron sputtering on SiO2/Si(001)
Gutiérrez-Pérez R.M., Holguín-Momaca J.T., Elizalde-Galindo J.T., Espinosa-Magaña F., Olive-Méndez S.F.
Journal of Applied Physics , 2015
205.
rcr_90_10_1287_bib205
Saito
AIP Adv. , 2016
206.
Practical Aspects of Modern and Future Permanent Magnets
McCallum R.W., Lewis L., Skomski R., Kramer M.J., Anderson I.E.
Annual Review of Materials Research , 2014
207.
Temperature dependences of structure and coercivity for melt-spun MnBi compound
Yang Y.B., Chen X.G., Guo S., Yan A.R., Huang Q.Z., Wu M.M., Chen D.F., Yang Y.C., Yang J.B.
Journal of Magnetism and Magnetic Materials , 2013
209.
Magnetic properties of MnBi prepared by rapid solidification
Guo X., Chen X., Altounian Z., Ström-Olsen J.O.
Physical Review B , 1992
210.
rcr_90_10_1287_bib210
Yang
Appl. Phys. Lett. , 2011
211.
rcr_90_10_1287_bib211
Rama Rao
J. Phys. D: Appl. Phys. , 2013
212.
Processing of magnetically anisotropic MnBi particles by surfactant assisted ball milling
Kanari K., Sarafidis C., Gjoka M., Niarchos D., Kalogirou O.
Journal of Magnetism and Magnetic Materials , 2017
213.
rcr_90_10_1287_bib213
Rama Rao
J. Phys. D: Appl. Phys. , 2013
214.
rcr_90_10_1287_bib214
Zhou
Chin. Phys. Lett. , 2015
215.
Structural and magnetic properties of Pr-alloyed MnBi nanostructures
Kharel P., Shah V.R., Li X.Z., Zhang W.Y., Skomski R., Shield J.E., Sellmyer D.J.
Journal Physics D: Applied Physics , 2013
216.
rcr_90_10_1287_bib216
Vonsovskii
1988
218.
rcr_90_10_1287_bib218
Wu
Phys. Rev. Lett. , 2008
219.
Nonzero orbital moment in high coercivity γ-Fe 2 O 3 and low-temperature collapse of the magnetocrystalline anisotropy
Tseng Y., Souza-Neto N.M., Haskel D., Gich M., Frontera C., Roig A., van Veenendaal M., Nogués J.
Physical Review B , 2009
220.
Large Coercive Field of 45 kOe in a Magnetic Film Based on Metal-Substituted ε-Iron Oxide.
Ohkoshi S., Imoto K., Namai A., Anan S., Yoshikiyo M., Tokoro H.
Journal of the American Chemical Society , 2017
221.
Bimagnetic CoO Core/CoFe2O4 Shell Nanoparticles: Synthesis and Magnetic Properties
Lima E., Winkler E.L., Tobia D., Troiani H.E., Zysler R.D., Agostinelli E., Fiorani D.
Chemistry of Materials , 2012
222.
rcr_90_10_1287_bib222
Dehsari
J. Phys. Chem. C , 2018
223.
Hexaferrite materials displaying ultra-high coercivity and sub-terahertz ferromagnetic resonance frequencies
Gorbachev E.A., Trusov L.A., Sleptsova A.E., Kozlyakova E.S., Alyabyeva L.N., Yegiyan S.R., Prokhorov A.S., Lebedev V.A., Roslyakov I.V., Vasiliev A.V., Kazin P.E.
Materials Today , 2020
224.
Magnetization and Spin Correlation of Two-Dimensional Triangular Antiferromagnet LuFe2O4
Iida J., Tanaka M., Nakagawa Y., Funahashi S., Kimizuka N., Takekawa S.
Journal of the Physical Society of Japan , 1993
225.
Electronic Origin of Giant Magnetic Anisotropy in MultiferroicLuFe2O4
Ko K.-., Noh H.-., Kim J.-., Park B.-., Park J.-., Tanaka A., Kim S.B., Zhang C.L., Cheong S.
Physical Review Letters , 2009
226.
Single crystal growth of LuFe2O4, LuFeCoO4 and YbFeMgO4 by the floating zone method
Iida J., Takekawa S., Kimizuka N.
Journal of Crystal Growth , 1990
227.
Three-Dimensional Magnetic Correlations in MultiferroicLuFe2O4
Christianson A.D., Lumsden M.D., Angst M., Yamani Z., Tian W., Jin R., Payzant E.A., Nagler S.E., Sales B.C., Mandrus D.
Physical Review Letters , 2008
228.
Complex magnetic phases in
Phan M.H., Frey N.A., Angst M., de Groot J., Sales B.C., Mandrus D.G., Srikanth H.
Solid State Communications , 2010
229.
Preparation, Dielectric, and Magnetic Characteristics of LuFe2 O4 Ceramics
Qin Y., Liu X.Q., Wu Y.J., Chen X.M.
Journal of the American Ceramic Society , 2013
230.
Ferroic investigations in LuFe2O4 multiferroic ceramics
Viana D.S., Gotardo R.A., Cótica L.F., Santos I.A., Olzon-Dionysio M., Souza S.D., Garcia D., Eiras J.A., Coelho A.A.
Journal of Applied Physics , 2011
231.
The adsorption-controlled growth of LuFe2O4by molecular-beam epitaxy
Brooks C.M., Misra R., Mundy J.A., Zhang L.A., Holinsworth B.S., O'Neal K.R., Heeg T., Zander W., Schubert J., Musfeldt J.L., Liu Z., Muller D.A., Schiffer P., Schlom D.G.
Applied Physics Letters , 2012
233.
Magnetic and electrical properties of LuFe2O4 epitaxial thin films with a self-assembled interface structure
Kim Y.J., Konishi S., Hayasaka Y., Kakeya I., Tanaka K.
CrystEngComm , 2020
234.
Electric in-plane polarization in multiferroic CoFe₂O₄/BaTiO₃ nanocomposite tuned by magnetic fields.
Schmitz-Antoniak C., Schmitz D., Borisov P., de Groot F.M., Stienen S., Warland A., Krumme B., Feyerherm R., Dudzik E., Kleemann W., Wende H.
Nature Communications , 2013
235.
Exploring the Effect of Co Doping in Fine Maghemite Nanoparticles
Fantechi E., Campo G., Carta D., Corrias A., de Julián Fernández C., Gatteschi D., Innocenti C., Pineider F., Rugi F., Sangregorio C.
Journal of Physical Chemistry C , 2012
236.
Evolution of the magnetic structure with chemical composition in spinel iron oxide nanoparticles.
Muscas G., Yaacoub N., Concas G., Sayed F., Sayed Hassan R., Greneche J.M., Cannas C., Musinu A., Foglietti V., Casciardi S., Sangregorio C., Peddis D.
Nanoscale , 2015
237.
High Coercivity of Oleic Acid Capped CoFe2O4 Nanoparticles at Room Temperature
Limaye M.V., Singh S.B., Date S.K., Kothari D., Reddy V.R., Gupta A., Sathe V., Choudhary R.J., Kulkarni S.K.
Journal of Physical Chemistry B , 2009
238.
Switching of magnetic easy-axis using crystal orientation for large perpendicular coercivity in CoFe2O4 thin film
Shirsath S.E., Liu X., Yasukawa Y., Li S., Morisako A.
Scientific Reports , 2016
239.
Influence of Al3+ doping on structural and magnetic properties of CoFe2-xAlxO4 Ferrite nanoparticles
Dipesh D.N., Wang L., Adhikari H., Alam J., Mishra S.R.
Journal of Alloys and Compounds , 2016
243.
rcr_90_10_1287_bib243
Turtelli
IOP Conf. Ser. Mater. Sci. Eng. , 2014
244.
High Coercive Field for Nanoparticles of CoFe2O4 in Amorphous Silica Sol–Gel
Hutlova A., Niznansky D., Rehspringer J.-., Estournès C., Kurmoo M.
Advanced Materials , 2003
245.
rcr_90_10_1287_bib245
Pourroy
J. Phys. IV , 1997
246.
rcr_90_10_1287_bib246
Liu
Phys. Rev. B: Condens. Matter Mater. Phys. , 2006
247.
Tuning of magnetic properties in cobalt ferrite nanocrystals
Cedeño-Mattei Y., Perales-Perez O., Tomar M.S., Roman F., Voyles P.M., Stratton W.G.
Journal of Applied Physics , 2008
248.
Unusually high coercivity and critical single-domain size of nearly monodispersed CoFe2O4 nanoparticles
Chinnasamy C.N., Jeyadevan B., Shinoda K., Tohji K., Djayaprawira D.J., Takahashi M., Joseyphus R.J., Narayanasamy A.
Applied Physics Letters , 2003
249.
Magnetic Properties of Some Ferrite Micropowders
Berkowitz A.E., Schuele W.J.
Journal of Applied Physics , 1959
250.
Nanomagnetism and spin electronics: materials, microstructure and novel properties
Krishnan K.M., Pakhomov A.B., Bao Y., Blomqvist P., Chun Y., Gonzales M., Griffin K., Ji X., Roberts B.K.
Journal of Materials Science , 2006
251.
Shape Control and Associated Magnetic Properties of Spinel Cobalt Ferrite Nanocrystals
Song Q., Zhang Z.J.
Journal of the American Chemical Society , 2004
252.
Formation Mechanism and Shape Control of Monodisperse Magnetic CoFe2O4 Nanocrystals
Bao N., Shen L., An W., Padhan P., Heath Turner C., Gupta A.
Chemistry of Materials , 2009
253.
Origin of the Magnetic Anisotropy Energy of Cobalt Ferrite
Tachiki M.
Progress of Theoretical Physics , 1960
255.
Cubic versus Spherical Magnetic Nanoparticles: The Role of Surface Anisotropy
Salazar-Alvarez G., Qin J., Šepelák V., Bergmann I., Vasilakaki M., Trohidou K.N., Ardisson J.D., Macedo W.A., Mikhaylova M., Muhammed M., Baró M.D., Nogués J.
Journal of the American Chemical Society , 2008
256.
Beyond the Effect of Particle Size: Influence of CoFe2O4 Nanoparticle Arrangements on Magnetic Properties
Peddis D., Cannas C., Musinu A., Ardu A., Orrù F., Fiorani D., Laureti S., Rinaldi D., Muscas G., Concas G., Piccaluga G.
Chemistry of Materials , 2013
257.
Significant coercivity enhancement at low temperatures in magnetically oriented cobalt ferrite nanoparticles
Tancredi P., Rivas-Rojas P.C., Moscoso-Londoño O., Muraca D., Knobel M., Socolovsky L.M.
Applied Physics Letters , 2019
260.
Raman and in-field 57Fe Mössbauer study of cation distribution in Ga substituted cobalt ferrite (CoFe2-xGaxO4)
Sumalatha M., Shravan kumar Reddy S., Reddy M.S., Sripada S., Raja M.M., Reddy C.G., Reddy P.Y., Reddy V.R.
Journal of Alloys and Compounds , 2020
262.
Magnetic and electrical properties of In doped cobalt ferrite nanoparticles
Nongjai R., Khan S., Asokan K., Ahmed H., Khan I.
Journal of Applied Physics , 2012
263.
Investigation of Ga substitution in cobalt ferrite (CoGaxFe2−xO4) using Mossbauer spectroscopy
Krieble K., Devlin M., Lee S.J., Aldini S.T., Snyder J.E.
Journal of Applied Physics , 2008
264.
rcr_90_10_1287_bib264
Sharifianjazi
Ceram. Int. , 2020
265.
Synthesis of Highly Crystalline and Monodisperse Maghemite Nanocrystallites without a Size-Selection Process
Hyeon T., Lee S.S., Park J., Chung Y., Na H.B.
Journal of the American Chemical Society , 2001
267.
Exchange-coupled magnetic nanoparticles for efficient heat induction
Lee J., Jang J., Choi J., Moon S.H., Noh S., Kim J., Kim J., Kim I., Park K.I., Cheon J.
Nature Nanotechnology , 2011
268.
Size-Controlled Synthesis of Magnetite Nanoparticles
Sun S., Zeng H.
Journal of the American Chemical Society , 2002
270.
Formation of Nanoparticles of ε-Fe2O3 from Yttrium Iron Garnet in a Silica Matrix:  An Unusually Hard Magnet with a Morin-Like Transition below 150 K
Kurmoo M., Rehspringer J., Hutlova A., D'Orléans C., Vilminot S., Estournès C., Niznansky D.
Chemistry of Materials , 2005
271.
Hard Magnetic Ferrite: ε-Fe2O3
Ohkoshi S., Tokoro H.
Bulletin of the Chemical Society of Japan , 2013
272.
High- and Low-Temperature Crystal and Magnetic Structures of ε-Fe2O3 and Their Correlation to Its Magnetic Properties
Gich M., Frontera C., Roig A., Taboada E., Molins E., Rechenberg H.R., Ardisson J.D., Macedo W.A., Ritter C., Hardy V., Sort J., Skumryev V., Nogués J.
Chemistry of Materials , 2006
273.
Microstructure-dependent coercivity in monodispersed hematite particles
Rath C., Sahu K.K., Kulkarni S.D., Anand S., Date S.K., Das R.P., Mishra N.C.
Applied Physics Letters , 1999
274.
rcr_90_10_1287_bib274
Lu
J. Phys. Chem. B , 2005
276.
Giant Coercive Field of Nanometer- Sized Iron Oxide
Jin J., Ohkoshi S., Hashimoto K.
Advanced Materials , 2004
277.
Ca-Al double-substituted strontium hexaferrites with giant coercivity.
Trusov L.A., Gorbachev E.A., Lebedev V.A., Sleptsova A.E., Roslyakov I.V., Kozlyakova E.S., Vasiliev A.V., Dinnebier R.E., Jansen M., Kazin P.E.
Chemical Communications , 2018
278.
Reorientation Phenomenon in a Magnetic Phase of ε-Fe2O3 Nanocrystal
Sakurai S., Jin J., Hashimoto K., Ohkoshi S.
Journal of the Physical Society of Japan , 2005
279.
Unveiling a New High-Temperature Ordered Magnetic Phase in ε-Fe2O3
García-Muñoz J.L., Romaguera A., Fauth F., Nogués J., Gich M.
Chemistry of Materials , 2017
280.
Optimized Synthesis of the Elusive ε-Fe2O3 Phase via Sol−Gel Chemistry
Popovici M., Gich M., Nižňanský D., Roig A., Savii C., Casas L., Molins E., Zaveta K., Enache C., Sort J., de Brion S., Chouteau G., Nogués J.
Chemistry of Materials , 2004
282.
Identification of ferric oxide polymorphs in nanoparticles prepared by sol-gel method and maximization of ε-Fe2O3 content
Kubániová D., Brázda P., Závěta K., Kmječ T., Klementová M., Kohout J.
Journal of Magnetism and Magnetic Materials , 2019
283.
Preparation of Monodisperse ε‐Fe2O3 Nanoparticles by Crystal Structural Transformation
Nakaya M., Nishida R., Hosoda N., Muramatsu A.
Crystal Research and Technology , 2017
285.
The synthesis of rhodium substituted ε-iron oxide exhibiting super high frequency natural resonance
Namai A., Yoshikiyo M., Umeda S., Yoshida T., Miyazaki T., Nakajima M., Yamaguchi K., Suemoto T., Ohkoshi S.
Journal of Materials Chemistry C , 2013
286.
Nanometer-size hard magnetic ferrite exhibiting high optical-transparency and nonlinear optical-magnetoelectric effect
Ohkoshi S., Namai A., Imoto K., Yoshikiyo M., Tarora W., Nakagawa K., Komine M., Miyamoto Y., Nasu T., Oka S., Tokoro H.
Scientific Reports , 2015
287.
Preparation of the Nanowire Form of ε-Fe2O3 Single Crystal and a Study of the Formation Process
Sakurai S., Tomita K., Hashimoto K., Yashiro H., Ohkoshi S.
Journal of Physical Chemistry C , 2008
288.
Hard magnetic ferrite with a gigantic coercivity and high frequency millimetre wave rotation
Namai A., Yoshikiyo M., Yamada K., Sakurai S., Goto T., Yoshida T., Miyazaki T., Nakajima M., Suemoto T., Tokoro H., Ohkoshi S.
Nature Communications , 2012
289.
Epitaxial stabilization of ε-Fe2O3 (00l) thin films on SrTiO3 (111)
Gich M., Gazquez J., Roig A., Crespi A., Fontcuberta J., Idrobo J.C., Pennycook S.J., Varela M., Skumryev V., Varela M.
Applied Physics Letters , 2010
290.
Epitaxially stabilized thin films of ε-Fe2O3 (001) grown on YSZ (100)
Corbellini L., Lacroix C., Harnagea C., Korinek A., Botton G.A., Ménard D., Pignolet A.
Scientific Reports , 2017
291.
Multiferroic Iron Oxide Thin Films at Room Temperature
Gich M., Fina I., Morelli A., Sánchez F., Alexe M., Gàzquez J., Fontcuberta J., Roig A.
Advanced Materials , 2014
292.
rcr_90_10_1287_bib292
Katayama
J. Mater. Chem. C , 2017
293.
Nanowire Structural Evolution from Fe3 O4 to ϵ-Fe2 O3
Ding Y., Morber J. ., Snyder R. ., Wang Z. .
Advanced Functional Materials , 2007
294.
Epitaxial Growth of ϵ-Fe2O3 on Mullite Found through Studies on a Traditional Japanese Stoneware
Kusano Y., Fujii T., Takada J., Fukuhara M., Doi A., Ikeda Y., Takano M.
Chemistry of Materials , 2007
295.
rcr_90_10_1287_bib295
Ma
Ceram. Int. , 2018
296.
Plasma dynamic synthesis and obtaining ultrafine powders of iron oxides with high content of ε-Fe 2 O 3
Sivkov A., Naiden E., Ivashutenko A., Shanenkov I.
Journal of Magnetism and Magnetic Materials , 2016
297.
ε-Fe2O3 nanoparticles synthesized in atmospheric-pressure microwave torch
David B., Pizúrová N., Synek P., Kudrle V., Jašek O., Schneeweiss O.
Materials Letters , 2014
299.
rcr_90_10_1287_bib299
Dionne
2009
300.
rcr_90_10_1287_bib300
Matsuno
Angew. Chem., Int. Ed. , 2016
301.
A Millimeter‐Wave Absorber Based on Gallium‐Substituted ε‐Iron Oxide Nanomagnets
Ohkoshi S., Kuroki S., Sakurai S., Matsumoto K., Sato K., Sasaki S.
Angewandte Chemie - International Edition , 2007
302.
Synthesis, Crystal Structure, and Magnetic Properties of ϵ-In x Fe2- x O3 Nanorod-Shaped Magnets
Sakurai S., Kuroki S., Tokoro H., Hashimoto K., Ohkoshi S.
Advanced Functional Materials , 2007
303.
Synthesis and magnetic properties of ε-Fe2O3 by ball milling and post annealing
Zhao Y., Wen G.
Journal of Magnetism and Magnetic Materials , 2020
304.
Magnetocrystalline anisotropy of ε-Fe2O3
Ahamed I., Pathak R., Skomski R., Kashyap A.
AIP Advances , 2017
305.
Highly Oriented Magnetic Film Composed of Ga‐Substituted ε‐Iron Oxide and the Angular Dependence of the Magnetic Hysteresis Loops
Yoshikiyo M., Namai A., Imoto K., Tokoro H., Ohkoshi S.
European Journal of Inorganic Chemistry , 2017
306.
Mesoscopic bar magnet based on ε-Fe2O3 hard ferrite
Ohkoshi S., Namai A., Yamaoka T., Yoshikiyo M., Imoto K., Nasu T., Anan S., Umeta Y., Nakagawa K., Tokoro H.
Scientific Reports , 2016
309.
DIPOLAR MAGNETIC ANISOTROPY IN SOME UNIAXIAL HEXAGONAL FERRITES
Isalgué A., Obradors X., Tejada J.
Le Journal de Physique Colloques , 2007
310.
Theory of the Single Ion Magnetocrystalline Anisotropy of 3d Ions
Xu Y., Yang G., Chu D., Zhai H.
Physica Status Solidi (B): Basic Research , 1990
311.
Magnetic Anisotropy of Magnetoplumbite BaFe 12 O 19
Fuchikami N.
Journal of the Physical Society of Japan , 2005
312.
Temperature Dependence of Ms and K1 of BaFe12O19 and SrFe12O19 Single Crystals
Shirk B.T., Buessem W.R.
Journal of Applied Physics , 1969
313.
Structural and Magnetic Properties and Preparation Techniques of Nanosized M-type Hexaferrite Powders
Koutzarova T., Kolev S., Ghelev C., Grigorov K., Nedkov I.
Springer Proceedings in Physics , 2009
314.
Physical and magnetic properties of highly aluminum doped strontium ferrite nanoparticles prepared by auto-combustion route
Luo H., Rai B.K., Mishra S.R., Nguyen V.V., Liu J.P.
Journal of Magnetism and Magnetic Materials , 2012
315.
Preparation of the SrFe12O19-based magnetic composites via boron oxide glass devitrification
Zaitsev D.D., Kushnir S.E., Kazin P.E., Tretyakov Y.D., Jansen M.
Journal of Magnetism and Magnetic Materials , 2006
316.
The annealing temperature dependence of magnetic properties in Sr-ferrite nanoparticles
Sang Won Lee, Sung Yong An, Sam Jin Kim, In-Bo Shim, Chul Sung Kim
IEEE Transactions on Magnetics , 2003
317.
Magnetic properties of Ba1−xSrxFe12O19 grown by a sol–gel method
An S.Y., Lee S.W., Lee S.W., Kim C.S.
Journal of Magnetism and Magnetic Materials , 2002
318.
Magnetic anisotropy and saturation of LaFe12O19 and some related compounds
Lotgering F.K.
Journal of Physics and Chemistry of Solids , 1974
319.
Iida K., Minachi Y., Masuzawa K., Kawakami M., Nishio H., Taguchi H.
Journal of the Magnetics Society of Japan , 1999
320.
LaCo-substituted ferrite magnets, a new class of high-grade ceramic magnets; intrinsic and microstructural aspects
Kools F., Morel A., Grössinger R., Le Breton J.M., Tenaud P.
Journal of Magnetism and Magnetic Materials , 2002
321.
rcr_90_10_1287_bib321
Ueda
Phys. Rev. B , 2017
322.
Synthesis and magnetic properties of La-substituted M-type Sr hexaferrites
Seifert D., Töpfer J., Langenhorst F., Le Breton J.-., Chiron H., Lechevallier L.
Journal of Magnetism and Magnetic Materials , 2009
323.
Mössbauer studies for La–Co substituted strontium ferrite
Choi D.H., Lee S.W., Shim I., Kim C.S.
Journal of Magnetism and Magnetic Materials , 2006
324.
Influence of Ru3+ ions on anisotropy of PbFe12O19 single crystals
Zhai H.R., Liu J.Z., Lu M.
Journal of Applied Physics , 1981
325.
X-ray profile analysis of cation distribution in SrAlxFe12−xO19 solid solution
Sandiumenge F., Gali S., Rodriguez J.
Materials Research Bulletin , 1988
326.
Cation distribution and high field magnetization studies on SrFe 12-x Cr x O 19
Obradors X., Isalgue A., Collomb A., Pernet M., Pannetier J., Rodriguez J., Tejada J., Joubert J.
IEEE Transactions on Magnetics , 1984
328.
High coercivity in mechanically alloyed BaFe10Al2O19
Wang S., Ding J., Shi Y., Chen Y.J.
Journal of Magnetism and Magnetic Materials , 2000
329.
Synthesis of magnetic glass-ceramics in the system SrO–Fe2O3–Al2O3–B2O3
Zaitsev D.D., Kazin P.E., Trusov L.A., Vishnyakov D.A., Tretyakov Y.D., Jansen M.
Journal of Magnetism and Magnetic Materials , 2006
330.
Formation of submicron-sized SrFe12−xAlxO19 with very high coercivity
Kazin P.E., Trusov L.A., Zaitsev D.D., Tretyakov Y.D., Jansen M.
Journal of Magnetism and Magnetic Materials , 2008
331.
Glass crystallization synthesis of ultrafine hexagonal M-type ferrites: Particle morphology and magnetic characteristics
Kazin P.E., Trusov L.A., Zaitsev D.D., Tret’yakov Y.D.
Russian Journal of Inorganic Chemistry , 2009
332.
Hexaferrite submicron and nanoparticles with variable size and shape via glass-ceramic route
Kazin P.E., Trusov L.A., Kushnir S.E., Yaroshinskaya N.V., Petrov N.A., Jansen M.
Journal of Physics: Conference Series , 2010
333.
Gorbachev Evgeny Andreevich, Trusov Lev Artemovich, Sleptsova Anastasia Evgenievna, Anokhin Evgeny Olegovich, Zaitsev Dmitri Dmitrievich, Vasiliev Alexander Vital'evich, Eliseev Artem Anatol'evich, Kazin Pavel Evgen'evich
Mendeleev Communications , 2018
336.
Magnetic Properties of Barium Ferrite Formed by Crystallization of a Glass
SHIRK B.T., BUESSEM W.R.
Journal of the American Ceramic Society , 1970
337.
Zaitsev Dmitri Dmitrievich, Kazin Pavel Evgen'evich, Gravchikova Ekaterina Alekseevna, Trusov Lev Artemovich, Kushnir Sergey Evgen'evich, Tret'yakov Yuriy Dmitrievich, Jansen Martin
Mendeleev Communications , 2004
338.
Improvement of the coercivity of strontium hexaferrite induced by substitution of Al3+ ions for Fe3+ ions
Wang H.Z., Yao B., Xu Y., He Q., Wen G.H., Long S.W., Fan J., Li G.D., Shan L., Liu B., Jiang L.N., Gao L.L.
Journal of Alloys and Compounds , 2012
339.
Tailoring structure and magnetic characteristics of strontium hexaferrite via Al doping engineering
Wang H.Z., Hai Y.N., Yao B., Xu Y., Shan L., Xu L., Tang J.L., Wang Q.H.
Journal of Magnetism and Magnetic Materials , 2017
340.
Ten Layered Hexagonal Perovskite Sr5Ru5−xO15 (x = 0.90), a Weak Ferromagnet with a Giant Coercive Field Hc ∼ 12 T
Yamamoto A., Hashizume D., Katori H.A., Sasaki T., Ohmichi E., Nishizaki T., Kobayashi N., Takagi H.
Chemistry of Materials , 2010
341.
Magnetic Properties of Iron Selenide Nanocrystals Synthesized by the Thermal Decomposition
Chun-Rong Lin, Yu-Jhan Siao, Shin-Zong Lu, Chie Gau
IEEE Transactions on Magnetics , 2009
342.
Fe3Se4 Nanostructures with Giant Coercivity Synthesized by Solution Chemistry
Zhang H., Long G., Li D., Sabirianov R., Zeng H.
Chemistry of Materials , 2011
344.
Large Increase in the Energy Product of Fe3Se4 by Fe-Site Doping
Sen Bishwas M., Das R., Poddar P.
Journal of Physical Chemistry C , 2014
345.
rcr_90_10_1287_bib345
Feng
Phys. Rev. B , 2018
346.
High-Pressure Synthesis of Lu2NiIrO6 with Ferrimagnetism and Large Coercivity
Feng H.L., Deng Z., Wu M., Croft M., Lapidus S.H., Liu S., Tyson T.A., Ravel B.D., Quackenbush N.F., Frank C.E., Jin C., Li M., Walker D., Greenblatt M.
Inorganic Chemistry , 2018
347.
Observation of unusual slow-relaxation of the magnetisation in a Gd-EDTA chelate
Holmberg R.J., Ho L.T., Ungur L., Korobkov I., Chibotaru L.F., Murugesu M.
Dalton Transactions , 2015
348.
Slow magnetic relaxation in mononuclear gadolinium(III) and dysprosium(III) oxamato complexes
da Cunha T.T., Barbosa V.M., Oliveira W.X., Pinheiro C.B., Pedroso E.F., Nunes W.C., Pereira C.L.
Polyhedron , 2019
349.
Strong Exchange Couplings Drastically Slow Down Magnetization Relaxation in an Air‐Stable Cobalt(II)‐Radical Single‐Molecule Magnet (SMM)
Albold U., Bamberger H., Hallmen P.P., van Slageren J., Sarkar B.
Angewandte Chemie - International Edition , 2019
350.
Slow Magnetic Relaxation at Zero Field in the Tetrahedral Complex [Co(SPh)4]2–
Zadrozny J.M., Long J.R.
Journal of the American Chemical Society , 2011
351.
Magnetic hysteresis up to 80 kelvin in a dysprosium metallocene single-molecule magnet
Guo F., Day B.M., Chen Y., Tong M., Mansikkamäki A., Layfield R.A.
Science , 2018
352.
Giant magnetic anisotropy and tunnelling of the magnetization in Li₂(Li(1-x)Fe(x))N.
Jesche A., McCallum R.W., Thimmaiah S., Jacobs J.L., Taufour V., Kreyssig A., Houk R.S., Bud’ko S.L., Canfield P.C.
Nature Communications , 2014
353.
Molecular magnetic hysteresis at 60 kelvin in dysprosocenium
Goodwin C.A., Ortu F., Reta D., Chilton N.F., Mills D.P.
Nature , 2017
354.
rcr_90_10_1287_bib354
Guo
Angew. Chem., Int. Ed. , 2017
355.
A Stable Pentagonal Bipyramidal Dy(III) Single-Ion Magnet with a Record Magnetization Reversal Barrier over 1000 K
Liu J., Chen Y., Liu J., Vieru V., Ungur L., Jia J., Chibotaru L.F., Lan Y., Wernsdorfer W., Gao S., Chen X., Tong M.
Journal of the American Chemical Society , 2016
356.
rcr_90_10_1287_bib356
Ding
Angew. Chem., Int. Ed. , 2016
357.
Field- and temperature-dependent quantum tunnelling of the magnetisation in a large barrier single-molecule magnet
Ding Y., Yu K., Reta D., Ortu F., Winpenny R.E., Zheng Y., Chilton N.F.
Nature Communications , 2018
358.
High-temperature magnetic blocking and magneto-structural correlations in a series of dysprosium(iii) metallocenium single-molecule magnets
Randall McClain K., Gould C.A., Chakarawet K., Teat S.J., Groshens T.J., Long J.R., Harvey B.G.
Chemical Science , 2018
359.
Enhanced single-molecule magnetism in dysprosium complexes of a pristine cyclobutadienyl ligand
Durrant J.P., Tang J., Mansikkamäki A., Layfield R.A.
Chemical Communications , 2020
360.
Radical ligand-containing single-molecule magnets
Demir S., Jeon I., Long J.R., Harris T.D.
Coordination Chemistry Reviews , 2015
361.
Magnetic blocking in a linear iron(I) complex.
Zadrozny J.M., Xiao D.J., Atanasov M., Long G.J., Grandjean F., Neese F., Long J.R.
Nature Chemistry , 2013
362.
A linear cobalt(II) complex with maximal orbital angular momentum from a non-Aufbau ground state
Bunting P.C., Atanasov M., Damgaard-Møller E., Perfetti M., Crassee I., Orlita M., Overgaard J., van Slageren J., Neese F., Long J.R.
Science , 2018
364.
Shape-adaptive single-molecule magnetism and hysteresis up to 14 K in oxide clusterfullerenes Dy2O@C72 and Dy2O@C74 with fused pentagon pairs and flexible Dy–(μ2-O)–Dy angle
Velkos G., Yang W., Yao Y., Sudarkova S.M., Liu X., Büchner B., Avdoshenko S.M., Chen N., Popov A.A.
Chemical Science , 2020
365.
Tunneling, remanence, and frustration in dysprosium-based endohedral single-molecule magnets
Westerström R., Dreiser J., Piamonteze C., Muntwiler M., Weyeneth S., Krämer K., Liu S., Decurtins S., Popov A., Yang S., Dunsch L., Greber T.
Physical Review B , 2014
366.
rcr_90_10_1287_bib366
Liu
Nat. Commun. , 2017
367.
All-inorganic single ion magnets in ceramic matrices.
Zykin M.A., Kazin P.E., Jansen M.
Chemistry - A European Journal , 2020
368.
A Co-based single-molecule magnet confined in a barium phosphate apatite matrix with a high energy barrier for magnetization relaxation.
Kazin P.E., Zykin M.A., Trusov L.A., Eliseev A.A., Magdysyuk O.V., Dinnebier R.E., Kremer R.K., Felser C., Jansen M.
Chemical Communications , 2017
369.
“Isolated” DyO+ Embedded in a Ceramic Apatite Matrix Featuring Single-Molecule Magnet Behavior with a High Energy Barrier for Magnetization Relaxation
Kazin P.E., Zykin M.A., Utochnikova V.V., Magdysyuk O.V., Vasiliev A.V., Zubavichus Y.V., Schnelle W., Felser C., Jansen M.
Angewandte Chemie - International Edition , 2017
370.
Ferromagnetic ordering of linearly coordinated Co ions in LiSr2[CoN2]
Ballé T.J., Zangeneh Z., Hozoi L., Jesche A., Höhn P.
Physical Review B , 2019
371.
Reaching the magnetic anisotropy limit of a 3d metal atom
Rau I.G., Baumann S., Rusponi S., Donati F., Stepanow S., Gragnaniello L., Dreiser J., Piamonteze C., Nolting F., Gangopadhyay S., Albertini O.R., Macfarlane R.M., Lutz C.P., Jones B.A., Gambardella P., et. al.
Science , 2014
372.
Magnetic remanence in single atoms
Donati F., Rusponi S., Stepanow S., Wäckerlin C., Singha A., Persichetti L., Baltic R., Diller K., Patthey F., Fernandes E., Dreiser J., Šljivančanin Ž., Kummer K., Nistor C., Gambardella P., et. al.
Science , 2016
373.
Reading and writing single-atom magnets
Natterer F.D., Yang K., Paul W., Willke P., Choi T., Greber T., Heinrich A.J., Lutz C.P.
Nature , 2017
374.
Enhanced Magnetic Hardness in a Nanoscale Metal-Organic Hybrid Ferrimagnet
Guo L., Bao S., Liu B., Zeng D., Zhao J., Du J., Zheng L.
Chemistry - A European Journal , 2012
375.
Metal-Organic Framework Magnets.
Thorarinsdottir A.E., Harris T.D.
Chemical Reviews , 2020
376.
Large Coercivity and High Remanent Magnetization Organic-Based Magnets
Rittenberg D.K., Sugiura K., Sakata Y., Mikami S., Epstein A.J., Miller J.S.
Advanced Materials , 2000
377.
Field-Induced Ferrimagnetic State in a Molecule-Based Magnet Consisting of a CoII Ion and a Chiral Triplet Bis(nitroxide) Radical
Numata Y., Inoue K., Baranov N., Kurmoo M., Kikuchi K.
Journal of the American Chemical Society , 2007
378.
Giant Coercivity in a One-Dimensional Cobalt-Radical Coordination Magnet
Ishii N., Okamura Y., Chiba S., Nogami T., Ishida T.
Journal of the American Chemical Society , 2007
379.
A Single-Chain Magnet with a Very High Blocking Temperature and a Strong Coercive Field
Cassaro R.A., Reis S.G., Araujo T.S., Lahti P.M., Novak M.A., Vaz M.G.
Inorganic Chemistry , 2015
381.
A cobalt pyrenylnitronylnitroxide single-chain magnet with high coercivity and record blocking temperature.
Vaz M.G., Cassaro R.A., Akpinar H., Schlueter J.A., Lahti P.M., Novak M.A.
Chemistry - A European Journal , 2014
382.
Hard Magnets after Freezing of Spin Dynamics of Soft Magnets in Cobalt(II)–Radical Chain Compounds
Okamura Y., Ishii N., Nogami T., Ishida T.
Bulletin of the Chemical Society of Japan , 2010
383.
rcr_90_10_1287_bib383
Liu
Angew. Chem., Int. Ed. , 2020
384.
Giant Magnetic Hardness in the Synthetic Mineral Ferrimagnet K2CoII3(OH)2(SO4)3(H2O)2
Vilminot S., Baker P.J., Blundell S.J., Sugano T., André G., Kurmoo M.
Chemistry of Materials , 2010
385.
Ferrimagnetic and metamagnetic layered cobalt (II)–hydroxides: first observation of a coercive field greater than 5 T
Kurmoo M.
Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences , 2002
386.
Two modifications of layered cobaltous terephthalate: Crystal structures and magnetic properties
Kurmoo M., Kumagai H., Green M.A., Lovett B.W., Blundell S.J., Ardavan A., Singleton J.
Journal of Solid State Chemistry , 2001
387.
Ab-Initio XRPD Crystal Structure and Giant Hysteretic Effect (Hc = 5.9 T) of a New Hybrid Terephthalate-Based Cobalt(II) Magnet
Huang Z., Drillon M., Masciocchi N., Sironi A., Zhao J., Rabu P., Panissod P.
Chemistry of Materials , 2000