层状手性拓扑磁材料Cr<sub>1/3</sub>NbS<sub>2</sub>的磁学特性

王鹏程; 曹亦; 谢红光; 殷垚; 王伟; 王泽蓥; 马欣辰; 王琳; 黄维

doi:10.7498/aps.69.20200007

摘要

伴随着拓扑材料的出现, 拓扑物理学成为了当代凝聚态物理的前沿与热点之一. 拓扑特性是描述材料的物理量在连续变换下会保持不变的性质(如陈数Chern number), 种类包括拓扑绝缘体、外尔和狄拉克等拓扑半金属、拓扑磁材料等. 一维手性磁孤子(chiral magnetic solitons), 类似于磁性斯格明子(skyrmions), 是一类具有拓扑性和准粒子性的磁结构, 具有丰富的物理特性和潜在应用价值. 本文详细总结了一种具有一维手性磁孤子结构的晶体Cr_1/3NbS₂, 包括其晶体构型、磁相互作用、磁结构、维度调控以及相变物理等物理特性. 希望本综述能为研究拓扑磁材料的科研人员提供详实的参考, 为将拓扑和手性磁性引入到二维层状材料家族提供研究思路, 促进拓扑磁电子学的发展, 为相关器件提供更多的材料选择和理论基础.

关键词:

Abstract

With the discovery and development of topological materials, topological physics has attracted enormous research interest in the fields of contemporary condensed matter physics. Topological property, which describes such a property that physical quantity remains invariant under continuous transformation (such as Chern number), has been revealed in a variety of materials, including topological insulators, topological semimetals (such as Weyl or Dirac semimetals), topological magnetic materials, etc. One-dimensional chiral magnetic soliton, similar to magnetic skyrmion, is a type of magnetic configuration with topological origin and quasi-particle property, which has shown tremendous physical properties and device functionalities. In this review, we mainly focus on a chiral helimagnet, called Cr_1/3NbS₂, which possesses chiral magnetic soliton lattice and other more spin configurations under different conditions. We systematically summarize the work on Cr_1/3NbS₂, discussing its crystal symmetry, band structure, magnetic interactions, rich magnetic phases, and the physics of associated phase transitions. In particular, the layered crystal structure of Cr_1/3NbS₂ enables us to control the soliton number through tuning the layer number or crystal thickness. Our review provides a comprehensive summary of Cr_1/3NbS₂ in order to draw more attention to this interesting material. Moreover, we envision that our work could offer useful guidance to the researchers working on topological and chiral magnetic materials, and thus introducing topological or chiral magnetism into two-dimensional layered materials and promoting the development of modern magnetism and spintronics. Therefore, this review mainly focuses on a magnet, called Cr_1/3NbS₂. We systematically summarize the work on Cr_1/3NbS₂, discussing its crystal symmetry, band structure, magnetic interaction, rich magnetic phases and the interesting physical phenomena occurring at each phase transition. In addition, the layered crystal structure of Cr_1/3NbS₂ also enables us to use the layer number or crystal thickness to modulate and control its rich magnetic phases. We believe that our review provides a comprehensive summary of Cr_1/3NbS₂, which can make people have a better understanding of a typical topological magnetic material, thereby enriching the material types of magnets and low-dimensional material family and promoting the development of magnetism and spintronics applications, such as in magnetic memory devices, spintronic devices, and quantum information devices.

Keywords:

作者及机构信息

1.
南京工业大学先进材料研究院, 江苏省柔性电子重点实验室, 南京　211816

2.
西北工业大学, 西安柔性电子研究院, 西安生物医学材料与工程研究院, 柔性电子前沿科学中心, 西安　710072

通信作者: 王伟, iamwwang@njtech.edu.cn ; 王琳, iamlwang@njtech.edu.cn ;

Authors and contacts

1.
Key Laboratory of Flexible Electronics, Jiangsu (KLOFE ), Institute of Advanced Materials (IAM ), Nanjing Tech University, Nanjing 211816, China

2.
Frontiers Science Center for Flexible Electronics (FSCFE ), Shaanxi Institute of Biomedical Materials and Engineering (SIBME ), Shaanxi Institute of Flexible Electronics (SIFE ) & Northwestern Polytechnical University (NPU ), Xi'an 710072, China

Corresponding author: Wang Wei, iamwwang@njtech.edu.cn ; Wang Lin, iamlwang@njtech.edu.cn ;

文章全文 : translate this paragraph

参考文献

[1]	Zhang X C, Zhou Y, Song K M, Park T E, Xia J, Ezawa M, Liu X X, Zhao W S, Zhao G P, Woo S 2020 J. Phys. Condens. Matter 32 143001 Google Scholar
[2]	Skyrme T H R 1962 Nucl. Phys. 31 556 Google Scholar
[3]	Bogdanov A, Hubert A 1994 J. Magn. Magn. Mater. 138 255 Google Scholar
[4]	Bocdanov A, Hubert A 1994 Phys. Status Solidi B 186 527 Google Scholar
[5]	Sondhi S L, Karlhede A, Kivelson S A, Rezayi E H 1993 Phys. Rev. B 47 16419 Google Scholar
[6]	Yang K, Moon K, Zheng L, MacDonald A H, Girvin S M, Yoshioka D, Zhang S C 1994 Phys. Rev. Lett. 72 732 Google Scholar
[7]	Rossler U K, Bogdanov A N, Pfleiderer C 2006 Nature 442 797 Google Scholar
[8]	Neubauer A, Pfleiderer C, Binz B, Rosch A, Ritz R, Niklowitz P G, Boni P 2009 Phys. Rev. Lett. 102 186602 Google Scholar
[9]	Jonietz F, Muhlbauer S, Pfleiderer C, Neubauer A, Munzer W, Bauer A, Adams T, Georgii R, Boni P, Duine R A, Everschor K, Garst M, Rosch A 2010 Science 330 1648 Google Scholar
[10]	Yu X Z, Onose Y, Kanazawa N, Park J H, Han J H, Matsui Y, Nagaosa N, Tokura Y 2010 Nature 465 901 Google Scholar
[11]	Braun H B 2012 Adv. Phys. 61 1 Google Scholar
[12]	Togawa Y, Koyama T, Takayanagi K, Mori S, Kousaka Y, Akimitsu J, Nishihara S, Inoue K, Ovchinnikov A S, Kishine J 2012 Phys. Rev. Lett. 108 107202 Google Scholar
[13]	Togawa Y, Kousaka Y, Inoue K, Kishine J 2016 J. Phys. Soc. Jpn. 85 112001 Google Scholar
[14]	Wang L, Chepiga N, Ki D K, Li L, Li F, Zhu W, Kato Y, Ovchinnikova O S, Mila F, Martin I, Mandrus D, Morpurgo A F 2017 Phys. Rev. Lett. 118 257203 Google Scholar
[15]	Han H, Zhang L, Sapkota D, Hao N N, Ling L S, Du H F, Pi L, Zhang C J, Mandrus D G, Zhang Y H 2017 Phys. Rev. B 96 094439 Google Scholar
[16]	Miyadai T, Kikuchi K, Kondo H, Sakka S, Arai M, Ishikawa Y 1983 J. Phys. Soc. Jpn. 52 1394 Google Scholar
[17]	Volkova L M, Marinin D V 2014 J. Appl. Phys. 116 133901 Google Scholar
[18]	Dyadkin V, Mushenok F, Bosak A, Menzel D, Grigoriev S, Pattison P, Chernyshov D 2015 Phys. Rev. B 91 184205 Google Scholar
[19]	Dzyaloshinsky I 1958 J. Phys. Chem. Solids 4 241 Google Scholar
[20]	Moriya T 1960 Phys. Rev. 120 91 Google Scholar
[21]	Shinozaki M, Hoshino S, Masaki Y, Kishine J, Kato Y 2016 J. Phys. Soc. Jpn. 85 074710 Google Scholar
[22]	Kousaka Y, Nakao Y, Kishine J, Akita M, Inoue K, Akimitsu J 2009 Nucl. Instrum. Methods Phys. Res., Sect. A 600 250 Google Scholar
[23]	Kishine J, Bostrem I G, Ovchinnikov A S, Sinitsyn V E 2012 Phys. Rev. B 86 214426 Google Scholar
[24]	Heisenberg W 1926 Z. Phys. 38 411 Google Scholar
[25]	Gong C, Zhang X 2019 Science 363 eaav4450 Google Scholar
[26]	Dirac P A M 1926 Proc. R. Soc. A 112 661 Google Scholar
[27]	Soumyanarayanan A, Reyren N, Fert A, Panagopoulos C 2016 Nature 539 509 Google Scholar
[28]	Wiesendanger R 2016 Nat. Rev. Mater. 1 16044 Google Scholar
[29]	Kishine J, Inoue K, Kikuchi K 2007 J. Magn. Magn. Mater. 310 1386 Google Scholar
[30]	Aczel A A, DeBeer-Schmitt L M, Williams T J, McGuire M A, Ghimire N J, Li L, Mandrus D 2018 Appl. Phys. Lett. 113 032404 Google Scholar
[31]	Bruno P 1989 Phys. Rev. B 39 865 Google Scholar
[32]	Bruno P 1991 MRS Online Proc. Libr. 231 299
[33]	Ghimire N J, McGuire M A, Parker D S, Sipos B, Tang S, Yan J Q, Sales B C, Mandrus D 2013 Phys. Rev. B 87 104403 Google Scholar
[34]	Braam D, Gomez C, Tezok S, de Mello E V L, Li L, Mandrus D, Kee H Y, Sonier J E 2015 Phys. Rev. B 91 144407 Google Scholar
[35]	Camley R E, Tilley D R 1988 Phys. Rev. B 37 3413 Google Scholar
[36]	Kubetzka A, Pietzsch O, Bode M, Wiesendanger R 2003 Phys. Rev. B 67 020401(R)Google Scholar
[37]	Tanaka M, Saitoh E, Miyajima H, Yamaoka T, Iye Y 2006 Phys. Rev. B 73 052411 Google Scholar
[38]	Yonemura J, Shimamoto Y, Kida T, Yoshizawa D, Kousaka Y, Nishihara S, Goncalves F J T, Akimitsu J, Inoue K, Hagiwara M, Togawa Y 2017 Phys. Rev. B 96 184423 Google Scholar
[39]	Masaki Y, Stamps R L 2017 Phys. Rev. B 95 024418 Google Scholar
[40]	Tsuruta K, Mito M, Kousaka Y, Akimitsu J, Kishine J, Togawa Y, Inoue K 2016 J. Appl. Phys. 120 143901 Google Scholar
[41]	Tsuruta K, Mito M, Kousaka Y, Akimitsu J, Kishine J, Togawa Y, Ohsumi H, Inoue K 2016 J. Phys. Soc. Jpn. 85 013707 Google Scholar
[42]	Tsuruta K, Mito M, Deguchi H, Kishine J, Kousaka Y, Akimitsu J, Inoue K 2016 Phys. Rev. B 93 104402 Google Scholar
[43]	Paterson G W, Koyama T, Shinozaki M, Masaki Y, Goncalves F J T, Shimamoto Y, Sogo T, Nord M, Kousaka Y, Kato Y, McVitie S, Togawa Y 2019 Phys. Rev. B 99 224429 Google Scholar
[44]	Clements E M, Das R, Li L, Lampen-Kelley P J, Phan M H, Keppens V, Mandrus D, Srikanth H 2017 Sci. Rep. 7 6545 Google Scholar
[45]	Togawa Y, Kishine J, Nosov P A, Koyama T, Paterson G W, McVitie S, Kousaka Y, Akimitsu J, Ogata M, Ovchinnikov A S 2019 Phys. Rev. Lett. 122 017204 Google Scholar
[46]	Grundy P J, Tebble R S 1968 Adv. Phys. 17 153 Google Scholar
[47]	Ngo D T, Kuhn L T 2016 Adv. Nat. Sci.: Nanosci. Nanotechnol. 7 045001 Google Scholar
[48]	Peng L C, Zhang Y, Zuo S L He M, Cai J W, Wang S G, Wei H X, Li J Q, Zhao T Y, Shen B G 2018 Chin. Phys. B 27 066802 Google Scholar
[49]	Pollard S D, Garlow J A, Yu J W, Wang Z, Zhu Y M, Yang H 2017 Nat. Commun. 8 14761 Google Scholar
[50]	de Réotier P D, Yaouanc A 1997 J. Phys. Condens. Matter 9 9113 Google Scholar
[51]	Blundell S J 1999 Contemp. Phys. 40 175 Google Scholar
[52]	Morenzoni E, Prokscha T, Suter A, Luetkens H, Khasanov R 2004 J. Phys.: Condens. Matter 16 S4583 Google Scholar
[53]	Yoshizawa D, Sawada Y, Kousaka Y, Kishine J, Togawa Y, Mito M, Inoue K, Akimitsu J, Nakano T, Nozue Y, Hagiwara M 2019 Phys. Rev. B 100 104413 Google Scholar
[54]	Baumann S, Paul W, Choi T, Lutz C P, Ardavan A, Heinrich A J 2015 Science 350 417 Google Scholar
[55]	Yoshizawa D, Kishine J, Kousaka Y, Togawa Y, Mito M, Akimitsu J, Inoue K, Hagiwara M 2015 Physics Procedia 75 926 Google Scholar
[56]	Moriya T, Miyadai T 1982 Solid State Commun. 42 209 Google Scholar
[57]	Togawa Y, Kousaka Y, Nishihara S, Inoue K, Akimitsu J, Ovchinnikov A S, Kishine J 2013 Phys. Rev. Lett. 111 197204 Google Scholar
[58]	Mushenok F B 2013 Phys. Solid State 55 2482 Google Scholar
[59]	Mushenok F B 2013 Eur. Phys. J. B 86 342 Google Scholar
[60]	Bornstein A C, Chapman B J, Ghimire N J, Mandrus D G, Parker D S, Lee M 2015 Phys. Rev. B 91 184401 Google Scholar
[61]	Hall E H 1879 Am. J. Sci. 19 200 Google Scholar
[62]	Nagaosa N, Sinova J, Onoda S, MacDonald A H, Ong N P 2010 Rev. Mod. Phys. 82 1539 Google Scholar
[63]	Aoki R, Kousaka Y, Togawa Y 2019 Phys. Rev. Lett. 122 057206 Google Scholar
[64]	Yokouchi T, Kanazawa N, Kikkawa A, Morikawa D, Shibata K, Arima T, Taguchi Y, Kagawa F, Tokura Y 2017 Nat. Commun. 8 866 Google Scholar
[65]	Pop F, Auban-Senzier P, Canadell E, Rikken G L J A, Avarvari N 2014 Nat. Commun. 5 3757 Google Scholar
[66]	Ideue T, Hamamoto K, Koshikawa S, Ezawa M, Shimizu S, Kaneko Y, Tokura Y, Nagaosa N, Iwasa Y 2017 Nat. Phys. 13 578 Google Scholar
[67]	Qin F, Shi W, Ideue T, Yoshida M, Zak A, Tenne R, Kikitsu T, Inoue D, Hashizume D, Iwasa Y 2017 Nat. Commun. 8 14465 Google Scholar
[68]	Kishine J, Bostrem I G, Ovchinnikov A S, Sinitsyn V E 2014 Phys. Rev. B 89 014419 Google Scholar
[69]	Togawa Y, Koyama T, Nishimori Y, Matsumoto Y, McVitie S, McGrouther D, Stamps R L, Kousaka Y, Akimitsu J, Nishihara S, Inoue K, Bostrem I G, Sinitsyn V E, Ovchinnikov A S, Kishine J 2015 Phys. Rev. B 92 220412 Google Scholar
[70]	Yu X Z, Kanazawa N, Onose Y, Kimoto K, Zhang W Z, Ishiwata S, Matsui Y, Tokura Y 2011 Nat. Mater. 10 106 Google Scholar
[71]	Fert A, Cros V, Sampaio J 2013 Nat. Nanotechnol. 8 152 Google Scholar
[72]	Tomasello R, Martinez E, Zivieri R, Torres L, Carpentieri M, Finocchio G 2014 Sci. Rep. 4 6784 Google Scholar
[73]	Zhang X C, Zhao G P, Fangohr H, Liu J P, Xia W X, Xia J, Morvan F J 2015 Sci. Rep. 5 7643 Google Scholar
[74]	Karna S K, Womack F N, Chapai R, Young D P, Marshall M, Xie W W, Graf D, Wu Y, Cao H B, DeBeer-Schmitt L, Adams P W, Jin R, DiTusa J F 2019 Phys. Rev. B 100 184413 Google Scholar
[75]	Parkin S S P, Friend R H 1980 Physica B & C 99 219 Google Scholar
[76]	Friend R H, Beal A R, Yoffe A D 1977 Philos. Mag. 35 1269 Google Scholar
[77]	Dijkstra J, Zijlema P J, Vanbruggen C F, Haas C, Degroot R A 1989 J. Phys. Condens. Matter 1 6363 Google Scholar
[78]	Gubkin A F, Proskurina E P, Kousaka Y, Sherokalova E M, Selezneva N V, Miao P, Lee S, Zhang J, Ishikawa Y, Torii S, Kamiyama T, Campo J, Akimitsu J, Baranov N V 2016 J. Appl. Phys. 119 013903 Google Scholar
[79]	Zhang H W, Wei W S, Zheng G L, Lu J W, Wu M, Zhu X D, Tang J, Ning W, Han Y Y, Ling L S, Yang J Y, Gao W S, Qin Y L, Tian M L 2018 Appl. Phys. Lett. 113 072402 Google Scholar
[80]	Hu W Z, Wang G T, Hu R W, Petrovic C, Morosan E, Cava R J, Fang Z, Wang N L 2008 Phys. Rev. B 78 085120 Google Scholar
[81]	Novoselov K S, Jiang D, Schedin F, Booth T J, Khotkevich V V, Morozov S V, Geim A K 2005 Proc. Natl. Acad. Sci. U. S. A. 102 10451 Google Scholar
[82]	Wang Q H, Kalantar-Zadeh K, Kis A, Coleman J N, Strano M S 2012 Nat. Nanotechnol. 7 699 Google Scholar
[83]	Xu M S, Liang T, Shi M M, Chen H Z 2013 Chem. Rev. 113 3766 Google Scholar
[84]	Novoselov K S, Geim A K, Morozov S V, Jiang D, Zhang Y, Dubonos S V, Grigorieva I V, Firsov A A 2004 Science 306 666 Google Scholar

施引文献

图 1 磁性材料中一维、二维及三维拓扑自旋织构示意图^[1,13]　(a) 奈尔型(Néel-type)斯格明子(w = –1); (b) 布洛赫型(Bloch-type)斯格明子(w = –1); (c) 反斯格明子(antiskyrmion)(w = +1); (d) 双斯格明子(biskyrmion)(w = –2); (e) 涡旋态(vortex)斯格明子(w = –0.5); (f) 半子(meron)(w = –0.5); (g) 双半子(bimerom)(w = –1); (h) 套嵌斯格明子(skyrmionium)(w = 0); (i) 斯格明子管(skyrmion tube); (j) 磁浮子(magnetic bobber). 箭头表示自旋方向, 面外自旋分量(m_z)分别用三种颜色表示: 红色表示朝向面外, 白色表示在面上, 蓝色表示朝向面内; (k) 左旋螺旋磁相及磁孤子晶格示意图; (l) 右旋螺旋磁相及磁孤子晶格示意图, © (2016) The Physical Society of Japan; (m), (n)对Cr_1/3NbS₂施加沿着垂直于c轴的外加磁场, 当磁场强度较弱时, 螺旋手性周期变长, 磁孤子数目保持不变

Fig. 1. Illustrations of a series of 1D, 2D and 3D topological spin textures in magnetic materials^[1,13]: (a) Néel-type skyrmion (w = –1); (b) Bloch-type skyrmion (w = –1); (c) antiskyrmion (w = +1); (d) biskyrmion (w = –2); (e) vortex (w = –0.5); (f) meron (w = –0.5); (g) bimeron (w = –1); (h) skyrmionium (w = 0); (i) skyrmion tube, and (j) magnetic bobber. The arrow represents the spin direction and the out-of-plane spin component (m_z) is represented by the color: Red is out of the plane, white is in-plane, and blue is into the plane; (k) left-handed helimagnetic structures and soliton lattices; (l) right-handed helimagnetic structures and soliton lattices © (2016) The Physical Society of Japan; (m), (n) illustrations of soliton lattices under a small magnetic field perpendicular to c-axis: the solitons number remains unchanged, while the chiral period becomes longer.

下载: 全尺寸图片幻灯片

图 2 (a) Cr_1/3NbS₂晶体结构示意图, Cr, Nb和S原子分别由蓝色、绿色和黄色球体表示; (b) Cr_1/3NbS₂单晶生长方法的示意图^[22]; (c)—(g) Cr_1/3NbS₂中不同磁相的示意图: (c) 手性螺旋磁序(CHM), 黄框标示了一个完整的磁孤子周期; (d) 手性圆锥相(CCP); (e) 手性孤子晶格(CSL); (f) 倾斜手性孤子晶格(CSL); (g) 铁磁态(FFM)

Fig. 2. (a) Crystal structure of Cr_1/3NbS₂, Cr, Nb and S atoms are denoted by blue, green and yellow spheres, respectively; (b) schematic illustration of Cr_1/3NbS₂ single crystal growth^[22]; (c)–(g) schematic diagrams illustrating different spin configurations of Cr_1/3NbS₂: (c) Chiral helimagnetic order (CHM), in which the yellow box denotes a complete period of a chiral soliton; (d) chiral conical phase (CCP); (e) chiral soliton lattice (CSL); (f) tilted chiral soliton lattice (TCSL); (g) forced ferromagnetic (FFM) state.

下载: 全尺寸图片幻灯片

图 3 H⊥c时, Cr_1/3NbS₂在T_C附近的相图. 此处HM相当于文中所提及的CHM^[15]

Fig. 3. Phase diagram of Cr_1/3NbS₂ in presence of a magnetic field perpendicular to c-axis below curie temperature T_C. Here HM is equivalent to the CHM mentioned in this review^[15].

下载: 全尺寸图片幻灯片

图 4 (a) Cr_1/3NbS₂沿ab面电阻率随温度的变化关系, 内插图显示了电阻率关于温度的导数^[33]; (b) ΔH = 100—1000 Oe时, 熵变随温度的变化关系(ΔS_M(T)), 居里温度T_C与手性有序无序转变温度T ^*存在温差, 内插图为T_C附近的ΔS_M(T )图^[44]; (c) T = 110 K, 无外加磁场时的CHM的洛伦兹TEM图像, 虚线矩形区域对应的对比度强度线轮廓图中, 垂直网格间距约为15 nm, 周期约为46 nm^[12]; CHM周期 (d) 和波数 (e) 随温度的变化关系. 蓝色方格表示洛伦兹菲涅耳法和DPC法获得的数据, 绿圆形和红三角形分别对应于随温度增加和减小的SAES数据, (d) 中的内插图为三维平均场理论数据和实验数据^[45]

Fig. 4. (a) Temperature dependence of resistivity of Cr_1/3NbS₂. The inset shows the temperature deriative of resistivity^[33]; (b) ΔS_M-T curves for ΔH = 100–1000 Oe, a temperature gap exists between T_C and order-disorder temperature T ^*. The inset is the ΔS_M-T curves near the T_C^[44]; (c) the Lorentz TEM micrographs of CHM in Cr_1/3NbS₂ at 0 T and 110 K, with a line profile of the contrast intensity integrated in a dotted square region. Vertical grid spacing corresponds to 15 nm. The period is estimated to be 46 nm^[12]; temperature dependent period (d) and wave number (e) of CHM are divided into three regions. Blue squares represent the data obtained by the Lorentz Fresnel and DPC methods. Green circle and red triangles represent the SAES data with increasing and decreasing T, respectively. The inset in (d) shows the 3D mean-field theory and the measurement data^[45].

下载: 全尺寸图片幻灯片

图 5 (a) 无外加磁场时, CHM的过聚焦洛伦兹TEM图像^[12]; (b), (c) H⊥c时, H = 0.208 T (b) 和H = 0.224 T (c) 的CHM-CSL过聚焦洛伦兹TEM图像^[12]; (d) 是 (c) 中的对比度强度线轮廓图^[12]; (e) [L(H)-L(0)]/L(0)的实验数据与理论计算结果^[12]; (f) L(0)/L(H)的实验数据与理论计算结果^[12]; (g) 手性磁结构决定CSL洛伦兹TEM图像对比度的原理示意图^[12]; (h) T = 2 K, H⊥c时的磁化曲线图^[33]; (i) T = 2 K, H⊥c时的面内磁电阻随磁场的变化关系, 上内插图为磁电阻斜率随磁场的变化关系, 下内插图为电阻率关于磁场的导数^[33]; (j) 总信号幅值A₀随温度的变化关系^[34]; (k) 不同磁场强度下μ介子自旋进动频率f随温度的变化关系^[34]

Fig. 5. (a)−(c)The underfocused Lorentz micrographs in 0 T (a), magnetic fields are 0.208 T (b) and 0.224 T (c) which are perpendicular to the c-axis^[12]; (d) line profile of the contrast intensity integrated in the dotted area in (c) ^[12]; (e) the measurement data and theoretical calculation results of [L(H)-L(0)]/L(0)^[12]; (f) experimental results and theoretical calculation results of L(0)/L(H)^[12]; (g) magnetic chirality determines the characteristic magnetic patterns in Lorentz micrographs of CSL^[12]; (h) M-H curves of vertical magnetic field at 2 K^[33]; (i) magnetoresistance with a vertical magnetic field at 2 K, The upper inset is the variation in the slope of the magnetoresistance, and the lower inset is the derivative of the resistivity with respect to the magnetic field^[33]; (j) temperature dependent total intensity of A₀^[34]; (k) temperature dependent the muon spin precession frequency f under different magnetic field^[34].

下载: 全尺寸图片幻灯片

图 6 (a) CSL-1与CSL-2的结构示意图^[42]; (b)—(d)交流磁响应随温度的变化关系, 在H_ac = 3.9 Oe和H_dc = 0.2 kOe (e), H_dc = 1.0 kOe (f) 和 H_dc = 1.6 kOe (g) 下的M_3ω, 交流磁场的频率范围为1—300 Hz^[42]; (e) T = 3.5 K, H⊥c时的ESR信号, H_c1和H_c2分别表示ESR尖峰异常信号开始出现和消失时的磁场强度^[53]; (f) Cr_1/3NbS₂的磁场与温度的相图, 实心红圈和空心红圈分别表示H_c1和H_c2^[53]

Fig. 6. (a) Schematics of CSL-1 and CSL-2^[42]; (b)–(d) temperature dependence of the AC magnetic response M_3ω under H_ac = 3.9 Oe and H_dc = 0.2 kOe (b), H_dc = 1.0 kOe (c) and H_dc = 1.6 kOe (d). The frequency of all the AC magnetic field in the range of 1 to 300 Hz^[42]; (e) ESR signal at T = 3.5 K for H⊥c. The H_c1 and H_c2 indicate the appearing and disappearing fields of the anomalous signal^[53]; (f) H-T phase diagram of Cr_1/3NbS₂, The red solid and open circles indicate the H_c1 and H_c2, respectively^[53].

下载: 全尺寸图片幻灯片

图 7 (a) H⊥c时, Cr_1/3NbS₂在不同磁场强度下对应的M(T)图, 内插图显示了10 Oe对应的零场冷(zero-field-cooling, ZFC)和场冷(field-cooling, FC)曲线^[15]; (b) H⊥c时, 不同温度下的归一化面内电阻率随磁场的变化关系^[33]; (c) T = 10—110 K时, 电流I = 5 mA的归一化层间磁电阻随磁场的变化关系^[57]; (d), (e) T = 102 K且H⊥c时, 磁结构位错(红色“⊥”符号旋转)的DPC-STEM图像, 磁场大小分别为104 Oe (d) 与2348 Oe (e)^[43]; (f) T = 50 K, 在50 μm长的手性轴上以1 mT的步长所测量样品的铁磁共振谱图^[43]; (g) 是 (f) 的简化图, 用“*”标记的区域具有混合特性^[43]; (h)—(j) 在薄片样品中垂直运动的孤子的洛伦兹TEM图像, 显示了在FFM到CSL相变过程中, 随着施加磁场的减小, 孤子位错(旋转的红色“⊥”符号)进行的单向引导运动^[43]

Fig. 7. (a) M-T curves under different fields for Cr_1/3NbS₂ with H⊥c, the inset shows the zero-field-cooling (ZFC) and field-cooling (FC) curves under 10 Oe with H⊥c; (b) the relationship between normalized resistivity and magnetic field with H⊥c at various temperatures^[33]; (c) the normalized interlayer magnetoresistance (MR) curves which is applied 5 mA in a temperature range from 10 to 110 K^[57]; (d)–(e) DPC-STEM images of dislocations (rotated red “⊥” symbols) at low (left column, 104 Oe) and high (right column, 2348 Oe) fields at 102 K in presence of a magnetic field perpendicular to c axis^[43]; (f) ferromagnetic resonance measurements on a sample with a 50-μm-long chiral axis at 50 K in the range of + 0.2 to – 0.2 T with 1 mT steps, showing the effect of magnetic properties with magnetic phase transitions^[43]; (g) a simplified sketch of (f), the field region has mixed characteristics which marked as “*” ^[43]; (h)–(j) the Lorentz Fresnel images of solitons running vertically in a flake sample, showing the unidirectional guided movement of soliton dislocations (rotated red “⊥” symbols) as the applied (h)–(j) magnetic field decreases during the FFM to CSL phase transition^[43].

下载: 全尺寸图片幻灯片

图 8 (a) 上图为T = 5 K时, 不同角度下平行于磁场的磁化强度分量M_∥与磁场强度H关系, 内插图为器件测试结构, 下图表示相应磁场下测得的面内磁电阻, 垂直线表示不同角度磁场下的极化磁场$ H_{\rm{P}}^{{\theta _{\rm{H}}}}$^[60]; (b) 霍尔效应示意图; (c) 反常霍尔效应示意图; (d) H∥c时, 不同温度下霍尔电阻率ρ_yx随磁场的变化关系^[60]; (e)由ρ_yx决定的正常霍尔系数(R_H)和反常霍尔系数(S_H)随温度的变化关系^[60]; (f) T = 2—120 K时, 去除正常霍尔效应贡献的电阻率随磁场的变化关系^[60]; (g) 电磁手性效应(EMC)原理图; (h) 在不同温度下R_EMC随磁场的变化关系^[63]

Fig. 8. (a) The upper diagram shows the magnetization component (M_∥) parallel to magnetic fields as a function of H with different angles at 5 K. The inset is the measuring configuration. The lower diagram shows the in-plane magnetoresistance measured under corresponding magnetic fields. Vertical lines indicate the polarization field $H_{\rm{P}}^{{\theta _{\rm{H}}}}$ with different direction^[60]; (b)–(c) scheme of Hall effect (b), anomalous Hall effect (c); (d) the relationship between magnetic field and ρ_xy at various temperature with H∥c^[60]; (e) the relationship between ordinary Hall coefficient (R_H), anomalous Hall coefficient (S_H) and temperature, which are determined from ρ_yx^[60]; (f) the relationship between magnetic field and ρ_yx besides ordinary Hall effect measured at temperature in the range of 2 to 120 K^[60]; (g) scheme of the electrical magnetochiral (EMC) effect; (h) magnetic field dependent R_EMC measured under a large range of temperature^[63].

下载: 全尺寸图片幻灯片

图 9 (a) Cr_1/3NbS₂晶体所制成器件的扫描离子显微照片^[69]; T = 20 K (b) 和T = 10 K (c) 时的磁电阻随磁场的变化关系, 内插图为(c)中高磁场区域磁电阻随磁场的变化关系^[69]; (d)—(f) T = 100 K, CSL的洛伦兹TEM图像, 分别处在1560 (d), 1771 (e)和1781 Oe (f) 的磁场下, 红色箭头表示手性边界, 蓝色箭头表示右手手性磁孤子^[69]; (g), (h) 手性磁孤子结构的周期长度随磁场的变化关系, 内插图为样品尺寸示意图^[69]; (i)手性磁孤子数目随磁场变化关系, 初始局域磁孤子数目为20^[69]

Fig. 9. (a) Scanning ion micrograph of the device based on Cr_1/3NbS₂ crystals, the size of the flake is$10\;{\rm{ \text{μ} m}} \times 10 \;{\rm{\text{μ} m}} \times 1 \;{\rm{\text{μ} m}}$^[69]; (b), (c) the MR curves at 20 (b) and 10 K (c), the inset is the MR curves under a higher magnetic field in (c) ^[69]; (d)–(f) Lorentz Fresnel images of CSL taken under the underfocused condition around the crystal grain of right-handed chirality at 1560 (d), 1771 (e) and 1781 Oe (f) at 100 K. Red arrows represent chiral boundary and blue arrows represent right-handed chiral boundary ^[69]; (g), (h) the relationship between soliton period and magnetic field. The inset shows the sample dimensions^[69]; (i) it shows the corresponding soliton density, The initial number of confined solitons is 20^[69].

下载: 全尺寸图片幻灯片

图 10 (a) 不同厚度Cr_1/3NbS₂晶体的光学显微照片^[14]; (b) T = 250 mK时, 不同厚度Cr_1/3NbS₂晶体的磁电阻随磁场的变化关系^[14]; (c)—(e) 无外加磁场下的Cr原子的自旋x分量 (S_x) 随样品厚度的变化关系, 通过理论计算厚度分别为1.5L₀ (c), 2.5L₀ (d), 5.5L₀ (e) 时的情况, 其中L₀ = 48 nm为无外加磁场下磁孤子周期长度^[14]; (f) t = 2.5L₀时, 不同磁场下最低能量分布关系^[14]; (g), (h)反映了不同磁场下对应出现的单个磁孤子 (g) 和无磁孤子 (h)最低能量构型^[14]

Fig. 10. (a) Optical microscope images of Cr_1/3NbS₂ crystals with various thickness^[14]; (b) the magnetoresistance of Cr_1/3NbS₂ with different thicknesses measured at 250 mK^[14]; (c)–(e) the relationship between the x component of spins on the Cr atoms (S_x) and the thickness at zero magnetic field. Calculating results using the model to with t = 1.5L₀ (c), 2.5L₀ (d), and 5.5L₀ (e) (L₀ = 48 nm) ^[14]; (f) the lowest energy distribution under different magnetic fields when t = 2.5 L₀^[14]; (g) and (h) show the corresponding lowest energy configurations for single and zero soliton states, respectively^[14].

下载: 全尺寸图片幻灯片

[1]	Zhang X C, Zhou Y, Song K M, Park T E, Xia J, Ezawa M, Liu X X, Zhao W S, Zhao G P, Woo S 2020 J. Phys. Condens. Matter 32 143001 Google Scholar
[2]	Skyrme T H R 1962 Nucl. Phys. 31 556 Google Scholar
[3]	Bogdanov A, Hubert A 1994 J. Magn. Magn. Mater. 138 255 Google Scholar
[4]	Bocdanov A, Hubert A 1994 Phys. Status Solidi B 186 527 Google Scholar
[5]	Sondhi S L, Karlhede A, Kivelson S A, Rezayi E H 1993 Phys. Rev. B 47 16419 Google Scholar
[6]	Yang K, Moon K, Zheng L, MacDonald A H, Girvin S M, Yoshioka D, Zhang S C 1994 Phys. Rev. Lett. 72 732 Google Scholar
[7]	Rossler U K, Bogdanov A N, Pfleiderer C 2006 Nature 442 797 Google Scholar
[8]	Neubauer A, Pfleiderer C, Binz B, Rosch A, Ritz R, Niklowitz P G, Boni P 2009 Phys. Rev. Lett. 102 186602 Google Scholar
[9]	Jonietz F, Muhlbauer S, Pfleiderer C, Neubauer A, Munzer W, Bauer A, Adams T, Georgii R, Boni P, Duine R A, Everschor K, Garst M, Rosch A 2010 Science 330 1648 Google Scholar
[10]	Yu X Z, Onose Y, Kanazawa N, Park J H, Han J H, Matsui Y, Nagaosa N, Tokura Y 2010 Nature 465 901 Google Scholar
[11]	Braun H B 2012 Adv. Phys. 61 1 Google Scholar
[12]	Togawa Y, Koyama T, Takayanagi K, Mori S, Kousaka Y, Akimitsu J, Nishihara S, Inoue K, Ovchinnikov A S, Kishine J 2012 Phys. Rev. Lett. 108 107202 Google Scholar
[13]	Togawa Y, Kousaka Y, Inoue K, Kishine J 2016 J. Phys. Soc. Jpn. 85 112001 Google Scholar
[14]	Wang L, Chepiga N, Ki D K, Li L, Li F, Zhu W, Kato Y, Ovchinnikova O S, Mila F, Martin I, Mandrus D, Morpurgo A F 2017 Phys. Rev. Lett. 118 257203 Google Scholar
[15]	Han H, Zhang L, Sapkota D, Hao N N, Ling L S, Du H F, Pi L, Zhang C J, Mandrus D G, Zhang Y H 2017 Phys. Rev. B 96 094439 Google Scholar
[16]	Miyadai T, Kikuchi K, Kondo H, Sakka S, Arai M, Ishikawa Y 1983 J. Phys. Soc. Jpn. 52 1394 Google Scholar
[17]	Volkova L M, Marinin D V 2014 J. Appl. Phys. 116 133901 Google Scholar
[18]	Dyadkin V, Mushenok F, Bosak A, Menzel D, Grigoriev S, Pattison P, Chernyshov D 2015 Phys. Rev. B 91 184205 Google Scholar
[19]	Dzyaloshinsky I 1958 J. Phys. Chem. Solids 4 241 Google Scholar
[20]	Moriya T 1960 Phys. Rev. 120 91 Google Scholar
[21]	Shinozaki M, Hoshino S, Masaki Y, Kishine J, Kato Y 2016 J. Phys. Soc. Jpn. 85 074710 Google Scholar
[22]	Kousaka Y, Nakao Y, Kishine J, Akita M, Inoue K, Akimitsu J 2009 Nucl. Instrum. Methods Phys. Res., Sect. A 600 250 Google Scholar
[23]	Kishine J, Bostrem I G, Ovchinnikov A S, Sinitsyn V E 2012 Phys. Rev. B 86 214426 Google Scholar
[24]	Heisenberg W 1926 Z. Phys. 38 411 Google Scholar
[25]	Gong C, Zhang X 2019 Science 363 eaav4450 Google Scholar
[26]	Dirac P A M 1926 Proc. R. Soc. A 112 661 Google Scholar
[27]	Soumyanarayanan A, Reyren N, Fert A, Panagopoulos C 2016 Nature 539 509 Google Scholar
[28]	Wiesendanger R 2016 Nat. Rev. Mater. 1 16044 Google Scholar
[29]	Kishine J, Inoue K, Kikuchi K 2007 J. Magn. Magn. Mater. 310 1386 Google Scholar
[30]	Aczel A A, DeBeer-Schmitt L M, Williams T J, McGuire M A, Ghimire N J, Li L, Mandrus D 2018 Appl. Phys. Lett. 113 032404 Google Scholar
[31]	Bruno P 1989 Phys. Rev. B 39 865 Google Scholar
[32]	Bruno P 1991 MRS Online Proc. Libr. 231 299
[33]	Ghimire N J, McGuire M A, Parker D S, Sipos B, Tang S, Yan J Q, Sales B C, Mandrus D 2013 Phys. Rev. B 87 104403 Google Scholar
[34]	Braam D, Gomez C, Tezok S, de Mello E V L, Li L, Mandrus D, Kee H Y, Sonier J E 2015 Phys. Rev. B 91 144407 Google Scholar
[35]	Camley R E, Tilley D R 1988 Phys. Rev. B 37 3413 Google Scholar
[36]	Kubetzka A, Pietzsch O, Bode M, Wiesendanger R 2003 Phys. Rev. B 67 020401(R)Google Scholar
[37]	Tanaka M, Saitoh E, Miyajima H, Yamaoka T, Iye Y 2006 Phys. Rev. B 73 052411 Google Scholar
[38]	Yonemura J, Shimamoto Y, Kida T, Yoshizawa D, Kousaka Y, Nishihara S, Goncalves F J T, Akimitsu J, Inoue K, Hagiwara M, Togawa Y 2017 Phys. Rev. B 96 184423 Google Scholar
[39]	Masaki Y, Stamps R L 2017 Phys. Rev. B 95 024418 Google Scholar
[40]	Tsuruta K, Mito M, Kousaka Y, Akimitsu J, Kishine J, Togawa Y, Inoue K 2016 J. Appl. Phys. 120 143901 Google Scholar
[41]	Tsuruta K, Mito M, Kousaka Y, Akimitsu J, Kishine J, Togawa Y, Ohsumi H, Inoue K 2016 J. Phys. Soc. Jpn. 85 013707 Google Scholar
[42]	Tsuruta K, Mito M, Deguchi H, Kishine J, Kousaka Y, Akimitsu J, Inoue K 2016 Phys. Rev. B 93 104402 Google Scholar
[43]	Paterson G W, Koyama T, Shinozaki M, Masaki Y, Goncalves F J T, Shimamoto Y, Sogo T, Nord M, Kousaka Y, Kato Y, McVitie S, Togawa Y 2019 Phys. Rev. B 99 224429 Google Scholar
[44]	Clements E M, Das R, Li L, Lampen-Kelley P J, Phan M H, Keppens V, Mandrus D, Srikanth H 2017 Sci. Rep. 7 6545 Google Scholar
[45]	Togawa Y, Kishine J, Nosov P A, Koyama T, Paterson G W, McVitie S, Kousaka Y, Akimitsu J, Ogata M, Ovchinnikov A S 2019 Phys. Rev. Lett. 122 017204 Google Scholar
[46]	Grundy P J, Tebble R S 1968 Adv. Phys. 17 153 Google Scholar
[47]	Ngo D T, Kuhn L T 2016 Adv. Nat. Sci.: Nanosci. Nanotechnol. 7 045001 Google Scholar
[48]	Peng L C, Zhang Y, Zuo S L He M, Cai J W, Wang S G, Wei H X, Li J Q, Zhao T Y, Shen B G 2018 Chin. Phys. B 27 066802 Google Scholar
[49]	Pollard S D, Garlow J A, Yu J W, Wang Z, Zhu Y M, Yang H 2017 Nat. Commun. 8 14761 Google Scholar
[50]	de Réotier P D, Yaouanc A 1997 J. Phys. Condens. Matter 9 9113 Google Scholar
[51]	Blundell S J 1999 Contemp. Phys. 40 175 Google Scholar
[52]	Morenzoni E, Prokscha T, Suter A, Luetkens H, Khasanov R 2004 J. Phys.: Condens. Matter 16 S4583 Google Scholar
[53]	Yoshizawa D, Sawada Y, Kousaka Y, Kishine J, Togawa Y, Mito M, Inoue K, Akimitsu J, Nakano T, Nozue Y, Hagiwara M 2019 Phys. Rev. B 100 104413 Google Scholar
[54]	Baumann S, Paul W, Choi T, Lutz C P, Ardavan A, Heinrich A J 2015 Science 350 417 Google Scholar
[55]	Yoshizawa D, Kishine J, Kousaka Y, Togawa Y, Mito M, Akimitsu J, Inoue K, Hagiwara M 2015 Physics Procedia 75 926 Google Scholar
[56]	Moriya T, Miyadai T 1982 Solid State Commun. 42 209 Google Scholar
[57]	Togawa Y, Kousaka Y, Nishihara S, Inoue K, Akimitsu J, Ovchinnikov A S, Kishine J 2013 Phys. Rev. Lett. 111 197204 Google Scholar
[58]	Mushenok F B 2013 Phys. Solid State 55 2482 Google Scholar
[59]	Mushenok F B 2013 Eur. Phys. J. B 86 342 Google Scholar
[60]	Bornstein A C, Chapman B J, Ghimire N J, Mandrus D G, Parker D S, Lee M 2015 Phys. Rev. B 91 184401 Google Scholar
[61]	Hall E H 1879 Am. J. Sci. 19 200 Google Scholar
[62]	Nagaosa N, Sinova J, Onoda S, MacDonald A H, Ong N P 2010 Rev. Mod. Phys. 82 1539 Google Scholar
[63]	Aoki R, Kousaka Y, Togawa Y 2019 Phys. Rev. Lett. 122 057206 Google Scholar
[64]	Yokouchi T, Kanazawa N, Kikkawa A, Morikawa D, Shibata K, Arima T, Taguchi Y, Kagawa F, Tokura Y 2017 Nat. Commun. 8 866 Google Scholar
[65]	Pop F, Auban-Senzier P, Canadell E, Rikken G L J A, Avarvari N 2014 Nat. Commun. 5 3757 Google Scholar
[66]	Ideue T, Hamamoto K, Koshikawa S, Ezawa M, Shimizu S, Kaneko Y, Tokura Y, Nagaosa N, Iwasa Y 2017 Nat. Phys. 13 578 Google Scholar
[67]	Qin F, Shi W, Ideue T, Yoshida M, Zak A, Tenne R, Kikitsu T, Inoue D, Hashizume D, Iwasa Y 2017 Nat. Commun. 8 14465 Google Scholar
[68]	Kishine J, Bostrem I G, Ovchinnikov A S, Sinitsyn V E 2014 Phys. Rev. B 89 014419 Google Scholar
[69]	Togawa Y, Koyama T, Nishimori Y, Matsumoto Y, McVitie S, McGrouther D, Stamps R L, Kousaka Y, Akimitsu J, Nishihara S, Inoue K, Bostrem I G, Sinitsyn V E, Ovchinnikov A S, Kishine J 2015 Phys. Rev. B 92 220412 Google Scholar
[70]	Yu X Z, Kanazawa N, Onose Y, Kimoto K, Zhang W Z, Ishiwata S, Matsui Y, Tokura Y 2011 Nat. Mater. 10 106 Google Scholar
[71]	Fert A, Cros V, Sampaio J 2013 Nat. Nanotechnol. 8 152 Google Scholar
[72]	Tomasello R, Martinez E, Zivieri R, Torres L, Carpentieri M, Finocchio G 2014 Sci. Rep. 4 6784 Google Scholar
[73]	Zhang X C, Zhao G P, Fangohr H, Liu J P, Xia W X, Xia J, Morvan F J 2015 Sci. Rep. 5 7643 Google Scholar
[74]	Karna S K, Womack F N, Chapai R, Young D P, Marshall M, Xie W W, Graf D, Wu Y, Cao H B, DeBeer-Schmitt L, Adams P W, Jin R, DiTusa J F 2019 Phys. Rev. B 100 184413 Google Scholar
[75]	Parkin S S P, Friend R H 1980 Physica B & C 99 219 Google Scholar
[76]	Friend R H, Beal A R, Yoffe A D 1977 Philos. Mag. 35 1269 Google Scholar
[77]	Dijkstra J, Zijlema P J, Vanbruggen C F, Haas C, Degroot R A 1989 J. Phys. Condens. Matter 1 6363 Google Scholar
[78]	Gubkin A F, Proskurina E P, Kousaka Y, Sherokalova E M, Selezneva N V, Miao P, Lee S, Zhang J, Ishikawa Y, Torii S, Kamiyama T, Campo J, Akimitsu J, Baranov N V 2016 J. Appl. Phys. 119 013903 Google Scholar
[79]	Zhang H W, Wei W S, Zheng G L, Lu J W, Wu M, Zhu X D, Tang J, Ning W, Han Y Y, Ling L S, Yang J Y, Gao W S, Qin Y L, Tian M L 2018 Appl. Phys. Lett. 113 072402 Google Scholar
[80]	Hu W Z, Wang G T, Hu R W, Petrovic C, Morosan E, Cava R J, Fang Z, Wang N L 2008 Phys. Rev. B 78 085120 Google Scholar
[81]	Novoselov K S, Jiang D, Schedin F, Booth T J, Khotkevich V V, Morozov S V, Geim A K 2005 Proc. Natl. Acad. Sci. U. S. A. 102 10451 Google Scholar
[82]	Wang Q H, Kalantar-Zadeh K, Kis A, Coleman J N, Strano M S 2012 Nat. Nanotechnol. 7 699 Google Scholar
[83]	Xu M S, Liang T, Shi M M, Chen H Z 2013 Chem. Rev. 113 3766 Google Scholar
[84]	Novoselov K S, Geim A K, Morozov S V, Jiang D, Zhang Y, Dubonos S V, Grigorieva I V, Firsov A A 2004 Science 306 666 Google Scholar

[1]	赵晨蕊, 杨倩倩, 焦距, 唐政华, 秦明辉. 振荡磁场驱动亚铁磁畴壁动力学研究. 物理学报, 2025, 74(3): . doi: 10.7498/aps.74.20241033
[2]	熊宜浓, 吴闯文, 任传童, 孟德全, 陈是位, 梁世恒. 基于二维磁性材料的自旋轨道力矩研究进展. 物理学报, 2024, 73(1): 017502. doi: 10.7498/aps.73.20231244
[3]	夏永顺, 杨晓阔, 豆树清, 崔焕卿, 危波, 梁卜嘉, 闫旭. 基于磁性隧道结和双组分多铁纳磁体的超低功耗磁弹模数转换器. 物理学报, 2024, 73(13): 137502. doi: 10.7498/aps.73.20240129
[4]	金哲珺雨, 曾钊卓, 曹云姗, 严鹏. 磁子霍尔效应. 物理学报, 2024, 73(1): 017501. doi: 10.7498/aps.73.20231589
[5]	赵晨蕊, 魏云昕, 刘婷婷, 秦明辉. 正弦微波磁场驱动亚铁磁畴壁动力学. 物理学报, 2023, 72(20): 208502. doi: 10.7498/aps.72.20230913
[6]	郭宇, 周思, 赵纪军. 新型层状Bi₂Se₃的第一性原理研究. 物理学报, 2021, 70(2): 027102. doi: 10.7498/aps.70.20201434
[7]	蒋小红, 秦泗晨, 幸子越, 邹星宇, 邓一帆, 王伟, 王琳. 二维磁性材料的物性研究及性能调控. 物理学报, 2021, 70(12): 127801. doi: 10.7498/aps.70.20202146
[8]	许宏, 苑争一, 黄彤飞, 王啸, 陈正先, 韦进, 张翔, 黄元. 层状材料褶皱对几种地质活动机理研究的启示. 物理学报, 2020, 69(2): 026101. doi: 10.7498/aps.69.20190122
[9]	赵兴东, 张莹莹, 刘伍明. 光晶格中超冷原子系统的磁激发. 物理学报, 2019, 68(4): 043703. doi: 10.7498/aps.68.20190153
[10]	赵巍胜, 黄阳棋, 张学莹, 康旺, 雷娜, 张有光. 斯格明子电子学的研究进展. 物理学报, 2018, 67(13): 131205. doi: 10.7498/aps.67.20180554
[11]	孟康康, 赵旭鹏, 苗君, 徐晓光, 赵建华, 姜勇. 铁磁/非磁金属异质结中的拓扑霍尔效应. 物理学报, 2018, 67(13): 131202. doi: 10.7498/aps.67.20180369
[12]	夏静, 韩宗益, 宋怡凡, 江文婧, 林柳蓉, 张溪超, 刘小晰, 周艳. 磁斯格明子器件及其应用进展. 物理学报, 2018, 67(13): 137505. doi: 10.7498/aps.67.20180894
[13]	盛宇, 张楠, 王开友, 马星桥. 自旋轨道矩调控的垂直磁各向异性四态存储器结构. 物理学报, 2018, 67(11): 117501. doi: 10.7498/aps.67.20180216
[14]	张楠, 张保, 杨美音, 蔡凯明, 盛宇, 李予才, 邓永城, 王开友. 电学方法调控磁化翻转和磁畴壁运动的研究进展. 物理学报, 2017, 66(2): 027501. doi: 10.7498/aps.66.027501
[15]	李柱松, 朱泰山. 超晶格和层状结构传热特性的连续模型及其在能源材料设计中的应用. 物理学报, 2016, 65(11): 116802. doi: 10.7498/aps.65.116802
[16]	肖嘉星, 鲁军, 朱礼军, 赵建华. 垂直磁各向异性L10-Mn1.67Ga超薄膜分子束外延生长与磁性研究. 物理学报, 2016, 65(11): 118105. doi: 10.7498/aps.65.118105
[17]	谷晓芳, 钱轩, 姬扬, 陈林, 赵建华. (Ga,Mn)As中电流诱导自旋极化的磁光Kerr测量. 物理学报, 2012, 61(3): 037801. doi: 10.7498/aps.61.037801
[18]	杨威, 姬扬, 罗海辉, 阮学忠, 王玮竹, 赵建华. Curie温度附近稀磁半导体(Ga,Mn)As的电学噪声谱性质. 物理学报, 2009, 58(12): 8560-8565. doi: 10.7498/aps.58.8560
[19]	任敏, 张磊, 胡九宁, 邓宁, 陈培毅. 基于磁动力学方程的电流感应磁化翻转效应的宏观模型. 物理学报, 2007, 56(5): 2863-2867. doi: 10.7498/aps.56.2863
[20]	任俊峰, 张玉滨, 解士杰. 铁磁/有机半导体/铁磁系统的电流自旋极化性质研究. 物理学报, 2007, 56(8): 4785-4790. doi: 10.7498/aps.56.4785

计量

文章访问数: 15799
PDF下载量: 742
被引次数: 0

姓名
邮箱
手机号码
标题
留言内容
验证码

搜索

留言板

层状手性拓扑磁材料Cr_1/3NbS₂的磁学特性