Pressure-densified new rhombohedral phase of
Jian-Tao Wang, Changhao Wang, and Changfeng Chen
Phys. Rev. B 104, L220101 (2021) - Published 7 December, 2021
Luis Barroso-Luque, Julia H. Yang, and Gerbrand Ceder
Phys. Rev. B 104, 224203 (2021) - Published 22 December, 2021
The computational study of configuration thermodynamics of crystalline materials relies heavily on accurate representations of the internal energy in terms of configurational variables. Considering the growth of configuration space dimensionality and the relatively constant number of training points, compressed sensing (CS) has been used as an effective paradigm to fit accurate expansions. However, when using a basis, CS only provides guarantees on accurate coefficient recovery under strict sampling requirements. Here, the authors demonstrate how replacing bases with frames, and thus obtaining redundant representations, allows obtaining accurate and highly sparse expansions with less strict sampling requirements.
Dmitry Berkov, Elena K. Semenova, and Natalia L. Gorn
Phys. Rev. B 104, 224408 (2021) - Published 7 December, 2021
The authors propose the fastest possible numerical solution of the escape-rate evaluation in systems with high-energy barriers (also known as the Kramers’ problem), which is of paramount importance in physics, chemistry, biology, materials, and other branches of science. To this end, they introduce the concept of energy-dependent temperature (EDT), which is equal to the actual temperature for energies near the barrier, but is much larger below the saddle point, thus greatly enhancing the switching probability. The results are in excellent agreement with standard forward-flux sampling, while the EDT computation time is much shorter and, even more importantly, does not grow with the barrier height.
Cezary Śliwa, Carmine Autieri, Jacek A. Majewski, and Tomasz Dietl
Phys. Rev. B 104, L220404 (2021) - Published 6 December, 2021
The anomalous quantum Hall effect and axion electrodynamics are among features discovered in ferromagnetic topological materials, such as Cr- or V-doped Bi-Sb chalcogenides. The ferromagnetism has also appeared as a topological phenomenon resulting from enhanced Van Vleck’s interband spin susceptibility of band carriers. Here, the authors demonstrate theoretically that the interband susceptibility is conquered by a self-interaction term that does not contribute to the strength of the spin-spin interaction between different magnetic ions. By quantitative computations of the coupling magnitude for neighboring Mn pairs in topological HgTe and nontopological CdTe, the team shows that the interband term is rather small and merely antiferromagnetic. Actually, the superexchange appears as the prevailing spin-spin exchange mechanism without carriers. This finding explains, so far mysterious, results of studies, in particular, a change of the interaction sign when passing from the early to late transition metals in magnetically doped Bi-Sb chalcogenides.
Nikita Astrakhantsev, Francesco Ferrari, Nils Niggemann, Tobias Müller, Aishwarya Chauhan, Augustine Kshetrimayum, Pratyay Ghosh, Nicolas Regnault, Ronny Thomale, Johannes Reuther, Titus Neupert, and Yasir Iqbal
Phys. Rev. B 104, L220408 (2021) - Published 22 December, 2021
Quantum spin models on two-dimensional corner-sharing triangular arrangements, e.g., the kagome lattice, are fertile playgrounds for realizing exotic phases. Following the recent report of a gapless spin liquid in KCuAlBiO(SO)Cl, wherein the Cu spin-½ ions form a perfect two-dimensional shuriken lattice, the authors employ state-of-the-art quantum many-body approaches to reveal a pinwheel valence-bond-crystal ground state of the isotropic Heisenberg antiferromagnet. This work thus points to the important role of spatial anisotropy in triggering the gapless spin liquid, in contrast to the kagome material herbertsmithite.
M. Rossi, H. Lu, A. Nag, D. Li, M. Osada, K. Lee, B. Y. Wang, S. Agrestini, M. Garcia-Fernandez, J. J. Kas, Y.-D. Chuang, Z. X. Shen, H. Y. Hwang, B. Moritz, Ke-Jin Zhou, T. P. Devereaux, and W. S. Lee
Phys. Rev. B 104, L220505 (2021) - Published 8 December, 2021
The discovery of superconductivity in infinite-layer nickelate thin films has produced fervent theoretical research about the doping evolution of their electronic structure. Here, by means of x-ray spectroscopy and atomic multiplet calculations, the authors show that doped holes are mainly introduced in Ni sites in a spin-singlet configuration. The dominant role of the Ni 3 band implies that infinite-layer nickelates are likely a strongly correlated electronic system, reminiscent of their cuprate siblings.
Jian-Tao Wang, Changhao Wang, and Changfeng Chen
Phys. Rev. B 104, L220101 (2021) - Published 7 December, 2021
Daniel Azses, Emanuele G. Dalla Torre, and Eran Sela
Phys. Rev. B 104, L220301 (2021) - Published 2 December, 2021
Bradraj Pandey, Gonzalo Alvarez, and Elbio Dagotto
Phys. Rev. B 104, L220302 (2021) - Published 17 December, 2021
A. Furrer, A. Podlesnyak, E. Pomjakushina, and V. Pomjakushin
Phys. Rev. B 104, L220401 (2021) - Published 2 December, 2021
Bing Li, D. M. Pajerowski, S. X. M. Riberolles, Liqin Ke, J.-Q. Yan, and R. J. McQueeney
Phys. Rev. B 104, L220402 (2021) - Published 2 December, 2021
Rabindranath Bag, Matthew Ennis, Chunxiao Liu, Sachith E. Dissanayake, Zhenzhong Shi, Jue Liu, Leon Balents, and Sara Haravifard
Phys. Rev. B 104, L220403 (2021) - Published 2 December, 2021
Cezary Śliwa, Carmine Autieri, Jacek A. Majewski, and Tomasz Dietl
Phys. Rev. B 104, L220404 (2021) - Published 6 December, 2021
The anomalous quantum Hall effect and axion electrodynamics are among features discovered in ferromagnetic topological materials, such as Cr- or V-doped Bi-Sb chalcogenides. The ferromagnetism has also appeared as a topological phenomenon resulting from enhanced Van Vleck’s interband spin susceptibility of band carriers. Here, the authors demonstrate theoretically that the interband susceptibility is conquered by a self-interaction term that does not contribute to the strength of the spin-spin interaction between different magnetic ions. By quantitative computations of the coupling magnitude for neighboring Mn pairs in topological HgTe and nontopological CdTe, the team shows that the interband term is rather small and merely antiferromagnetic. Actually, the superexchange appears as the prevailing spin-spin exchange mechanism without carriers. This finding explains, so far mysterious, results of studies, in particular, a change of the interaction sign when passing from the early to late transition metals in magnetically doped Bi-Sb chalcogenides.
M. Merte, F. Freimuth, T. Adamantopoulos, D. Go, T. G. Saunderson, M. Kläui, L. Plucinski, O. Gomonay, S. Blügel, and Y. Mokrousov
Phys. Rev. B 104, L220405 (2021) - Published 13 December, 2021
Xichao Zhang, Jing Xia, Oleg A. Tretiakov, Hung T. Diep, Guoping Zhao, Jinbo Yang, Yan Zhou, Motohiko Ezawa, and Xiaoxi Liu
Phys. Rev. B 104, L220406 (2021) - Published 15 December, 2021
Haoran He, Lixuan Tai, Hao Wu, Di Wu, Armin Razavi, Tanay A. Gosavi, Emily S. Walker, Kaan Oguz, Chia-Ching Lin, Kin Wong, Yuxiang Liu, Bingqian Dai, and Kang L. Wang
Phys. Rev. B 104, L220407 (2021) - Published 22 December, 2021
Nikita Astrakhantsev, Francesco Ferrari, Nils Niggemann, Tobias Müller, Aishwarya Chauhan, Augustine Kshetrimayum, Pratyay Ghosh, Nicolas Regnault, Ronny Thomale, Johannes Reuther, Titus Neupert, and Yasir Iqbal
Phys. Rev. B 104, L220408 (2021) - Published 22 December, 2021
Quantum spin models on two-dimensional corner-sharing triangular arrangements, e.g., the kagome lattice, are fertile playgrounds for realizing exotic phases. Following the recent report of a gapless spin liquid in KCuAlBiO(SO)Cl, wherein the Cu spin-½ ions form a perfect two-dimensional shuriken lattice, the authors employ state-of-the-art quantum many-body approaches to reveal a pinwheel valence-bond-crystal ground state of the isotropic Heisenberg antiferromagnet. This work thus points to the important role of spatial anisotropy in triggering the gapless spin liquid, in contrast to the kagome material herbertsmithite.
J. M. Wilkinson, F. L. Pratt, T. Lancaster, P. J. Baker, and S. J. Blundell
Phys. Rev. B 104, L220409 (2021) - Published 22 December, 2021
B. G. Ueland, Santanu Pakhira, Bing Li, A. Sapkota, N. S. Sangeetha, T. G. Perring, Y. Lee, Liqin Ke, D. C. Johnston, and R. J. McQueeney
Phys. Rev. B 104, L220410 (2021) - Published 27 December, 2021
R. S. Nair, M. S. Rang, and Paul J. Kelly
Phys. Rev. B 104, L220411 (2021) - Published 27 December, 2021
H. F. Yang, X. L. Liu, S. M. Nie, W. J. Shi, K. Huang, H. J. Zheng, J. Zhang, Y. W. Li, A. J. Liang, M. X. Wang, L. X. Yang, Y. F. Guo, Z. K. Liu, and Y. L. Chen
Phys. Rev. B 104, L220501 (2021) - Published 1 December, 2021
M. I. Bannikov, R. S. Akzyanov, N. K. Zhurbina, S. I. Khaldeev, Yu. G. Selivanov, V. V. Zavyalov, A. L. Rakhmanov, and A. Yu. Kuntsevich
Phys. Rev. B 104, L220502 (2021) - Published 2 December, 2021
Andrey Grankin, Mohammad Hafezi, and Victor M. Galitski
Phys. Rev. B 104, L220503 (2021) - Published 3 December, 2021
M. Smith, A. V. Andreev, and B. Z. Spivak
Phys. Rev. B 104, L220504 (2021) - Published 6 December, 2021
M. Rossi, H. Lu, A. Nag, D. Li, M. Osada, K. Lee, B. Y. Wang, S. Agrestini, M. Garcia-Fernandez, J. J. Kas, Y.-D. Chuang, Z. X. Shen, H. Y. Hwang, B. Moritz, Ke-Jin Zhou, T. P. Devereaux, and W. S. Lee
Phys. Rev. B 104, L220505 (2021) - Published 8 December, 2021
The discovery of superconductivity in infinite-layer nickelate thin films has produced fervent theoretical research about the doping evolution of their electronic structure. Here, by means of x-ray spectroscopy and atomic multiplet calculations, the authors show that doped holes are mainly introduced in Ni sites in a spin-singlet configuration. The dominant role of the Ni 3 band implies that infinite-layer nickelates are likely a strongly correlated electronic system, reminiscent of their cuprate siblings.
Dmitry E. Kiselov and Mikhail V. Feigel'man
Phys. Rev. B 104, L220506 (2021) - Published 20 December, 2021
S. Vahid Hosseini, Mohaddeseh Abbasnejad, and Mohammad Reza Mohammadizadeh
Phys. Rev. B 104, 224101 (2021) - Published 2 December, 2021
Guoliang Yu, Anlian Pan, and Mingxing Chen
Phys. Rev. B 104, 224102 (2021) - Published 6 December, 2021
Y. J. Lü, H. R. Qin, and C. C. Guo
Phys. Rev. B 104, 224103 (2021) - Published 8 December, 2021
J. Kong, S. K. Nayak, K. Co, S. Nayak, J. Wu, A. Feteira, K. A. Beyer, S. P. Alpay, and A. Pramanick
Phys. Rev. B 104, 224104 (2021) - Published 16 December, 2021
Smaranika Dash, Dhiren K. Pradhan, Shalini Kumari, Ravikant, Md. Mijanur Rahaman, C. Cazorla, Kumar Brajesh, Ashok Kumar, Reji Thomas, Philip D. Rack, and Dillip K. Pradhan
Phys. Rev. B 104, 224105 (2021) - Published 16 December, 2021
Helene Piet, Andrew V. G. Chizmeshya, Bin Chen, Stella Chariton, Eran Greenberg, Vitali B. Prakapenka, and Sang-Heon Shim
Phys. Rev. B 104, 224106 (2021) - Published 21 December, 2021
I. Rychetsky, W. Schranz, and A. Tröster
Phys. Rev. B 104, 224107 (2021) - Published 23 December, 2021
Wei Xiong, Penglin Gao, Zhiwang Zhang, Zichong Yue, Haixiao Zhang, Ying Cheng, Xiaojun Liu, and Johan Christensen
Phys. Rev. B 104, 224108 (2021) - Published 27 December, 2021
Jianjun Tian (田建军), V. N. Ivanovski, M. Abeykoon, R. M. Martin, S. Baranets, C. Martin, Yu Liu (刘育), Qianheng Du (杜乾衡), Aifeng Wang (王爱峰), Shuzhang Chen (陈漱彰), Xiao Tong (佟晓), Weifeng Zhang (张伟风), S. Bobev, V. Koteski, and C. Petrovic
Phys. Rev. B 104, 224109 (2021) - Published 27 December, 2021
Yuriy Yerin, Andrey Varlamov, Claudia Fasolato, Francesco Sacchetti, Paolo Postorino, and Caterina Petrillo
Phys. Rev. B 104, 224110 (2021) - Published 28 December, 2021
Heiko Burau, Markus Heyl, and Giuseppe De Tomasi
Phys. Rev. B 104, 224201 (2021) - Published 3 December, 2021
Davide Tisi, Linfeng Zhang, Riccardo Bertossa, Han Wang, Roberto Car, and Stefano Baroni
Phys. Rev. B 104, 224202 (2021) - Published 13 December, 2021
Luis Barroso-Luque, Julia H. Yang, and Gerbrand Ceder
Phys. Rev. B 104, 224203 (2021) - Published 22 December, 2021
The computational study of configuration thermodynamics of crystalline materials relies heavily on accurate representations of the internal energy in terms of configurational variables. Considering the growth of configuration space dimensionality and the relatively constant number of training points, compressed sensing (CS) has been used as an effective paradigm to fit accurate expansions. However, when using a basis, CS only provides guarantees on accurate coefficient recovery under strict sampling requirements. Here, the authors demonstrate how replacing bases with frames, and thus obtaining redundant representations, allows obtaining accurate and highly sparse expansions with less strict sampling requirements.
Zhihao Xu, Xu Xia, and Shu Chen
Phys. Rev. B 104, 224204 (2021) - Published 22 December, 2021
Zihao Qi, Gil Refael, and Yang Peng
Phys. Rev. B 104, 224301 (2021) - Published 2 December, 2021
Vahid Azimi Mousolou, Yuefei Liu, Anders Bergman, Anna Delin, Olle Eriksson, Manuel Pereiro, Danny Thonig, and Erik Sjöqvist
Phys. Rev. B 104, 224302 (2021) - Published 8 December, 2021
Yao Wang, Yongguan Ke, Yi-Jun Chang, Yong-Heng Lu, Jun Gao, Chaohong Lee, and Xian-Min Jin
Phys. Rev. B 104, 224303 (2021) - Published 9 December, 2021
Yinchang Zhao, Shuming Zeng, Geng Li, Chao Lian, Zhenhong Dai, Sheng Meng, and Jun Ni
Phys. Rev. B 104, 224304 (2021) - Published 15 December, 2021
M. Nuske and L. Mathey
Phys. Rev. B 104, 224305 (2021) - Published 16 December, 2021
Yangjie Wang and Jige Chen
Phys. Rev. B 104, 224306 (2021) - Published 17 December, 2021
Florian Kotthoff, Frank Pollmann, and Giuseppe De Tomasi
Phys. Rev. B 104, 224307 (2021) - Published 27 December, 2021
Franz Hempel, Sven Reitzig, Michael Rüsing, and Lukas M. Eng
Phys. Rev. B 104, 224308 (2021) - Published 30 December, 2021
Rasmus Westerström, Vasilii Dubrovin, Katrin Junghans, Christin Schlesier, Bernd Büchner, Stanislav M. Avdoshenko, Alexey A. Popov, Aram Kostanyan, Jan Dreiser, and Thomas Greber
Phys. Rev. B 104, 224401 (2021) - Published 1 December, 2021
Khulaif Alshammari, Eloi Haltz, Mohammed Alyami, Mannan Ali, Paul S. Keatley, Christopher H. Marrows, Joseph Barker, and Thomas A. Moore
Phys. Rev. B 104, 224402 (2021) - Published 1 December, 2021
A. A. Turrini, M Ruminy, F. Bourdarot, U. Stuhr, J. S. White, G. Tucker, M. Skoulatos, M. Núñez-Valdez, and T. Fennell
Phys. Rev. B 104, 224403 (2021) - Published 2 December, 2021
Zhengmeng Xu, Kai Zhang, and J. Li
Phys. Rev. B 104, 224404 (2021) - Published 6 December, 2021
Yasuyuki Kato, Satoru Hayami, and Yukitoshi Motome
Phys. Rev. B 104, 224405 (2021) - Published 6 December, 2021
Chenhai Shen, Guangtao Wang, Tianxing Wang, Xu Zhao, Yong Yan, Xiaohui Song, Xueying Liu, Ying Wang, and Congxin Xia
Phys. Rev. B 104, 224406 (2021) - Published 6 December, 2021
Ayushi Singhania, Masahiro Kadosawa, Yukinori Ohta, Sanjeev Kumar, and Satoshi Nishimoto
Phys. Rev. B 104, 224407 (2021) - Published 6 December, 2021
Dmitry Berkov, Elena K. Semenova, and Natalia L. Gorn
Phys. Rev. B 104, 224408 (2021) - Published 7 December, 2021
The authors propose the fastest possible numerical solution of the escape-rate evaluation in systems with high-energy barriers (also known as the Kramers’ problem), which is of paramount importance in physics, chemistry, biology, materials, and other branches of science. To this end, they introduce the concept of energy-dependent temperature (EDT), which is equal to the actual temperature for energies near the barrier, but is much larger below the saddle point, thus greatly enhancing the switching probability. The results are in excellent agreement with standard forward-flux sampling, while the EDT computation time is much shorter and, even more importantly, does not grow with the barrier height.
Prashanta K. Mukharjee, K. Somesh, K. M. Ranjith, M. Baenitz, Y. Skourski, D. T. Adroja, D. Khalyavin, A. A. Tsirlin, and R. Nath
Phys. Rev. B 104, 224409 (2021) - Published 7 December, 2021
Shilei Ding, Zhongyu Liang, Chao Yun, Rui Wu, Mingzhu Xue, Zhongchong Lin, Andrew Ross, Sven Becker, Wenyun Yang, Xiaobai Ma, Dongfeng Chen, Kai Sun, Gerhard Jakob, Mathias Kläui, and Jinbo Yang
Phys. Rev. B 104, 224410 (2021) - Published 8 December, 2021
Takayuki Shiino, Fernand Denoel, Girma Hailu Gebresenbut, Deep Chandra Joshi, Yu-Chin Huang, Cesar Pay Gómez, Ulrich Häussermann, Andreas Rydh, and Roland Mathieu
Phys. Rev. B 104, 224411 (2021) - Published 8 December, 2021
Kai Zhang, Shreya Ghosh, Sunil Saxena, and M. V. Gurudev Dutt
Phys. Rev. B 104, 224412 (2021) - Published 8 December, 2021
Q.-P. Ding, N. S. Sangeetha, Abhishek Pandey, D. C. Johnston, and Y. Furukawa
Phys. Rev. B 104, 224413 (2021) - Published 9 December, 2021
Fei Xue and Paul M. Haney
Phys. Rev. B 104, 224414 (2021) - Published 10 December, 2021
Ryo Makuta and Chisa Hotta
Phys. Rev. B 104, 224415 (2021) - Published 10 December, 2021
H. Y. Poh, C. C. I. Ang, W. L. Gan, G. J. Lim, and W. S. Lew
Phys. Rev. B 104, 224416 (2021) - Published 13 December, 2021
Katsuhiro Morita, Shigetoshi Sota, and Takami Tohyama
Phys. Rev. B 104, 224417 (2021) - Published 13 December, 2021
Daria Popova-Gorelova, Andreas Bringer, and Stefan Blügel
Phys. Rev. B 104, 224418 (2021) - Published 14 December, 2021
Lisi Li, Liangliang Zheng, Benjamin A. Frandsen, Andrew D. Christianson, Dao-Xin Yao, Meng Wang, and Robert J. Birgeneau
Phys. Rev. B 104, 224419 (2021) - Published 14 December, 2021
Wei-Hsiang Wang, Yu-Song Cheng, Hwo-Shuenn Sheu, Wen-Chin Lin, and Pei-hsun Jiang
Phys. Rev. B 104, 224420 (2021) - Published 15 December, 2021
M. Sekania, M. Melz, N. Sedlmayr, Sunil K. Mishra, and J. Berakdar
Phys. Rev. B 104, 224421 (2021) - Published 17 December, 2021
Yiheng Rao, Qinghui Yang, Qi Wang, Guokun Ma, and Jie Li
Phys. Rev. B 104, 224422 (2021) - Published 17 December, 2021
T. Nomura, A. Ikeda, M. Gen, A. Matsuo, K. Kindo, Y. Kohama, Y. H. Matsuda, S. Zherlitsyn, J. Wosnitza, H. Tsuda, and T. C. Kobayashi
Phys. Rev. B 104, 224423 (2021) - Published 20 December, 2021
D. Bossini, S. Dal Conte, M. Terschanski, G. Springholz, A. Bonanni, K. Deltenre, F. Anders, G. S. Uhrig, G. Cerullo, and M. Cinchetti
Phys. Rev. B 104, 224424 (2021) - Published 20 December, 2021
G. Pokharel, H. Suriya Arachchige, S. Gao, S.-H. Do, R. S. Fishman, G. Ehlers, Y. Qiu, J. A. Rodriguez-Rivera, M. B. Stone, H. Zhang, S. D. Wilson, D. Mandrus, and A. D. Christianson
Phys. Rev. B 104, 224425 (2021) - Published 20 December, 2021
T. Parpiiev, A. Hillion, V. Vlasov, V. Gusev, K. Dumesnil, T. Hauet, S. Andrieu, A. Anane, and T. Pezeril
Phys. Rev. B 104, 224426 (2021) - Published 22 December, 2021
Salih Demirci, Taylan Gorkan, Şafak Çallioǧlu, Yusuf Yüksel, Ümit Akıncı, Ethem Aktürk, and Salim Ciraci
Phys. Rev. B 104, 224427 (2021) - Published 23 December, 2021
San-Dong Guo, Jing-Xin Zhu, Wen-Qi Mu, and Bang-Gui Liu
Phys. Rev. B 104, 224428 (2021) - Published 23 December, 2021
Qixun Guo, Zhongxu Ren, He Bai, Xuemin Wang, Guanghua Yu, Wei He, Jiao Teng, and Tao Zhu
Phys. Rev. B 104, 224429 (2021) - Published 28 December, 2021
Yanyan Shangguan, Song Bao, Zhao-Yang Dong, Zhengwei Cai, Wei Wang, Zhentao Huang, Zhen Ma, Junbo Liao, Xiaoxue Zhao, Ryoichi Kajimoto, Kazuki Iida, David Voneshen, Shun-Li Yu, Jian-Xin Li, and Jinsheng Wen
Phys. Rev. B 104, 224430 (2021) - Published 27 December, 2021
Jie Li, Lei Gu, and Ruqian Wu
Phys. Rev. B 104, 224431 (2021) - Published 28 December, 2021
Samir Kumar Giri, Wasim Akram, Manisha Bansal, and Tuhin Maity
Phys. Rev. B 104, 224432 (2021) - Published 28 December, 2021
Zhen Ma, Zhao-Yang Dong, Jinghui Wang, Shuhan Zheng, Kejing Ran, Song Bao, Zhengwei Cai, Yanyan Shangguan, Wei Wang, M. Boehm, P. Steffens, L.-P. Regnault, Xiao Wang, Yixi Su, Shun-Li Yu, Jun-Ming Liu, Jian-Xin Li, and Jinsheng Wen
Phys. Rev. B 104, 224433 (2021) - Published 28 December, 2021
Xiyun Li, Xin Wang, Zhen Wu, Wen-Xing Yang, and Aixi Chen
Phys. Rev. B 104, 224434 (2021) - Published 29 December, 2021
F. Landolt, Z. Yan, S. Gvasaliya, K. Beauvois, E. Ressouche, J. Xu, and A. Zheludev
Phys. Rev. B 104, 224435 (2021) - Published 30 December, 2021
Masahiko G. Yamada, Masaki Oshikawa, and George Jackeli
Phys. Rev. B 104, 224436 (2021) - Published 30 December, 2021
S. M. Thomas, C. Stevens, F. B. Santos, S. S. Fender, E. D. Bauer, F. Ronning, J. D. Thompson, A. Huxley, and P. F. S. Rosa
Phys. Rev. B 104, 224501 (2021) - Published 3 December, 2021
R. S. Akzyanov
Phys. Rev. B 104, 224502 (2021) - Published 10 December, 2021
Zhangkai Cao, Xingyu Ma, Yiqun Liu, Huaiming Guo, and Shiping Feng
Phys. Rev. B 104, 224503 (2021) - Published 13 December, 2021
Yundi Quan, Kwan-Woo Lee, and Warren E. Pickett
Phys. Rev. B 104, 224504 (2021) - Published 13 December, 2021
Anton V. Khvalyuk and Mikhail V. Feigel'man
Phys. Rev. B 104, 224505 (2021) - Published 15 December, 2021
Dita Puspita Sari, Retno Asih, Ko-ichi Hiraki, Takehito Nakano, Yasuo Nozue, Yasuyuki Ishii, Adrian D. Hillier, and Isao Watanabe
Phys. Rev. B 104, 224506 (2021) - Published 17 December, 2021
P. Samuely, P. Szabó, J. Kačmarčík, A. Meerschaut, L. Cario, A. G. M. Jansen, T. Cren, M. Kuzmiak, O. Šofranko, and T. Samuely
Phys. Rev. B 104, 224507 (2021) - Published 20 December, 2021
Kazuaki Matano, Ryo Ogura, Mateo Fountaine, Harald O. Jeschke, Shinji Kawasaki, and Guo-qing Zheng
Phys. Rev. B 104, 224508 (2021) - Published 20 December, 2021
A. Tomonaga, H. Mukai, F. Yoshihara, and J. S. Tsai
Phys. Rev. B 104, 224509 (2021) - Published 27 December, 2021
Xilong Dou, Xiaoyu Kuang, Weiguo Sun, Gang Jiang, Cheng Lu, and Andreas Hermann
Phys. Rev. B 104, 224510 (2021) - Published 29 December, 2021
Yu. M. Shukrinov, I. R. Rahmonov, A. Janalizadeh, and M. R. Kolahchi
Phys. Rev. B 104, 224511 (2021) - Published 30 December, 2021