Antiferromagnetic metallic state as proved by magnetotransport in epitaxially stabilized perovskite
T. C. Fujita, L. F. Zhang, and M. Kawasaki
Phys. Rev. Materials 4, 031401(R) (2020) - Published 23 March, 2020
David Tománek
Phys. Rev. Materials 4, 030001 (2020) - Published 13 March, 2020
Guest Editor David Tománek introduces a collection of papers in Physical Review Applied and Physical Review Materials on two-dimensional materials and devices, in a snapshot of the leading edge of this hot field.
Caroline Boule, Diana Vaclavkova, Miroslav Bartos, Karol Nogajewski, Lukas Zdražil, Takashi Taniguchi, Kenji Watanabe, Marek Potemski, and Jacek Kasprzak
Phys. Rev. Materials 4, 034001 (2020) - Published 9 March, 2020
Embedding 2D materials, namely single-layers of MoSe or WSe, between thin layers of hexagonal boron nitride of supreme quality suppresses the structural disorder and avoids surface contamination. As a result, the optical properties of such heterostructures improve drastically with respect to unprotected samples, approaching characteristics expected for ideal 2D crystals. Yet, how can one tell if the spectral line-shape of optical transitions is measured free from the disturbing and mostly irrelevant features introduced by the disorder? Do I really observe the intrinsic (the so-called, homogeneous) linewidth in linear absorption or emission? If yes, what are the spatial extensions on which such optimal conditions can be maintained? The authors here employ methods of nonlinear spectroscopy to accurately address these questions.
Minseong Lee, Hyun-Jae Lee, Jun Hee Lee, and Suk Bum Chung
Phys. Rev. Materials 4, 034202 (2020) - Published 12 March, 2020
The authors propose a new candidate material for time-reversal invariant (TRI) topological superconductor (TSC): a heterostructure consisting of a transition-metal-oxide two-dimensional electron gas (2DEG) sandwiched by insulators near the paraelectric/ferroelectric (PE/FE) phase transition. The fluctuating Rashba effect from the transition-metal spin-orbit coupling and the soft FE fluctuation can provide the pairing interaction for TRI TSC. In this sense, this heterostructure can be regarded as being designed to possess the TRI TSC pairing interaction, which is furthermore tunable, since the PE/FE phase transition can be driven by applying strain. For BaTiO and the monolayer BaOsO as the insulator and 2DEG, respectively, first-principles calculations find strong pairing interaction over an appreciable range of applied strain.
T. C. Fujita, L. F. Zhang, and M. Kawasaki
Phys. Rev. Materials 4, 031401(R) (2020) - Published 23 March, 2020
Hiromasa Fujii, Yusuke Wakabayashi, and Takashi Doi
Phys. Rev. Materials 4, 033401 (2020) - Published 3 March, 2020
Brian B. Haidet, Eamonn T. Hughes, and Kunal Mukherjee
Phys. Rev. Materials 4, 033402 (2020) - Published 4 March, 2020
Yimin Chen, Jierong Gu, Qian Zhang, Yuanen Mao, Guoxiang Wang, Rongping Wang, Xiang Shen, Jun-Qiang Wang, and Tiefeng Xu
Phys. Rev. Materials 4, 033403 (2020) - Published 6 March, 2020
B. Zang, R. Parsons, K. Onodera, H. Kishimoto, T. Shoji, A. Kato, J. S. Garitaonandia, A. C. Y. Liu, and K. Suzuki
Phys. Rev. Materials 4, 033404 (2020) - Published 18 March, 2020
J. Hickman and Y. Mishin
Phys. Rev. Materials 4, 033405 (2020) - Published 30 March, 2020
Xiaoxiang Wu, Zhiming Li, Ziyuan Rao, Yuji Ikeda, Biswanath Dutta, Fritz Körmann, Jörg Neugebauer, and Dierk Raabe
Phys. Rev. Materials 4, 033601 (2020) - Published 3 March, 2020
Dengke Chen, Shuozhi Xu, and Yashashree Kulkarni
Phys. Rev. Materials 4, 033602 (2020) - Published 6 March, 2020
Alper Özoğul, Felix Trillitzsch, Christof Neumann, Antony George, Andrey Turchanin, and Enrico Gnecco
Phys. Rev. Materials 4, 033603 (2020) - Published 10 March, 2020
Nils von den Driesch, Stephan Wirths, Rene Troitsch, Gregor Mussler, Uwe Breuer, Oussama Moutanabbir, Detlev Grützmacher, and Dan Buca
Phys. Rev. Materials 4, 033604 (2020) - Published 20 March, 2020
D. G. Sangiovanni, F. Tasnádi, L. J. S. Johnson, M. Odén, and I. A. Abrikosov
Phys. Rev. Materials 4, 033605 (2020) - Published 23 March, 2020
Adolfo O. Fumega, Yuhao Fu, Victor Pardo, and David J. Singh
Phys. Rev. Materials 4, 033606 (2020) - Published 24 March, 2020
Haiyang Yu, Ivaylo H. Katzarov, Anthony T. Paxton, Alan C. F. Cocks, and Edmund Tarleton
Phys. Rev. Materials 4, 033607 (2020) - Published 30 March, 2020
Nobuya Sato, Tomoki Yamashita, Tamio Oguchi, Koji Hukushima, and Takashi Miyake
Phys. Rev. Materials 4, 033801 (2020) - Published 19 March, 2020
Kai Wang, Guillaume Boussinot, Claas Hüter, Efim A. Brener, and Robert Spatschek
Phys. Rev. Materials 4, 033802 (2020) - Published 19 March, 2020
Caroline Boule, Diana Vaclavkova, Miroslav Bartos, Karol Nogajewski, Lukas Zdražil, Takashi Taniguchi, Kenji Watanabe, Marek Potemski, and Jacek Kasprzak
Phys. Rev. Materials 4, 034001 (2020) - Published 9 March, 2020
Embedding 2D materials, namely single-layers of MoSe or WSe, between thin layers of hexagonal boron nitride of supreme quality suppresses the structural disorder and avoids surface contamination. As a result, the optical properties of such heterostructures improve drastically with respect to unprotected samples, approaching characteristics expected for ideal 2D crystals. Yet, how can one tell if the spectral line-shape of optical transitions is measured free from the disturbing and mostly irrelevant features introduced by the disorder? Do I really observe the intrinsic (the so-called, homogeneous) linewidth in linear absorption or emission? If yes, what are the spatial extensions on which such optimal conditions can be maintained? The authors here employ methods of nonlinear spectroscopy to accurately address these questions.
Yuan-Fei Gao, Si-Ming Pang, Hai-Hong Bao, Xian-Yun Peng, Yu-Jia Sun, Shu-Liang Ren, Da Meng, and Jun Zhang
Phys. Rev. Materials 4, 034002 (2020) - Published 17 March, 2020
M. Naumann, F. Arnold, M. D. Bachmann, K. A. Modic, P. J. W. Moll, V. Süß, M. Schmidt, and E. Hassinger
Phys. Rev. Materials 4, 034201 (2020) - Published 10 March, 2020
Minseong Lee, Hyun-Jae Lee, Jun Hee Lee, and Suk Bum Chung
Phys. Rev. Materials 4, 034202 (2020) - Published 12 March, 2020
The authors propose a new candidate material for time-reversal invariant (TRI) topological superconductor (TSC): a heterostructure consisting of a transition-metal-oxide two-dimensional electron gas (2DEG) sandwiched by insulators near the paraelectric/ferroelectric (PE/FE) phase transition. The fluctuating Rashba effect from the transition-metal spin-orbit coupling and the soft FE fluctuation can provide the pairing interaction for TRI TSC. In this sense, this heterostructure can be regarded as being designed to possess the TRI TSC pairing interaction, which is furthermore tunable, since the PE/FE phase transition can be driven by applying strain. For BaTiO and the monolayer BaOsO as the insulator and 2DEG, respectively, first-principles calculations find strong pairing interaction over an appreciable range of applied strain.
Shuyang Yang, Chunzhi Wu, and Noa Marom
Phys. Rev. Materials 4, 034203 (2020) - Published 23 March, 2020
Guohua Cao, Runhai Ouyang, Luca M. Ghiringhelli, Matthias Scheffler, Huijun Liu, Christian Carbogno, and Zhenyu Zhang
Phys. Rev. Materials 4, 034204 (2020) - Published 23 March, 2020
Fujie Tang, Xuanyuan Jiang, Hsin-Yu Ko, Jianhang Xu, Mehmet Topsakal, Guanhua Hao, Alpha T. N'Diaye, Peter A. Dowben, Deyu Lu, Xiaoshan Xu, and Xifan Wu
Phys. Rev. Materials 4, 034401 (2020) - Published 2 March, 2020
A. E. Bocirnea, D. G. Popescu, C. Chirila, R. M. Costescu, V. Kuncser, V. Stancu, L. Trupina, I. Pasuk, A. M. Vlaicu, and M. A. Husanu
Phys. Rev. Materials 4, 034402 (2020) - Published 4 March, 2020
Vipul Chaturvedi, Jeff Walter, Arpita Paul, Alexander Grutter, Brian Kirby, Jong Seok Jeong, Hua Zhou, Zhan Zhang, Biqiong Yu, Martin Greven, K. Andre Mkhoyan, Turan Birol, and Chris Leighton
Phys. Rev. Materials 4, 034403 (2020) - Published 4 March, 2020
Kohei Tanaka, Ryosuke Sugawara, and Masahito Mochizuki
Phys. Rev. Materials 4, 034404 (2020) - Published 11 March, 2020
Dibya Phuyal, Soham Mukherjee, S. K. Panda, Somnath Jana, Carlo U. Segre, Laura Simonelli, Sergei M. Butorin, Håkan Rensmo, and Olof Karis
Phys. Rev. Materials 4, 034405 (2020) - Published 13 March, 2020
J. Nordlander, F. Eltes, M. Reynaud, J. Nürnberg, G. De Luca, D. Caimi, A. A. Demkov, S. Abel, M. Fiebig, J. Fompeyrine, and M. Trassin
Phys. Rev. Materials 4, 034406 (2020) - Published 18 March, 2020
Loi T. Nguyen, Milinda Abeykoon, Jing Tao, Saul Lapidus, and R. J. Cava
Phys. Rev. Materials 4, 034407 (2020) - Published 20 March, 2020
C. Kons, Manh-Huong Phan, Hariharan Srikanth, D. A. Arena, Zohreh Nemati, J. A. Borchers, and K. L. Krycka
Phys. Rev. Materials 4, 034408 (2020) - Published 23 March, 2020
Asuka Miura, Ryo Iguchi, Takeshi Seki, Koki Takanashi, and Ken-ichi Uchida
Phys. Rev. Materials 4, 034409 (2020) - Published 24 March, 2020
Trevor P. Almeida, Damien McGrouther, Rowan Temple, Jamie Massey, Yue Li, Thomas Moore, Christopher H. Marrows, and Stephen McVitie
Phys. Rev. Materials 4, 034410 (2020) - Published 24 March, 2020
Ankita Bhutani, Julia L. Zuo, Rebecca D. McAuliffe, Clarina R. dela Cruz, and Daniel P. Shoemaker
Phys. Rev. Materials 4, 034411 (2020) - Published 26 March, 2020
M. Matsuda, S. E. Dissanayake, T. Hong, Y. Ozaki, T. Ito, M. Tokunaga, X. Z. Liu, M. Bartkowiak, and O. Prokhnenko
Phys. Rev. Materials 4, 034412 (2020) - Published 31 March, 2020
Robert Karsthof, Arthur Markus Anton, Friedrich Kremer, and Marius Grundmann
Phys. Rev. Materials 4, 034601 (2020) - Published 30 March, 2020
H. Pfau, H. Soifer, J. A. Sobota, A. Gauthier, C. R. Rotundu, J. C. Palmstrom, I. R. Fisher, G.-Y. Chen, H.-H. Wen, Z.-X. Shen, and P. S. Kirchmann
Phys. Rev. Materials 4, 034801 (2020) - Published 4 March, 2020
Meng Wang, Ming Yi, Benjamin A. Frandsen, Junjie Yin, Hualei Sun, Zhijun Xu, Huibo Cao, Edith Bourret-Courchesne, Jeffrey W. Lynn, and Robert J. Birgeneau
Phys. Rev. Materials 4, 034802 (2020) - Published 9 March, 2020
Brandon Wilfong, Xiuquan Zhou, Huafei Zheng, Navneeth Babra, Craig M. Brown, Jeffrey W. Lynn, Keith M. Taddei, Johnpierre Paglione, and Efrain E. Rodriguez
Phys. Rev. Materials 4, 034803 (2020) - Published 11 March, 2020
M. Caputo, M. Boselli, A. Filippetti, S. Lemal, D. Li, A. Chikina, C. Cancellieri, T. Schmitt, J.-M. Triscone, P. Ghosez, S. Gariglio, and V. N. Strocov
Phys. Rev. Materials 4, 035001 (2020) - Published 9 March, 2020
M. T. Entwistle and R. W. Godby
Phys. Rev. Materials 4, 035002 (2020) - Published 16 March, 2020
Yixuan Chen, Yunzhi Liu, Parivash Moradifar, Andrew J. Glaid, V, Jennifer L. Russell, Pratibha Mahale, Shih-Ying Yu, Tyler E. Culp, Manish Kumar, Enrique D. Gomez, Suzanne E. Mohney, Thomas E. Mallouk, Nasim Alem, John V. Badding, and Ying Liu
Phys. Rev. Materials 4, 035201 (2020) - Published 30 March, 2020
Antonio Cappai, Aleandro Antidormi, Andrea Bosin, Dario Narducci, Luciano Colombo, and Claudio Melis
Phys. Rev. Materials 4, 035401 (2020) - Published 5 March, 2020
Masato Kato, Mitsutoshi Nishiwaki, and Hiroyuki Fujiwara
Phys. Rev. Materials 4, 035402 (2020) - Published 9 March, 2020
R. Sahli, J. Hem, C. Crauste-Thibierge, F. Clément, D. R. Long, and S. Ciliberto
Phys. Rev. Materials 4, 035601 (2020) - Published 4 March, 2020
Yihao Chen, Simon A. Rogers, Suresh Narayanan, James L. Harden, and Robert L. Leheny
Phys. Rev. Materials 4, 035602 (2020) - Published 6 March, 2020
I-Ling Chang, Chia-Shing Li, Guan-Shiung Wang, Chi-Lin Wu, and Chih-Wei Chang
Phys. Rev. Materials 4, 036001 (2020) - Published 5 March, 2020