Nicole Yunger Halpern, Christopher David White, Sarang Gopalakrishnan, and Gil Refael
Phys. Rev. B 99, 024203 (2019) - Published 22 January, 2019
Many-body localization (MBL) is a phase of quantum matter that has attracted much experimental and theoretical attention recently. MBL particles stay fixed for long times, resisting thermalization. This athermality, the authors show, can serve as a resource in thermodynamic tasks. They formulate an engine cycle for a quantum many-body system tuned between MBL and thermal phases. MBL enables the engine to scale robustly, from mesoscale to macroscale, and improves the engine’s reliability. This work opens the door to technological applications of MBL.
Yuehui Lu, Ningyuan Jia, Lin Su, Clai Owens, Gediminas Juzeliūnas, David I. Schuster, and Jonathan Simon
Phys. Rev. B 99, 020302(R) (2019) - Published 4 January, 2019
Topology has recently emerged as a powerful tool in condensed matter physics to engineer materials whose macroscopic properties are robust to imperfections. Indeed, rather than measuring the “topological invariants” associated with the band structure of a material, the existence of such invariants is often inferred from observations of disorder robustness. Here, the authors directly measure such a topological invariant by building a “topological circuit” that exhibits Weyl points, one of the paradigmatic topological features of 3 band structures. The exaggerated size of the unit cell in the circuit allows for measurement of the complete band structure and Berry curvature of the circuit’s bands, and thus a direct measurement of the chiral charge of Weyl points.
Marc Serra-Garcia, Roman Süsstrunk, and Sebastian D. Huber
Phys. Rev. B 99, 020304(R) (2019) - Published 15 January, 2019
Higher-order topological insulators belong to a recently discovered class of materials where nontrivial topology results in boundary states with a dimensionality two or more below that of the bulk. This work realizes a higher-order topological insulator in a circuit model. By using nonlinear elements, the authors demonstrate dynamical switching between topological and trivial phases as well as controllable interactions between topologically protected states. The topological nature of the model is exhibited by direct extraction of the invariants from the measured boundary Green’s functions.
Andrew A. Allocca, Zachary M. Raines, Jonathan B. Curtis, and Victor M. Galitski
Phys. Rev. B 99, 020504(R) (2019) - Published 14 January, 2019
Cavity polaritons have proven to be invaluable tools for probing novel quantum phenomena, including the observation of polariton Bose-Einstein condensation at room temperature. Here, the authors propose a new type of exotic polariton, continuing the recent surge of work incorporating quantum optical phenomena with interacting many-body systems. Formed from superpositions of photons and -wave Cooper-pair fluctuations in a BCS superconductor, these superconductor-polaritons may provide a way to probe elusive collective modes and may open an avenue of research into the quantum optics of superconductors.
K. S. Tikhonov and A. D. Mirlin
Phys. Rev. B 99, 024202 (2019) - Published 7 January, 2019
Anderson localization on random regular graphs (RRG) attracts much attention in view of its relation to many-body localization. Here, the authors study the statistics of eigenfunctions and energy levels on RRG, focussing on the delocalized (ergodic) phase and the critical regime. Results of exact diagonalization are in outstanding agreement with analytical theory based on the saddle-point analysis of the effective supersymmetric action supplemented by numerical solution of the corresponding self-consistency equation.
Xu Yang, Caspar H. van der Wal, and Bart J. van Wees
Phys. Rev. B 99, 024418 (2019) - Published 18 January, 2019
Experimental observations have suggested that certain chiral molecules may be able to function as spin polarizers, an effect that promises new spintronic applications but whose mechanism remains unclear. Here, the authors bypass the microscopic origin of the effect and approach it by applying universal theorems of electrical conduction to mesoscopic devices that contain chiral molecules. This leads to a theoretical model that can quantitatively evaluate transport experiments and distinguish spin signals related to chiral molecules from other magnetic field dependent signals.
M. Langer, R. A. Gallardo, T. Schneider, S. Stienen, A. Roldán-Molina, Y. Yuan, K. Lenz, J. Lindner, P. Landeros, and J. Fassbender
Phys. Rev. B 99, 024426 (2019) - Published 24 January, 2019
Standing spin waves in thin films with a tiny periodic surface modulation are quantized in such a way that a multiple of their wavelength fits into one modulation period. This paper tackles the question how these film modes evolve into modes in a one-dimensional magnonic crystal consisting of periodic individual wire structures. By sequentially increasing the surface modulation and subsequent dynamic characterization of the same sample, simple transition rules are found connecting the modes of both systems with one another.
Matthew A. Feldman, Alex Puretzky, Lucas Lindsay, Ethan Tucker, Dayrl P. Briggs, Philip G. Evans, Richard F. Haglund, and Benjamin J. Lawrie
Phys. Rev. B 99, 020101(R) (2019) - Published 9 January, 2019
Björn Sbierski and Christian Fräßdorf
Phys. Rev. B 99, 020201(R) (2019) - Published 11 January, 2019
Maxime Dupont and Nicolas Laflorencie
Phys. Rev. B 99, 020202(R) (2019) - Published 15 January, 2019
Konstantin Y. Bliokh and Franco Nori
Phys. Rev. B 99, 020301(R) (2019) - Published 3 January, 2019
Yuehui Lu, Ningyuan Jia, Lin Su, Clai Owens, Gediminas Juzeliūnas, David I. Schuster, and Jonathan Simon
Phys. Rev. B 99, 020302(R) (2019) - Published 4 January, 2019
Topology has recently emerged as a powerful tool in condensed matter physics to engineer materials whose macroscopic properties are robust to imperfections. Indeed, rather than measuring the “topological invariants” associated with the band structure of a material, the existence of such invariants is often inferred from observations of disorder robustness. Here, the authors directly measure such a topological invariant by building a “topological circuit” that exhibits Weyl points, one of the paradigmatic topological features of 3 band structures. The exaggerated size of the unit cell in the circuit allows for measurement of the complete band structure and Berry curvature of the circuit’s bands, and thus a direct measurement of the chiral charge of Weyl points.
Friedrich Roth, Stefan Neppl, Andrey Shavorskiy, Tiberiu Arion, Johannes Mahl, Hyun Ook Seo, Hendrik Bluhm, Zahid Hussain, Oliver Gessner, and Wolfgang Eberhardt
Phys. Rev. B 99, 020303(R) (2019) - Published 7 January, 2019
Marc Serra-Garcia, Roman Süsstrunk, and Sebastian D. Huber
Phys. Rev. B 99, 020304(R) (2019) - Published 15 January, 2019
Higher-order topological insulators belong to a recently discovered class of materials where nontrivial topology results in boundary states with a dimensionality two or more below that of the bulk. This work realizes a higher-order topological insulator in a circuit model. By using nonlinear elements, the authors demonstrate dynamical switching between topological and trivial phases as well as controllable interactions between topologically protected states. The topological nature of the model is exhibited by direct extraction of the invariants from the measured boundary Green’s functions.
Yani Chen, Jinlong Ma, and Wu Li
Phys. Rev. B 99, 020305(R) (2019) - Published 22 January, 2019
Somnath Maity, Utso Bhattacharya, Amit Dutta, and Diptiman Sen
Phys. Rev. B 99, 020306(R) (2019) - Published 24 January, 2019
W. T. Fuhrman, J. C. Leiner, J. W. Freeland, M. van Veenendaal, S. M. Koohpayeh, W. Adam Phelan, T. M. McQueen, and C. Broholm
Phys. Rev. B 99, 020401(R) (2019) - Published 9 January, 2019
Anita Halder, Prabuddha Sanyal, and Tanusri Saha-Dasgupta
Phys. Rev. B 99, 020402(R) (2019) - Published 11 January, 2019
N. Prasai, A. Akopyan, B. A. Trump, G. G. Marcus, S. X. Huang, T. M. McQueen, and J. L. Cohn
Phys. Rev. B 99, 020403(R) (2019) - Published 17 January, 2019
R. Matthias Geilhufe, Francisco Guinea, and Vladimir Juričić
Phys. Rev. B 99, 020404(R) (2019) - Published 24 January, 2019
Börge Göbel, Alexander Mook, Jürgen Henk, and Ingrid Mertig
Phys. Rev. B 99, 020405(R) (2019) - Published 25 January, 2019
Jiasheng Chen, Monika B. Gamża, Konstantin Semeniuk, and F. Malte Grosche
Phys. Rev. B 99, 020501(R) (2019) - Published 2 January, 2019
Y. Y. Huang, Z. C. Wang, Y. J. Yu, J. M. Ni, Q. Li, E. J. Cheng, G. H. Cao, and S. Y. Li
Phys. Rev. B 99, 020502(R) (2019) - Published 8 January, 2019
Shu Cai, Eve Emmanouilidou, Jing Guo, Xiaodong Li, Yanchun Li, Ke Yang, Aiguo Li, Qi Wu, Ni Ni, and Liling Sun
Phys. Rev. B 99, 020503(R) (2019) - Published 9 January, 2019
Andrew A. Allocca, Zachary M. Raines, Jonathan B. Curtis, and Victor M. Galitski
Phys. Rev. B 99, 020504(R) (2019) - Published 14 January, 2019
Cavity polaritons have proven to be invaluable tools for probing novel quantum phenomena, including the observation of polariton Bose-Einstein condensation at room temperature. Here, the authors propose a new type of exotic polariton, continuing the recent surge of work incorporating quantum optical phenomena with interacting many-body systems. Formed from superpositions of photons and -wave Cooper-pair fluctuations in a BCS superconductor, these superconductor-polaritons may provide a way to probe elusive collective modes and may open an avenue of research into the quantum optics of superconductors.
Philipp Materne, Wenli Bi, Jiyong Zhao, Michael Yu Hu, Maria Lourdes Amigó, Silvia Seiro, Saicharan Aswartham, Bernd Büchner, and Esen Ercan Alp
Phys. Rev. B 99, 020505(R) (2019) - Published 24 January, 2019
Masahiro Manago, Shunsaku Kitagawa, Kenji Ishida, Kazuhiko Deguchi, Noriaki K. Sato, and Tomoo Yamamura
Phys. Rev. B 99, 020506(R) (2019) - Published 24 January, 2019
Mojammel A. Khan, D. E. Graf, I. Vekhter, D. A. Browne, J. F. DiTusa, W. Adam Phelan, and D. P. Young
Phys. Rev. B 99, 020507(R) (2019) - Published 29 January, 2019
Zhigang Wu, Zhongbo Yan, and Wen Huang
Phys. Rev. B 99, 020508(R) (2019) - Published 29 January, 2019
M. K. Kinyanjui, T. Björkman, T. Lehnert, J. Köster, A. Krasheninnikov, and U. Kaiser
Phys. Rev. B 99, 024101 (2019) - Published 2 January, 2019
Yuta Takahashi, Toshikaze Kariyado, and Yasuhiro Hatsugai
Phys. Rev. B 99, 024102 (2019) - Published 2 January, 2019
Miquel Royo, Pol Torres, Miquel López-Suárez, and Riccardo Rurali
Phys. Rev. B 99, 024103 (2019) - Published 9 January, 2019
Grégory Geneste, Charles Paillard, and Brahim Dkhil
Phys. Rev. B 99, 024104 (2019) - Published 9 January, 2019
Pierre Tolédano and Dmitry D. Khalyavin
Phys. Rev. B 99, 024105 (2019) - Published 14 January, 2019
Hao-Chien Hung, Cheng-Rong Hsing, and Ching-Ming Wei
Phys. Rev. B 99, 024106 (2019) - Published 14 January, 2019
R. D. Johnson, D. D. Khalyavin, P. Manuel, Y. Katsuya, M. Tanaka, Y. Matsushita, L. Zhang, K. Yamaura, and A. A. Belik
Phys. Rev. B 99, 024107 (2019) - Published 16 January, 2019
Sananda Biswas, Ion Errea, Matteo Calandra, Francesco Mauri, and Sandro Scandolo
Phys. Rev. B 99, 024108 (2019) - Published 18 January, 2019
B. Freelon, Z. Yamani, Ian Swainson, R. Flacau, B. Karki, Yu Hao Liu, L. Craco, M. S. Laad, Meng Wang, Jiaqi Chen, R. J. Birgeneau, and Minghu Fang
Phys. Rev. B 99, 024109 (2019) - Published 24 January, 2019
C. Q. Xu, B. Li, M. R. van Delft, W. H. Jiao, W. Zhou, B. Qian, Nikolai D. Zhigadlo, Dong Qian, R. Sankar, N. E. Hussey, and Xiaofeng Xu
Phys. Rev. B 99, 024110 (2019) - Published 25 January, 2019
Xiao-Miao Zhao, Han-yu Liu, Alexander F. Goncharov, Zhi-Wei Zhao, Viktor V. Struzhkin, Ho-Kwang Mao, Alexander G. Gavriliuk, and Xiao-Jia Chen
Phys. Rev. B 99, 024111 (2019) - Published 28 January, 2019
Junko Taniguchi, Hideyuki Ichida, and Masaru Suzuki
Phys. Rev. B 99, 024112 (2019) - Published 29 January, 2019
Jeonghwan Ahn, Mujin You, Gwangyoung Lee, Tyler Volkoff, and Yongkyung Kwon
Phys. Rev. B 99, 024113 (2019) - Published 30 January, 2019
T. B. Shiell, C. de Tomas, D. G. McCulloch, D. R. McKenzie, A. Basu, I. Suarez-Martinez, N. A. Marks, R. Boehler, B. Haberl, and J. E. Bradby
Phys. Rev. B 99, 024114 (2019) - Published 30 January, 2019
E. G. Kostadinova, C. D. Liaw, A. S. Hering, A. Cameron, F. Guyton, L. S. Matthews, and T. W. Hyde
Phys. Rev. B 99, 024115 (2019) - Published 31 January, 2019
R. Coehoorn, P. A. Bobbert, and H. van Eersel
Phys. Rev. B 99, 024201 (2019) - Published 7 January, 2019
K. S. Tikhonov and A. D. Mirlin
Phys. Rev. B 99, 024202 (2019) - Published 7 January, 2019
Anderson localization on random regular graphs (RRG) attracts much attention in view of its relation to many-body localization. Here, the authors study the statistics of eigenfunctions and energy levels on RRG, focussing on the delocalized (ergodic) phase and the critical regime. Results of exact diagonalization are in outstanding agreement with analytical theory based on the saddle-point analysis of the effective supersymmetric action supplemented by numerical solution of the corresponding self-consistency equation.
Nicole Yunger Halpern, Christopher David White, Sarang Gopalakrishnan, and Gil Refael
Phys. Rev. B 99, 024203 (2019) - Published 22 January, 2019
Many-body localization (MBL) is a phase of quantum matter that has attracted much experimental and theoretical attention recently. MBL particles stay fixed for long times, resisting thermalization. This athermality, the authors show, can serve as a resource in thermodynamic tasks. They formulate an engine cycle for a quantum many-body system tuned between MBL and thermal phases. MBL enables the engine to scale robustly, from mesoscale to macroscale, and improves the engine’s reliability. This work opens the door to technological applications of MBL.
E. Sondermann, N. Jakse, K. Binder, A. Mielke, D. Heuskin, F. Kargl, and A. Meyer
Phys. Rev. B 99, 024204 (2019) - Published 28 January, 2019
Qiong Zhu, Peng Wu, R. N. Bhatt, and Xin Wan
Phys. Rev. B 99, 024205 (2019) - Published 29 January, 2019
Manuel Moratalla, Jonathan F. Gebbia, Miguel Angel Ramos, Luis Carlos Pardo, Sanghamitra Mukhopadhyay, Svemir Rudić, Felix Fernandez-Alonso, Francisco Javier Bermejo, and Josep Lluis Tamarit
Phys. Rev. B 99, 024301 (2019) - Published 2 January, 2019
Reza Ghaffarivardavagh, Jacob Nikolajczyk, Stephan Anderson, and Xin Zhang
Phys. Rev. B 99, 024302 (2019) - Published 4 January, 2019
C. Toulouse, C. Martin, M-A. Measson, Y. Gallais, A. Sacuto, and M. Cazayous
Phys. Rev. B 99, 024303 (2019) - Published 7 January, 2019
Pierre-Michel Déjardin, Sergey V. Titov, and Yann Cornaton
Phys. Rev. B 99, 024304 (2019) - Published 8 January, 2019
Amrit De
Phys. Rev. B 99, 024305 (2019) - Published 9 January, 2019
Annise Rivière, Stefano Lepri, Daniele Colognesi, and Francesco Piazza
Phys. Rev. B 99, 024307 (2019) - Published 14 January, 2019
P. Liang, Z. Wu, Y. Y. Zhang, R. R. Hu, T. Q. Jia, Y. Yang, S. A. Zhang, Z. R. Sun, and D. H. Feng
Phys. Rev. B 99, 024308 (2019) - Published 16 January, 2019
Stella d'Ambrumenil, Mohamed Zbiri, Ann M. Chippindale, Simon J. Hibble, Elena Marelli, and Alex C. Hannon
Phys. Rev. B 99, 024309 (2019) - Published 22 January, 2019
Cong Wang, Y. B. Chen, Shu-Hua Yao, and Jian Zhou
Phys. Rev. B 99, 024310 (2019) - Published 23 January, 2019
Mustahseen M. Indaleeb, Sourav Banerjee, Hossain Ahmed, Mohammadsadegh Saadatzi, and Riaz Ahmed
Phys. Rev. B 99, 024311 (2019) - Published 31 January, 2019
A. Mirmelstein, A. I. Kolesnikov, G. Ehlers, D. L. Abernathy, V. Matvienko, A. S. Sefat, and A. Podlesnyak
Phys. Rev. B 99, 024401 (2019) - Published 2 January, 2019
Manish Anand, Varsha Banerjee, and Julian Carrey
Phys. Rev. B 99, 024402 (2019) - Published 3 January, 2019
Antonio Hernando, Raquel Cortés-Gil, Daniel González-Merchante, María Hernando, José M. Alonso, Miguel A. García, José L. Martínez, Luisa Ruiz-González, and José M. González-Calbet
Phys. Rev. B 99, 024403 (2019) - Published 3 January, 2019
Atsuo Shitade, Akito Daido, and Youichi Yanase
Phys. Rev. B 99, 024404 (2019) - Published 4 January, 2019
V. Puliafito, R. Khymyn, M. Carpentieri, B. Azzerboni, V. Tiberkevich, A. Slavin, and G. Finocchio
Phys. Rev. B 99, 024405 (2019) - Published 7 January, 2019
J. C. T Lee, S. K. Mishra, V. S. Bhat, R. Streubel, B. Farmer, X. Shi, L. E. De Long, I. McNulty, P. Fischer, S. D. Kevan, and S. Roy
Phys. Rev. B 99, 024406 (2019) - Published 7 January, 2019
Joel S. Helton, Yang Zhao, Dmitry A. Shulyatev, and Jeffrey W. Lynn
Phys. Rev. B 99, 024407 (2019) - Published 7 January, 2019
V. Fallahi
Phys. Rev. B 99, 024408 (2019) - Published 8 January, 2019
L. Chotorlishvili, Z. Toklikishvili, X.-G. Wang, V. K. Dugaev, J. Barnaś, and J. Berakdar
Phys. Rev. B 99, 024410 (2019) - Published 10 January, 2019
John Ferre, Amin Barzegar, Helmut G. Katzgraber, and Richard Scalettar
Phys. Rev. B 99, 024411 (2019) - Published 10 January, 2019
K. W. Bayliff, S. Wu, V. Loganathan, L. L. Zhao, J. K. Wang, Andriy H. Nevidomskyy, C. Broholm, C.-L. Huang, and E. Morosan
Phys. Rev. B 99, 024412 (2019) - Published 10 January, 2019
K. Yu. Povarov, V. K. Bhartiya, Z. Yan, and A. Zheludev
Phys. Rev. B 99, 024413 (2019) - Published 10 January, 2019
Haitham A. R. El-Ella
Phys. Rev. B 99, 024414 (2019) - Published 15 January, 2019
Yasuyuki Kato, Kenta Kimura, Atsushi Miyake, Masashi Tokunaga, Akira Matsuo, Koichi Kindo, Mitsuru Akaki, Masayuki Hagiwara, Shojiro Kimura, Tsuyoshi Kimura, and Yukitoshi Motome
Phys. Rev. B 99, 024415 (2019) - Published 15 January, 2019
S. Das, A. D. Rata, I. V. Maznichenko, S. Agrestini, E. Pippel, N. Gauquelin, J. Verbeeck, K. Chen, S. M. Valvidares, H. Babu Vasili, J. Herrero-Martin, E. Pellegrin, K. Nenkov, A. Herklotz, A. Ernst, I. Mertig, Z. Hu, and K. Dörr
Phys. Rev. B 99, 024416 (2019) - Published 15 January, 2019
Ka Shen
Phys. Rev. B 99, 024417 (2019) - Published 17 January, 2019
Xu Yang, Caspar H. van der Wal, and Bart J. van Wees
Phys. Rev. B 99, 024418 (2019) - Published 18 January, 2019
Experimental observations have suggested that certain chiral molecules may be able to function as spin polarizers, an effect that promises new spintronic applications but whose mechanism remains unclear. Here, the authors bypass the microscopic origin of the effect and approach it by applying universal theorems of electrical conduction to mesoscopic devices that contain chiral molecules. This leads to a theoretical model that can quantitatively evaluate transport experiments and distinguish spin signals related to chiral molecules from other magnetic field dependent signals.
Yu. A. Sakhratov, M. Prinz-Zwick, D. Wilson, N. Büttgen, A. Ya. Shapiro, L. E. Svistov, and A. P. Reyes
Phys. Rev. B 99, 024419 (2019) - Published 18 January, 2019
Albert Hönemann, Christian Herschbach, Dmitry V. Fedorov, Martin Gradhand, and Ingrid Mertig
Phys. Rev. B 99, 024420 (2019) - Published 22 January, 2019
Olga Yu. Vekilova, Bahar Fayyazi, Konstantin P. Skokov, Oliver Gutfleisch, Cristina Echevarria-Bonet, José Manuel Barandiarán, Alexander Kovacs, Johann Fischbacher, Thomas Schrefl, Olle Eriksson, and Heike C. Herper
Phys. Rev. B 99, 024421 (2019) - Published 22 January, 2019
Yevheniia Cheipesh, Lorenzo Cevolani, and Stefan Kehrein
Phys. Rev. B 99, 024422 (2019) - Published 22 January, 2019
H. Y. Kwon, N. J. Kim, C. K. Lee, and C. Won
Phys. Rev. B 99, 024423 (2019) - Published 22 January, 2019
Peong-Hwa Jang, Se-Hyeok Oh, Se Kwon Kim, and Kyung-Jin Lee
Phys. Rev. B 99, 024424 (2019) - Published 23 January, 2019
B. C. Behera, Subhadip Jana, Shwetha G. Bhat, N. Gauquelin, G. Tripathy, P. S. Anil Kumar, and D. Samal
Phys. Rev. B 99, 024425 (2019) - Published 23 January, 2019
M. Langer, R. A. Gallardo, T. Schneider, S. Stienen, A. Roldán-Molina, Y. Yuan, K. Lenz, J. Lindner, P. Landeros, and J. Fassbender
Phys. Rev. B 99, 024426 (2019) - Published 24 January, 2019
Standing spin waves in thin films with a tiny periodic surface modulation are quantized in such a way that a multiple of their wavelength fits into one modulation period. This paper tackles the question how these film modes evolve into modes in a one-dimensional magnonic crystal consisting of periodic individual wire structures. By sequentially increasing the surface modulation and subsequent dynamic characterization of the same sample, simple transition rules are found connecting the modes of both systems with one another.
Razvan-V. Ababei, Matthew O. A. Ellis, Richard F. L. Evans, and Roy W. Chantrell
Phys. Rev. B 99, 024427 (2019) - Published 24 January, 2019
C. Dhital, L. DeBeer-Schmitt, D. P. Young, and J. F. DiTusa
Phys. Rev. B 99, 024428 (2019) - Published 24 January, 2019
H. J. Jason Liu, Grant A. Riley, César L. Ordóñez-Romero, Boris A. Kalinikos, and Kristen S. Buchanan
Phys. Rev. B 99, 024429 (2019) - Published 25 January, 2019
I. A. Iakovlev, O. M. Sotnikov, and V. V. Mazurenko
Phys. Rev. B 99, 024430 (2019) - Published 25 January, 2019
L. Fallarino, A. Oelschlägel, J. A. Arregi, A. Bashkatov, F. Samad, B. Böhm, K. Chesnel, and O. Hellwig
Phys. Rev. B 99, 024431 (2019) - Published 25 January, 2019
Akio Asami, Hongyu An, Akira Musha, Tenghua Gao, Makoto Kuroda, and Kazuya Ando
Phys. Rev. B 99, 024432 (2019) - Published 25 January, 2019
A. Wartelle, B. Trapp, M. Staňo, C. Thirion, S. Bochmann, J. Bachmann, M. Foerster, L. Aballe, T. O. Menteş, A. Locatelli, A. Sala, L. Cagnon, J.-C. Toussaint, and O. Fruchart
Phys. Rev. B 99, 024433 (2019) - Published 29 January, 2019
Scott A. Bender, Rembert A. Duine, and Yaroslav Tserkovnyak
Phys. Rev. B 99, 024434 (2019) - Published 29 January, 2019
Behrouz Khodadadi, Youngmin Lim, David A. Smith, Ryan W. Greening, Yuankai Zheng, Zhitao Diao, Christian Kaiser, and Satoru Emori
Phys. Rev. B 99, 024435 (2019) - Published 29 January, 2019
Gaurav Sharma, Shekhar Tyagi, V. R. Reddy, A. M. Awasthi, R. J. Choudhary, A. K. Sinha, and Vasant Sathe
Phys. Rev. B 99, 024436 (2019) - Published 30 January, 2019
Thomas Winyard, Mihail Silaev, and Egor Babaev
Phys. Rev. B 99, 024501 (2019) - Published 2 January, 2019
Jonathan Schmidt, Carlos L. Benavides-Riveros, and Miguel A. L. Marques
Phys. Rev. B 99, 024502 (2019) - Published 4 January, 2019
Hao Meng, A. V. Samokhvalov, and A. I. Buzdin
Phys. Rev. B 99, 024503 (2019) - Published 8 January, 2019
Honghong Wang, Jing Guo, Eric D. Bauer, Vladimir A. Sidorov, Hengcan Zhao, Jiahao Zhang, Yazhou Zhou, Zhe Wang, Shu Cai, Ke Yang, Aiguo Li, Peijie Sun, Yi-feng Yang, Qi Wu, Tao Xiang, J. D. Thompson, and Liling Sun
Phys. Rev. B 99, 024504 (2019) - Published 10 January, 2019
Mahdi Mashkoori and Annica Black-Schaffer
Phys. Rev. B 99, 024505 (2019) - Published 10 January, 2019
Nikolay V. Gnezdilov
Phys. Rev. B 99, 024506 (2019) - Published 11 January, 2019
Kun-Rok Jeon, Chiara Ciccarelli, Hidekazu Kurebayashi, Lesley F. Cohen, Xavier Montiel, Matthias Eschrig, Sachio Komori, Jason W. A. Robinson, and Mark G. Blamire
Phys. Rev. B 99, 024507 (2019) - Published 15 January, 2019
Dezhong Meng, Masafumi Sakata, Katsuya Shimizu, Yuki Iijima, Hiroyuki Saitoh, Toyoto Sato, Shigeyuki Takagi, and Shin-ichi Orimo
Phys. Rev. B 99, 024508 (2019) - Published 15 January, 2019
Dmitry V. Chichinadze and Andrey V. Chubukov
Phys. Rev. B 99, 024509 (2019) - Published 22 January, 2019
Chun-Xiao Liu, Jay D. Sau, Tudor D. Stanescu, and S. Das Sarma
Phys. Rev. B 99, 024510 (2019) - Published 22 January, 2019
Věra Musilová, Tomáš Králík, Tomáš Fořt, and Michal Macek
Phys. Rev. B 99, 024511 (2019) - Published 22 January, 2019
Liqiang Che, Tian Le, Qi Huang, Lichang Yin, Ye Chen, Xiaohui Yang, Zhu-An Xu, and Xin Lu
Phys. Rev. B 99, 024512 (2019) - Published 22 January, 2019
Yusuke Ishihara, Takeshi Mizushima, Atsushi Tsuruta, and Satoshi Fujimoto
Phys. Rev. B 99, 024513 (2019) - Published 22 January, 2019
P. M. Dee, K. Nakatsukasa, Y. Wang, and S. Johnston
Phys. Rev. B 99, 024514 (2019) - Published 28 January, 2019
T. T. Saraiva, A. Vagov, V. M. Axt, J. Albino Aguiar, and A. A. Shanenko
Phys. Rev. B 99, 024515 (2019) - Published 28 January, 2019
Alfred K. C. Cheung and D. F. Agterberg
Phys. Rev. B 99, 024516 (2019) - Published 29 January, 2019
Rosa Rodríguez-Mota, Smitha Vishveshwara, and T. Pereg-Barnea
Phys. Rev. B 99, 024517 (2019) - Published 30 January, 2019
