Extended slow dynamical regime close to the many-body localization transition
David J. Luitz, Nicolas Laflorencie, and Fabien Alet
Phys. Rev. B 93, 060201(R) (2016) - Published 17 February, 2016
C. Bidaud, O. Simard, G. Quirion, B. Prévost, S. Daneau, A. D. Bianchi, H. A. Dabkowska, and J. A. Quilliam
Phys. Rev. B 93, 060404(R) (2016) - Published 12 February, 2016
In this work, the ultrasound velocity is measured in the frustrated spin liquid material SrDyO as a function of magnetic field and temperature. Experimental data reveals a complex phase diagram that depends heavily on the direction of the magnetic field. Whereas a dome for the three-dimensional long-range magnetic order is induced for magnetic field applied along the axis, no finite temperature magnetic order is observed for other field directions. When passing between the spin liquid and magnetically ordered phase, significant irreversibility is observed. “Solidification” of the spin liquid (through applied field) proceeds through three distinct steps while melting of the magnetic order into the spin-liquid phase is a more continuous process.
G. M. Pang, M. Smidman, L. X. Zhao, Y. F. Wang, Z. F. Weng, L. Q. Che, Y. Chen, X. Lu, G. F. Chen, and H. Q. Yuan
Phys. Rev. B 93, 060506(R) (2016) - Published 5 February, 2016
Noncentrosymmetric superconductors such as PbTaSe have been the focus of intensive study due to their unconventional properties and they have also recently been proposed as candidates for topological superconductivity and Majorana fermions. To test this, it is important to characterize the superconducting order parameter. The authors here report precise temperature-dependent measurements of the London penetration depth of PbTaSe. The results indicate fully gapped -wave BCS-type superconductivity, which is rather puzzling. This compound is known to have a topologically nontrivial band structure and a strong antisymmetric spin-orbit coupling, which, in 2D superconductors, is expected to produce an order parameter with mixed spin singlet and spin triplet components.
Eli Chertkov, Robert A. DiStasio, Jr., Ge Zhang, Roberto Car, and Salvatore Torquato
Phys. Rev. B 93, 064201 (2016) - Published 3 February, 2016
It has recently been shown that disordered hyperuniform many-particle systems represent new distinguishable states of amorphous matter that are poised between a crystal and a liquid are are endowed with novel physical and thermodynamic properties. Such systems have shown to exist as ground states, i.e., at a temperature of absolute zero. Such “stealthy” and hyperuniform states are unique in that they are transparent to radiation for a range of wavelengths. In this paper, we ask whether Ising models of magnets, called spin chains in one dimension, can possess spin interactions that enable their ground states to be disordered, stealthy, and hyperuniform. Using inverse statistical-mechanical theoretical methods, we do demonstrate the existence of such states, which should be experimentally realizable.
J. Gaudet, K. A. Ross, E. Kermarrec, N. P. Butch, G. Ehlers, H. A. Dabkowska, and B. D. Gaulin
Phys. Rev. B 93, 064406 (2016) - Published 3 February, 2016
The authors report elastic and inelastic neutron scattering results on the quantum spin ice candidate YbTiO. The experiments were performed on a well characterized stoichiometric powder, which displays a large and sharp heat capacity anomaly at 0.26 K. The authors show that, at low temperature, YbTiO exhibits long-range order with an ice-like ferromagnetic structure. However, the onset temperature is much higher than the temperature of the heat capacity anomaly. The spin excitations were found to be gapless on an energy scale < 0.09 meV and organized into a continuum of scattering with vestiges of highly overdamped ferromagnetic spin waves. The same spin dynamics is also observed for the single crystals, which indicates that those spin excitations are robust upon weak disorder.
T. C. Fujita, M. Uchida, Y. Kozuka, W. Sano, A. Tsukazaki, T. Arima, and M. Kawasaki
Phys. Rev. B 93, 064419 (2016) - Published 17 February, 2016
Metallic surface states emerging at all-in-all-out type antiferromagnetic domain walls in bulk pyrochlore iridates have recently been observed. Such bulk crystals, however, inevitably contain huge amounts of the domains at random, and so it is quite challenging to investigate and utilize these novel surface conducting states. The results presented here are for a pyrochlore iridate heterointerface, which is realized by an advanced thin film growth technique. The authors successfully demonstrate the detection and control of a surface state linked to the antiferromagnetic domain wall, guiding further efforts for utilizing such states for surface transport in electronics and spintronics applications as well as for investigating the emergent topological transport at the interface.
Satoshi Okamoto
Phys. Rev. B 93, 064421 (2016) - Published 22 February, 2016
Insulators do not transport electrical currents. Recent experimental reports instead show magnetic insulators can conduct spin current in terms of magnons (excitations from magnetic ordering). The spin current could be converted to electric current by the inverse spin Hall effect. Thus, magnetic insulators may not be regarded as insulating. Recent experimental work has suggested such spin transport effects exist even above magnetic transition temperatures, challenging the conventional approach starting from magnetic ordering. In this paper, an alternative approach is taken to this problem using the Schwinger boson method. It is shown that spin pumping and spin current transport are possible at elevated temperatures, even higher than transition temperatures, suggesting that paramagnetic insulators could be used for spintronics applications.
G. Grissonnanche, F. Laliberté, S. Dufour-Beauséjour, M. Matusiak, S. Badoux, F. F. Tafti, B. Michon, A. Riopel, O. Cyr-Choinière, J. C. Baglo, B. J. Ramshaw, R. Liang, D. A. Bonn, W. N. Hardy, S. Krämer, D. LeBoeuf, D. Graf, N. Doiron-Leyraud, and Louis Taillefer
Phys. Rev. B 93, 064513 (2016) - Published 22 February, 2016
The authors measured the electrical and thermal Hall conductivities of YBaCuO in high magnetic fields to investigate the nature of the nonsuperconducting ground state in underdoped cuprates. They found that the Wiedemann-Franz law is obeyed in the =0 limit as soon as the vortex solid melts at high field. This shows that there is no vortex liquid at =0 and it imposes a clear constraint on the nature of excitations in the enigmatic pseudogap phase of cuprate superconductors.
David J. Luitz, Nicolas Laflorencie, and Fabien Alet
Phys. Rev. B 93, 060201(R) (2016) - Published 17 February, 2016
M. del Cueto, A. S. Muzas, G. Füchsel, F. Gatti, F. Martín, and C. Díaz
Phys. Rev. B 93, 060301(R) (2016) - Published 8 February, 2016
Shi-Zeng Lin and Avadh Saxena
Phys. Rev. B 93, 060401(R) (2016) - Published 10 February, 2016
Dilina Perera, Markus Eisenbach, Don M. Nicholson, G. Malcolm Stocks, and David P. Landau
Phys. Rev. B 93, 060402(R) (2016) - Published 10 February, 2016
H. Wu, C. H. Wan, X. Zhang, Z. H. Yuan, Q. T. Zhang, J. Y. Qin, H. X. Wei, X. F. Han, and S. Zhang
Phys. Rev. B 93, 060403(R) (2016) - Published 12 February, 2016
C. Bidaud, O. Simard, G. Quirion, B. Prévost, S. Daneau, A. D. Bianchi, H. A. Dabkowska, and J. A. Quilliam
Phys. Rev. B 93, 060404(R) (2016) - Published 12 February, 2016
In this work, the ultrasound velocity is measured in the frustrated spin liquid material SrDyO as a function of magnetic field and temperature. Experimental data reveals a complex phase diagram that depends heavily on the direction of the magnetic field. Whereas a dome for the three-dimensional long-range magnetic order is induced for magnetic field applied along the axis, no finite temperature magnetic order is observed for other field directions. When passing between the spin liquid and magnetically ordered phase, significant irreversibility is observed. “Solidification” of the spin liquid (through applied field) proceeds through three distinct steps while melting of the magnetic order into the spin-liquid phase is a more continuous process.
M. Gomilšek, M. Klanjšek, M. Pregelj, F. C. Coomer, H. Luetkens, O. Zaharko, T. Fennell, Y. Li, Q. M. Zhang, and A. Zorko
Phys. Rev. B 93, 060405(R) (2016) - Published 16 February, 2016
K. K. Meng, J. Miao, X. G. Xu, J. X. Xiao, J. H. Zhao, and Y. Jiang
Phys. Rev. B 93, 060406(R) (2016) - Published 18 February, 2016
Thibaut Picot, Marc Ziegler, Román Orús, and Didier Poilblanc
Phys. Rev. B 93, 060407(R) (2016) - Published 19 February, 2016
Q. Chen, I. Schwarz, F. Jelezko, A. Retzker, and M. B. Plenio
Phys. Rev. B 93, 060408(R) (2016) - Published 24 February, 2016
Wei Li, Chiming Jin, Renchao Che, Wensen Wei, Langsheng Lin, Lei Zhang, Haifeng Du, Mingliang Tian, and Jiadong Zang
Phys. Rev. B 93, 060409(R) (2016) - Published 26 February, 2016
A. Bhattacharyya, D. D. Khalyavin, F. Krüger, D. T. Adroja, A. M. Strydom, W. A. Kockelmann, and A. D. Hillier
Phys. Rev. B 93, 060410(R) (2016) - Published 29 February, 2016
B. Lei, Z. J. Xiang, X. F. Lu, N. Z. Wang, J. R. Chang, C. Shang, A. M. Zhang, Q. M. Zhang, X. G. Luo, T. Wu, Z. Sun, and X. H. Chen
Phys. Rev. B 93, 060501(R) (2016) - Published 1 February, 2016
R. Zhou, L. Y. Xing, X. C. Wang, C. Q. Jin, and Guo-qing Zheng
Phys. Rev. B 93, 060502(R) (2016) - Published 1 February, 2016
Yao Shen, Qisi Wang, Yiqing Hao, Bingying Pan, Yu Feng, Qingzhen Huang, L. W. Harriger, J. B. Leao, Yang Zhao, R. M. Chisnell, J. W. Lynn, Huibo Cao, Jiangping Hu, and Jun Zhao
Phys. Rev. B 93, 060503(R) (2016) - Published 1 February, 2016
Yuwen Hu, Xiao Ren, Rui Zhang, Huiqian Luo, Shigeru Kasahara, Tatsuya Watashige, Takasada Shibauchi, Pengcheng Dai, Yan Zhang, Yuji Matsuda, and Yuan Li
Phys. Rev. B 93, 060504(R) (2016) - Published 2 February, 2016
Jasmin Jandke, Patrik Hlobil, Michael Schackert, Wulf Wulfhekel, and Jörg Schmalian
Phys. Rev. B 93, 060505(R) (2016) - Published 4 February, 2016
G. M. Pang, M. Smidman, L. X. Zhao, Y. F. Wang, Z. F. Weng, L. Q. Che, Y. Chen, X. Lu, G. F. Chen, and H. Q. Yuan
Phys. Rev. B 93, 060506(R) (2016) - Published 5 February, 2016
Noncentrosymmetric superconductors such as PbTaSe have been the focus of intensive study due to their unconventional properties and they have also recently been proposed as candidates for topological superconductivity and Majorana fermions. To test this, it is important to characterize the superconducting order parameter. The authors here report precise temperature-dependent measurements of the London penetration depth of PbTaSe. The results indicate fully gapped -wave BCS-type superconductivity, which is rather puzzling. This compound is known to have a topologically nontrivial band structure and a strong antisymmetric spin-orbit coupling, which, in 2D superconductors, is expected to produce an order parameter with mixed spin singlet and spin triplet components.
Lev P. Gor'kov
Phys. Rev. B 93, 060507(R) (2016) - Published 12 February, 2016
A. E. Koshelev, I. A. Sadovskyy, C. L. Phillips, and A. Glatz
Phys. Rev. B 93, 060508(R) (2016) - Published 29 February, 2016
K. P. Driver and B. Militzer
Phys. Rev. B 93, 064101 (2016) - Published 1 February, 2016
K. Datta, A. Richter, M. Göbbels, D. A. Keen, and R. B. Neder
Phys. Rev. B 93, 064102 (2016) - Published 3 February, 2016
M. A. Kuzovnikov and M. Tkacz
Phys. Rev. B 93, 064103 (2016) - Published 4 February, 2016
A. F. May, O. Delaire, J. L. Niedziela, E. Lara-Curzio, M. A. Susner, D. L. Abernathy, M. Kirkham, and M. A. McGuire
Phys. Rev. B 93, 064104 (2016) - Published 8 February, 2016
K. Wakiya, T. Onimaru, S. Tsutsui, T. Hasegawa, K. T. Matsumoto, N. Nagasawa, A. Q. R. Baron, N. Ogita, M. Udagawa, and T. Takabatake
Phys. Rev. B 93, 064105 (2016) - Published 9 February, 2016
M. J. Lipp, J. R. Jeffries, H. Cynn, J.-H. Park Klepeis, W. J. Evans, D. R. Mortensen, G. T. Seidler, Y. Xiao, and P. Chow
Phys. Rev. B 93, 064106 (2016) - Published 9 February, 2016
F. Nita, C. Mastail, and G. Abadias
Phys. Rev. B 93, 064107 (2016) - Published 10 February, 2016
S. Lisenkov, B. K. Mani, J. Cuozzo, and I. Ponomareva
Phys. Rev. B 93, 064108 (2016) - Published 12 February, 2016
Per Arne Rikvold, Gregory Brown, Seiji Miyashita, Conor Omand, and Masamichi Nishino
Phys. Rev. B 93, 064109 (2016) - Published 16 February, 2016
I. Rafalovskyi, M. Guennou, I. Gregora, and J. Hlinka
Phys. Rev. B 93, 064110 (2016) - Published 16 February, 2016
F. Cordero, H. T. Langhammer, T. Müller, V. Buscaglia, and P. Nanni
Phys. Rev. B 93, 064111 (2016) - Published 16 February, 2016
Maribel Núñez Valdez, Hendrik Th. Spanke, and Nicola A. Spaldin
Phys. Rev. B 93, 064112 (2016) - Published 17 February, 2016
A. Pishtshev and P. Rubin
Phys. Rev. B 93, 064113 (2016) - Published 22 February, 2016
Pavel Mokrý and Tomáš Sluka
Phys. Rev. B 93, 064114 (2016) - Published 23 February, 2016
In-Tae Bae, Hiroshi Naganuma, Tomohiro Ichinose, and Kazuhisa Sato
Phys. Rev. B 93, 064115 (2016) - Published 24 February, 2016
Eli Chertkov, Robert A. DiStasio, Jr., Ge Zhang, Roberto Car, and Salvatore Torquato
Phys. Rev. B 93, 064201 (2016) - Published 3 February, 2016
It has recently been shown that disordered hyperuniform many-particle systems represent new distinguishable states of amorphous matter that are poised between a crystal and a liquid are are endowed with novel physical and thermodynamic properties. Such systems have shown to exist as ground states, i.e., at a temperature of absolute zero. Such “stealthy” and hyperuniform states are unique in that they are transparent to radiation for a range of wavelengths. In this paper, we ask whether Ising models of magnets, called spin chains in one dimension, can possess spin interactions that enable their ground states to be disordered, stealthy, and hyperuniform. Using inverse statistical-mechanical theoretical methods, we do demonstrate the existence of such states, which should be experimentally realizable.
Bu Wang, Yingtian Yu, Mengyi Wang, John C. Mauro, and Mathieu Bauchy
Phys. Rev. B 93, 064202 (2016) - Published 9 February, 2016
Martin Thunert, Alexander Janot, Helena Franke, Chris Sturm, Tom Michalsky, María Dolores Martín, Luis Viña, Bernd Rosenow, Marius Grundmann, and Rüdiger Schmidt-Grund
Phys. Rev. B 93, 064203 (2016) - Published 9 February, 2016
Philip H. Handle and Thomas Loerting
Phys. Rev. B 93, 064204 (2016) - Published 12 February, 2016
Maxime Markov, Jelena Sjakste, Giorgia Fugallo, Lorenzo Paulatto, Michele Lazzeri, Francesco Mauri, and Nathalie Vast
Phys. Rev. B 93, 064301 (2016) - Published 1 February, 2016
Zexi Lu, Yan Wang, and Xiulin Ruan
Phys. Rev. B 93, 064302 (2016) - Published 16 February, 2016
Feng Jin, Anmin Zhang, Jianting Ji, Kai Liu, Le Wang, Youguo Shi, Yong Tian, Xiaoli Ma, and Qingming Zhang
Phys. Rev. B 93, 064303 (2016) - Published 22 February, 2016
Tuyuan Cheng, Jing Wu, Tao Liu, Xiao Zou, Jianwang Cai, Roy W. Chantrell, and Yongbing Xu
Phys. Rev. B 93, 064401 (2016) - Published 1 February, 2016
M. N. Wilson, T. J. Williams, Y.-P. Cai, A. M. Hallas, T. Medina, T. J. Munsie, S. C. Cheung, B. A. Frandsen, L. Liu, Y. J. Uemura, and G. M. Luke
Phys. Rev. B 93, 064402 (2016) - Published 1 February, 2016
Virginia Estévez and Lasse Laurson
Phys. Rev. B 93, 064403 (2016) - Published 2 February, 2016
B. Delamotte, M. Dudka, D. Mouhanna, and S. Yabunaka
Phys. Rev. B 93, 064405 (2016) - Published 3 February, 2016
J. Gaudet, K. A. Ross, E. Kermarrec, N. P. Butch, G. Ehlers, H. A. Dabkowska, and B. D. Gaulin
Phys. Rev. B 93, 064406 (2016) - Published 3 February, 2016
The authors report elastic and inelastic neutron scattering results on the quantum spin ice candidate YbTiO. The experiments were performed on a well characterized stoichiometric powder, which displays a large and sharp heat capacity anomaly at 0.26 K. The authors show that, at low temperature, YbTiO exhibits long-range order with an ice-like ferromagnetic structure. However, the onset temperature is much higher than the temperature of the heat capacity anomaly. The spin excitations were found to be gapless on an energy scale < 0.09 meV and organized into a continuum of scattering with vestiges of highly overdamped ferromagnetic spin waves. The same spin dynamics is also observed for the single crystals, which indicates that those spin excitations are robust upon weak disorder.
S. Krause, A. Sonntag, J. Hermenau, J. Friedlein, and R. Wiesendanger
Phys. Rev. B 93, 064407 (2016) - Published 4 February, 2016
Laura Feiler, Kathrin Sentker, Manuel Brinker, Nils Kuhlmann, Falk-Ulrich Stein, and Guido Meier
Phys. Rev. B 93, 064408 (2016) - Published 4 February, 2016
B. Gross, D. P. Weber, D. Rüffer, A. Buchter, F. Heimbach, A. Fontcuberta i Morral, D. Grundler, and M. Poggio
Phys. Rev. B 93, 064409 (2016) - Published 5 February, 2016
M. Majumder, M. Wagner-Reetz, R. Cardoso-Gil, P. Gille, F. Steglich, Y. Grin, and M. Baenitz
Phys. Rev. B 93, 064410 (2016) - Published 5 February, 2016
Loïc Henriet and Karyn Le Hur
Phys. Rev. B 93, 064411 (2016) - Published 8 February, 2016
Dorj Odkhuu
Phys. Rev. B 93, 064412 (2016) - Published 8 February, 2016
D. J. Byrne, W. T. Coffey, W. J. Dowling, Y. P. Kalmykov, and S. V. Titov
Phys. Rev. B 93, 064413 (2016) - Published 9 February, 2016
M. Dąbrowski, M. Cinal, M. Przybylski, G. Chen, A. T. N'Diaye, A. K. Schmid, and J. Kirschner
Phys. Rev. B 93, 064414 (2016) - Published 10 February, 2016
Y. Ishii, S. Horio, M. Mitarashi, T. Sakakura, M. Fukunaga, Y. Noda, T. Honda, H. Nakao, Y. Murakami, and H. Kimura
Phys. Rev. B 93, 064415 (2016) - Published 16 February, 2016
Yuki Kawaguchi, Yukio Tanaka, and Naoto Nagaosa
Phys. Rev. B 93, 064416 (2016) - Published 16 February, 2016
D. I. Gorbunov, M. S. Henriques, A. V. Andreev, Y. Skourski, M. Richter, L. Havela, and J. Wosnitza
Phys. Rev. B 93, 064417 (2016) - Published 16 February, 2016
Scott A. Bender and Yaroslav Tserkovnyak
Phys. Rev. B 93, 064418 (2016) - Published 17 February, 2016
T. C. Fujita, M. Uchida, Y. Kozuka, W. Sano, A. Tsukazaki, T. Arima, and M. Kawasaki
Phys. Rev. B 93, 064419 (2016) - Published 17 February, 2016
Metallic surface states emerging at all-in-all-out type antiferromagnetic domain walls in bulk pyrochlore iridates have recently been observed. Such bulk crystals, however, inevitably contain huge amounts of the domains at random, and so it is quite challenging to investigate and utilize these novel surface conducting states. The results presented here are for a pyrochlore iridate heterointerface, which is realized by an advanced thin film growth technique. The authors successfully demonstrate the detection and control of a surface state linked to the antiferromagnetic domain wall, guiding further efforts for utilizing such states for surface transport in electronics and spintronics applications as well as for investigating the emergent topological transport at the interface.
E. Palacios, C. Tomasi, R. Sáez-Puche, A. J. Dos santos-García, F. Fernández-Martínez, and R. Burriel
Phys. Rev. B 93, 064420 (2016) - Published 19 February, 2016
Satoshi Okamoto
Phys. Rev. B 93, 064421 (2016) - Published 22 February, 2016
Insulators do not transport electrical currents. Recent experimental reports instead show magnetic insulators can conduct spin current in terms of magnons (excitations from magnetic ordering). The spin current could be converted to electric current by the inverse spin Hall effect. Thus, magnetic insulators may not be regarded as insulating. Recent experimental work has suggested such spin transport effects exist even above magnetic transition temperatures, challenging the conventional approach starting from magnetic ordering. In this paper, an alternative approach is taken to this problem using the Schwinger boson method. It is shown that spin pumping and spin current transport are possible at elevated temperatures, even higher than transition temperatures, suggesting that paramagnetic insulators could be used for spintronics applications.
Jasper P. Fried and Peter J. Metaxas
Phys. Rev. B 93, 064422 (2016) - Published 22 February, 2016
L. Ding, C. V. Colin, C. Darie, J. Robert, F. Gay, and P. Bordet
Phys. Rev. B 93, 064423 (2016) - Published 23 February, 2016
T. N. G. Meier, M. Kronseder, M. Zimmermann, and C. H. Back
Phys. Rev. B 93, 064424 (2016) - Published 23 February, 2016
D. B. Gopman, J. W. Lau, K. P. Mohanchandra, K. Wetzlar, and G. P. Carman
Phys. Rev. B 93, 064425 (2016) - Published 23 February, 2016
A. Podlesnyak, L. M. Anovitz, A. I. Kolesnikov, M. Matsuda, T. R. Prisk, S. Toth, and G. Ehlers
Phys. Rev. B 93, 064426 (2016) - Published 23 February, 2016
Om Prakash, A. Thamizhavel, and S. Ramakrishnan
Phys. Rev. B 93, 064427 (2016) - Published 24 February, 2016
Utkan Güngördü, Rabindra Nepal, Oleg A. Tretiakov, Kirill Belashchenko, and Alexey A. Kovalev
Phys. Rev. B 93, 064428 (2016) - Published 24 February, 2016
Sanghyun Lee, Yoshihisa Ishikawa, Ping Miao, Shuki Torii, Toru Ishigaki, and Takashi Kamiyama
Phys. Rev. B 93, 064429 (2016) - Published 24 February, 2016
Shi-Zeng Lin and Satoru Hayami
Phys. Rev. B 93, 064430 (2016) - Published 25 February, 2016
E.-M. Anton, J. F. McNulty, B. J. Ruck, M. Suzuki, M. Mizumaki, V. N. Antonov, J. W. Quilty, N. Strickland, and H. J. Trodahl
Phys. Rev. B 93, 064431 (2016) - Published 26 February, 2016
P. Nieves, D. Kechrakos, and O. Chubykalo-Fesenko
Phys. Rev. B 93, 064432 (2016) - Published 26 February, 2016
G. J. Sreejith, Subhro Bhattacharjee, and R. Moessner
Phys. Rev. B 93, 064433 (2016) - Published 26 February, 2016
D. Jakab, E. Szirmai, M. Lewenstein, and G. Szirmai
Phys. Rev. B 93, 064434 (2016) - Published 29 February, 2016
Valeriy Yu. Verchenko, Alexander A. Tsirlin, Alexander O. Zubtsovskiy, and Andrei V. Shevelkov
Phys. Rev. B 93, 064501 (2016) - Published 1 February, 2016
Y. Xu, J. K. Dong, I. K. Lum, J. Zhang, X. C. Hong, L. P. He, K. F. Wang, Y. C. Ma, C. Petrovic, M. B. Maple, L. Shu, and S. Y. Li
Phys. Rev. B 93, 064502 (2016) - Published 1 February, 2016
Udhara S. Kaluarachchi, Valentin Taufour, Anna E. Böhmer, Makariy A. Tanatar, Sergey L. Bud'ko, Vladimir G. Kogan, Ruslan Prozorov, and Paul C. Canfield
Phys. Rev. B 93, 064503 (2016) - Published 1 February, 2016
J. F. Landaeta, S. V. Taylor, I. Bonalde, C. Rojas, Y. Nishikubo, K. Kudo, and M. Nohara
Phys. Rev. B 93, 064504 (2016) - Published 2 February, 2016
Amit Ribak, Khanan B. Chashka, Elias Lahoud, Muntaser Naamneh, Shahar Rinott, Yair Ein-Eli, Nicholas C. Plumb, Ming Shi, Emile Rienks, and Amit Kanigel
Phys. Rev. B 93, 064505 (2016) - Published 5 February, 2016
A. Kardakova, A. Shishkin, A. Semenov, G. N. Goltsman, S. Ryabchun, T. M. Klapwijk, J. Bousquet, D. Eon, B. Sacépé, Th. Klein, and E. Bustarret
Phys. Rev. B 93, 064506 (2016) - Published 8 February, 2016
Michael A. McGuire and David S. Parker
Phys. Rev. B 93, 064507 (2016) - Published 9 February, 2016
C. Reichhardt and C. J. Olson Reichhardt
Phys. Rev. B 93, 064508 (2016) - Published 11 February, 2016
Yong Liu, Qingfeng Xing, Warren E. Straszheim, Jeff Marshman, Pal Pedersen, Richard McLaughlin, and Thomas A. Lograsso
Phys. Rev. B 93, 064509 (2016) - Published 11 February, 2016
D. Springer, Saritha K. Nair, Mi He, C. L. Lu, S. A. Cheong, T. Wu, C. Panagopoulos, Elbert E. M. Chia, and Jian-Xin Zhu
Phys. Rev. B 93, 064510 (2016) - Published 12 February, 2016
Jeonghwan Ahn, Hoonkyung Lee, and Yongkyung Kwon
Phys. Rev. B 93, 064511 (2016) - Published 17 February, 2016
David Nozadze and Nandini Trivedi
Phys. Rev. B 93, 064512 (2016) - Published 17 February, 2016
G. Grissonnanche, F. Laliberté, S. Dufour-Beauséjour, M. Matusiak, S. Badoux, F. F. Tafti, B. Michon, A. Riopel, O. Cyr-Choinière, J. C. Baglo, B. J. Ramshaw, R. Liang, D. A. Bonn, W. N. Hardy, S. Krämer, D. LeBoeuf, D. Graf, N. Doiron-Leyraud, and Louis Taillefer
Phys. Rev. B 93, 064513 (2016) - Published 22 February, 2016
The authors measured the electrical and thermal Hall conductivities of YBaCuO in high magnetic fields to investigate the nature of the nonsuperconducting ground state in underdoped cuprates. They found that the Wiedemann-Franz law is obeyed in the =0 limit as soon as the vortex solid melts at high field. This shows that there is no vortex liquid at =0 and it imposes a clear constraint on the nature of excitations in the enigmatic pseudogap phase of cuprate superconductors.
Adam C. Durst
Phys. Rev. B 93, 064514 (2016) - Published 23 February, 2016
R. Willa, V. B. Geshkenbein, and G. Blatter
Phys. Rev. B 93, 064515 (2016) - Published 23 February, 2016
Ming Lu, Haiwen Liu, Pei Wang, and X. C. Xie
Phys. Rev. B 93, 064516 (2016) - Published 25 February, 2016
Wei Chen, Changgan Zeng, Efthimios Kaxiras, and Zhenyu Zhang
Phys. Rev. B 93, 064517 (2016) - Published 25 February, 2016
V. M. Krasnov
Phys. Rev. B 93, 064518 (2016) - Published 26 February, 2016
Huaixiang Huang, Degang Zhang, Yi Gao, Wei Ren, and C. S. Ting
Phys. Rev. B 93, 064519 (2016) - Published 26 February, 2016
U. Karahasanovic and J. Schmalian
Phys. Rev. B 93, 064520 (2016) - Published 26 February, 2016
Alejandro Ferrón, Daniel Domínguez, and María José Sánchez
Phys. Rev. B 93, 064521 (2016) - Published 29 February, 2016
Darrick Lee and Andreas P. Schnyder
Phys. Rev. B 93, 064522 (2016) - Published 29 February, 2016