Results 21 to 30 of about 136,959 (277)

Field-induced superconducting phase in superconductor–normal metal and superconductor-superconductor bilayers [PDF]

Physical Review B, 2011
We study the proximity effect in a superconductor (S)-normal metal (N) bilayer under in-plane magnetic field. A compensation between the Zeeman effect and the energy splitting between bonding and anti-bonding levels leads to a magnetic field induced superconducting phase in the (H,T) phase diagram of the S-N bilayer well above the standard paramagnetic
Montiel, Xavier, Buzdin, Alexandre I.
openaire   +2 more sources

In-situ growth of superconducting NdFeAs(O,F) thin films by Molecular Beam Epitaxy [PDF]

, 2010
The recently discovered high temperature superconductor F-doped LaFeAsO and related compounds represent a new class of superconductors with the highest transition temperature (Tc) apart from the cuprates.
38947, 38948, 38949, 38950, 38951, 38952, 38953, 38954, Ikuta, H., Kawaguchi, T., Ohno, T., Tabuchi, M., Takeda, Y., Takenaka, K., Uemura, H., Ujihara, T.   +15 more
core   +3 more sources

Spin currents in superconductors [PDF]

, 2004
It is argued that experiments on rotating superconductors provide evidence for the existence of macroscopic spin currents in superconductors in the absence of applied external fields.
A. A. Verheijen, A. F. Hildebrand, F. London, J. E. Hirsch, W. Heisenberg   +4 more
core   +1 more source

Spin valley and giant quantum spin Hall gap of hydrofluorinated bismuth nanosheet

Scientific Reports, 2018
Spin-valley and electronic band topological properties have been extensively explored in quantum material science, yet their coexistence has rarely been realized in stoichiometric two-dimensional (2D) materials.
Heng Gao, Wei Wu, Tao Hu, Alessandro Stroppa, Xinran Wang, Baigeng Wang, Feng Miao, Wei Ren   +7 more
doaj   +1 more source

The Effect of Addition of (Al2O3) Nano Particles on Structural and Electrical Properties of Bi2Ba2Ca2Cu3O10" +δ" Superconductors at High Temperature [PDF]

Kirkuk Journal of Science, 2020
To enhancement the superconductor structural characteristics, nanoparticles of the Al2O3 were added to the samples under study. The Samples of high temperature superconductors 1-X (Bi2Ba2Ca2Cu3O10+ ) + X(Al2O3) with X= (0-0.9) were prepared by solid ...
Fouad Kamal Tawfeeq Alsumaidaei, Hussein Ali Mohammed   +1 more
doaj   +1 more source

Interaction between multi components vortices at arbitrary distances using a variational method in the Ginzburg-Landau theory [PDF]

, 2014
We study the interaction between the vortices in multi components superconductors based on the Jacobs and Rebbi variation method using Ginzburg-Landau theory.
Deldar, S., Lookzadeh, Hadi
core   +2 more sources

High-Temperature (Cu,C)Ba₂Ca₃Cu₄O_y Superconducting Films with Large Irreversible Fields Grown on SrLaAlO₄ Substrates by Pulsed Laser Deposition

Crystals
(Cu,C)Ba2Ca3Cu4Oy is a nontoxic cuprate superconducting material with a superconducting transition temperature of about 116 K. Recently, it was found that bulk samples of this material synthesized under high pressure hold the highest irreversibility line
Yugang Li, Zhiyong Liu, Ping Zhu, Jinyu He, Chuanbing Cai   +4 more
doaj   +1 more source

Organic Superconductors

, 2004
This article will give an overview on the normal- and superconducting-state properties of organic superconductors. There are a number of review articles on this subject - most of them focus on either the quasi-one-dimensional or two-dimensional materials.
Lang, M., Müller, J.
openaire   +3 more sources

Review on Superconducting Materials

, 2016
Short review of the topical comprehension of the superconductor materials classes Cuprate High-Temperature Superconductors, other oxide superconductors, Iron-based Superconductors, Heavy-Fermion Superconductors, Nitride Superconductors, Organic and other
Acha, Agassi, Akashi, Al-Mamouri, Alarco, Alff, Alff, Alicea, Amano, Amitsuka, Amitsuka, Anderson, Ando, Antipov, Aoki, Aoki, Aoki, Ashcroft, Attfield, Attfield, Aynajian, Bardeen, Bauer, Bauer, Bechgaard, Bednorz, Berlincourt, Bernhard, Bernstein, Betouras, Beyer, Beyer, Bianchi, Binnig, Blase, Boaknin, Bockrath, Bohnen, Bordet, Bozovic, Brandt, Brandt, Broholm, Buckel, Buckel, Bud'ko, Buntar, Bustarret, Buzea, Campbell, Canfield, Canfield, Canfield, Capponi, Casalbuoni, Cava, Cava, Cava, Cava, Caviglia, Chapman, Chen, Chevrel, Chiodi, Chmaissem, Choi, Choi, Chu, Chu, Chu, Chu, Chu, Chubukov, Córcoles, Das, Denlinger, Devoret, Doan, Drechsler, Drozdov, Duan, Duvauchelle, Eisaki, Ekimov, Eliashberg, Emery, Emery, Emery, Erb, Erb, Eremin, Ernst, Errea, Fausti, Fay, Feng, Fischer, Fischer, Fisher, Fleming, Flores-Livas, Flores-Livas, Flükiger, Foo, Fossheim, Frederick, Fujimori, Fulde, Först, Först, Gao, Gavaler, Ge, Geballe, Geballe, Geerk, Geibel, Geibel, Ginzburg, Goodstein, Grant, Graser, Grasso, Grauel, Grosche, Grosche, Gross, Guillaume, Guillaume, Gunnarsson, Hannay, Hardy, Harshman, Hasan, Hattori, Hazelton, Hebard, Heine, Hellman, Hilgenkamp, Hilgenkamp, Hilgenkamp, Hilscher, Hiroi, Hiroi, Hiroi, Hiroi, Hirschfeld, Hishinuma, Honjo, Hott, Hsu, Hu, Huebener, Hunt, Ihara, Ito, Iyo, Iyo, Iyo, Izawa, Izawa, Izumi, Jaccard, James, Jin, Johannes, Johnston, Jourdan, Joynt, Jung, Jérome, Kaiser, Kamihara, Kamihara, Karimoto, Karpinski, Karpinski, Karpinski, Kasahara, Katase, Katase, Kawashima, Kawashima, Keimer, Kenzelmann, Kim, Kimura, Klamut, Kleiner, Klimczuk, Klimczuk, Klinkova, Koike, Kong, Kortus, Kriener, Kunes, Kuroda, Kusmartseva, Lanata, Larbalestier, Lee, Lee, Lee, Lee, Lee, Leggett, Li, Li, Lin, Little, Lorenz, Lorenz, Lortz, Lu, Ludbrook, Lynn, Lösch, Maeno, Maier, Majewski, Maki, Mandrus, Mang, Mankowsky, Mansky, Markwardsen, Maruyama, Mason, Mathur, Mattheiss, Matthias, Mazin, Mazin, McElfresh, McHale, McMillan, Meissner, Mermin, Merz, Mitrano, Mitsuhashi, Mizuguchi, Mizukami, Mizuno, Morosan, Moskalenko, Mourachkine, Movshovich, Müller, Nachtrab, Nagamatsu, Nagao, Nagarajan, Naito, Nakane, Nakatsuji, Nayak, Nilsson, Nohara, Oeschler, Oka, Okada, Ong, Onose, Orenstein, Ott, Ott, Palstra, Pei, Pendrys, Pennington, Petrovic, Petrovic, Pfau, Pfleiderer, Pfleiderer, Pieper, Plakida, Porer, Pourret, Pribiag, Prozorov, Putilin, Putti, Qi, Rahn, Read, Reinert, Ren, Ren, Ren, Revolinsky, Reyren, Rimikis, Rotter, Sainz, Saito, Sales, Sarrao, Sato, Sato, Saxena, Saxena, Schlabitz, Schmidt, Schrieffer, Schuck, Schwall, Sefat, Senatore, Shamp, Shi, Shi, Shibauchi, Shiogai, Shishido, Siegal, Sleight, Song, Stangl, Steglich, Steglich, Steglich, Stewart, Stewart, Stockert, Stockert, Suderow, Suhl, Taguchi, Taillefer, Takabayashi, Takada, Takano, Tallon, Tamura, Tanaka, Tang, Tanigaki, Tatsuki, Tautz, Thalmeier, Thalmeier, Thompson, Tokiwa, Tolpygo, Tomsic, Tristan Jover, Trociewitz, Tsuei, Tsuei, Varma, Visser, Vollmer, Voronin, Wachnik, Walker, Walker, Wang, Wang, Wastin, Watanabe, Watanabe, Watanabe, Weber, Weller, Welp, Williams, Williams, Wosnitza, Wu, Wu, Xue, Yajima, Yamada, Yamanaka, Yamanaka, Yamanaka, Yamanaka, Yamato, Yamauchi, Yamauchi, Yamauchi, Yazici, Ye, Ye, Yelland, Yonezawa, Yonezawa, Yonezawa, Yoon, Yuan, Zeyer, Zhang, Zoller, Zou, Zwicknagl, Zwicknagl, Zwicknagl, Zwicknagl, Zwicknagl, Zwicknagl, Zwicknagl   +404 more
core   +1 more source

Triplet Superconductors from the Viewpoint of Basic Elements for Quantum Computers [PDF]

, 2002
We discuss possibilities of utilizing superconductors with Cooper condensates in triplet pairing states (where the spin of condensate pairs is S=1) for practical realization of quantum computers.
Gulian, Armen M., Wood, Kent S.
core   +3 more sources