Catálogo de publicaciones - revistas
Nature
Resumen/Descripción – provisto por la editorial en inglés
Nature is a weekly international journal publishing the finest peer-reviewed research in all fields of science and technology on the basis of its originality, importance, interdisciplinary interest, timeliness, accessibility, elegance and surprising conclusions. Nature also provides rapid, authoritative, insightful and arresting news and interpretation of topical and coming trends affecting science, scientists and the wider public.Palabras clave – provistas por la editorial
No disponibles.
Disponibilidad
| Institución detectada | Período | Navegá | Descargá | Solicitá |
|---|---|---|---|---|
| No detectada | desde jul. 2012 / hasta dic. 2023 | Nature.com | ||
| No detectada | desde jul. 2006 / hasta ago. 2012 | Ovid |
Información
Tipo de recurso:
revistas
ISSN impreso
0028-0836
ISSN electrónico
1476-4687
Editor responsable
Springer Nature
País de edición
Reino Unido
Fecha de publicación
1869-
Tabla de contenidos
How the amino acid leucine activates the key cell-growth regulator mTOR
Tibor Vellai
Palabras clave: Multidisciplinary.
Pp. 192-194
A microscopy technique that images single reaction events in total darkness
Frédéric Kanoufi; Neso Sojic
Palabras clave: Multidisciplinary.
Pp. 194-195
Chain-mail fabric stiffens under confining pressure
Laurent Orgéas
Palabras clave: Multidisciplinary.
Pp. 196-197
Deep continental roots and cratons
D. Graham Pearson; James M. Scott; Jingao Liu; Andrew Schaeffer; Lawrence Hongliang Wang; Jeroen van Hunen; Kristoffer Szilas; Thomas Chacko; Peter B. Kelemen
Palabras clave: Multidisciplinary.
Pp. 199-210
Exploring tissue architecture using spatial transcriptomics
Anjali Rao; Dalia Barkley; Gustavo S. França; Itai Yanai
Palabras clave: Multidisciplinary.
Pp. 211-220
Demonstration of reduced neoclassical energy transport in Wendelstein 7-X
C. D. Beidler; H. M. Smith; A. Alonso; T. Andreeva; J. Baldzuhn; M. N. A. Beurskens; M. Borchardt; S. A. Bozhenkov; K. J. Brunner; H. Damm; M. Drevlak; O. P. Ford; G. Fuchert; J. Geiger; P. Helander; U. Hergenhahn; M. Hirsch; U. Höfel; Ye. O. Kazakov; R. Kleiber; M. Krychowiak; S. Kwak; A. Langenberg; H. P. Laqua; U. Neuner; N. A. Pablant; E. Pasch; A. Pavone; T. S. Pedersen; K. Rahbarnia; J. Schilling; E. R. Scott; T. Stange; J. Svensson; H. Thomsen; Y. Turkin; F. Warmer; R. C. Wolf; D. Zhang; I. Abramovic; S. Äkäslompolo; J. Alcusón; P. Aleynikov; K. Aleynikova; A. Ali; A. Alonso; G. Anda; E. Ascasibar; J. P. Bähner; S. G. Baek; M. Balden; M. Banduch; T. Barbui; W. Behr; A. Benndorf; C. Biedermann; W. Biel; B. Blackwell; E. Blanco; M. Blatzheim; S. Ballinger; T. Bluhm; D. Böckenhoff; B. Böswirth; L.-G. Böttger; V. Borsuk; J. Boscary; H.-S. Bosch; R. Brakel; H. Brand; C. Brandt; T. Bräuer; H. Braune; S. Brezinsek; K.-J. Brunner; R. Burhenn; R. Bussiahn; B. Buttenschön; V. Bykov; J. Cai; I. Calvo; B. Cannas; A. Cappa; A. Carls; L. Carraro; B. Carvalho; F. Castejon; A. Charl; N. Chaudhary; D. Chauvin; F. Chernyshev; M. Cianciosa; R. Citarella; G. Claps; J. Coenen; M. Cole; M. J. Cole; F. Cordella; G. Cseh; A. Czarnecka; K. Czerski; M. Czerwinski; G. Czymek; A. da Molin; A. da Silva; A. de la Pena; S. Degenkolbe; C. P. Dhard; M. Dibon; A. Dinklage; T. Dittmar; P. Drewelow; P. Drews; F. Durodie; E. Edlund; F. Effenberg; G. Ehrke; S. Elgeti; M. Endler; D. Ennis; H. Esteban; T. Estrada; J. Fellinger; Y. Feng; E. Flom; H. Fernandes; W. H. Fietz; W. Figacz; J. Fontdecaba; T. Fornal; H. Frerichs; A. Freund; T. Funaba; A. Galkowski; G. Gantenbein; Y. Gao; J. García Regaña; D. Gates; B. Geiger; V. Giannella; A. Gogoleva; B. Goncalves; A. Goriaev; D. Gradic; M. Grahl; J. Green; H. Greuner; A. Grosman; H. Grote; M. Gruca; O. Grulke; C. Guerard; P. Hacker; X. Han; J. H. Harris; D. Hartmann; D. Hathiramani; B. Hein; B. Heinemann; P. Helander; S. Henneberg; M. Henkel; U. Hergenhahn; J. Hernandez Sanchez; C. Hidalgo; K. P. Hollfeld; A. Hölting; D. Höschen; M. Houry; J. Howard; X. Huang; Z. Huang; M. Hubeny; M. Huber; H. Hunger; K. Ida; T. Ilkei; S. Illy; B. Israeli; S. Jablonski; M. Jakubowski; J. Jelonnek; H. Jenzsch; T. Jesche; M. Jia; P. Junghanns; J. Kacmarczyk; J.-P. Kallmeyer; U. Kamionka; H. Kasahara; W. Kasparek; N. Kenmochi; C. Killer; A. Kirschner; T. Klinger; J. Knauer; M. Knaup; A. Knieps; T. Kobarg; G. Kocsis; F. Köchl; Y. Kolesnichenko; A. Könies; R. König; P. Kornejew; J.-P. Koschinsky; F. Köster; M. Krämer; R. Krampitz; A. Krämer-Flecken; N. Krawczyk; T. Kremeyer; J. Krom; I. Ksiazek; M. Kubkowska; G. Kühner; T. Kurki-Suonio; P. A. Kurz; M. Landreman; P. Lang; R. Lang; S. Langish; H. Laqua; R. Laube; S. Lazerson; C. Lechte; M. Lennartz; W. Leonhardt; C. Li; C. Li; Y. Li; Y. Liang; C. Linsmeier; S. Liu; J.-F. Lobsien; D. Loesser; J. Loizu Cisquella; J. Lore; A. Lorenz; M. Losert; A. Lücke; A. Lumsdaine; V. Lutsenko; H. Maaßberg; O. Marchuk; J. H. Matthew; S. Marsen; M. Marushchenko; S. Masuzaki; D. Maurer; M. Mayer; K. McCarthy; P. McNeely; A. Meier; D. Mellein; B. Mendelevitch; P. Mertens; D. Mikkelsen; A. Mishchenko; B. Missal; J. Mittelstaedt; T. Mizuuchi; A. Mollen; V. Moncada; T. Mönnich; T. Morisaki; D. Moseev; S. Murakami; G. Náfrádi; M. Nagel; D. Naujoks; H. Neilson; R. Neu; O. Neubauer; T. Ngo; D. Nicolai; S. K. Nielsen; H. Niemann; T. Nishizawa; R. Nocentini; C. Nührenberg; J. Nührenberg; S. Obermayer; G. Offermanns; K. Ogawa; J. Ölmanns; J. Ongena; J. W. Oosterbeek; G. Orozco; M. Otte; L. Pacios Rodriguez; N. Panadero; N. Panadero Alvarez; D. Papenfuß; S. Paqay; E. Pawelec; T. S. Pedersen; G. Pelka; V. Perseo; B. Peterson; D. Pilopp; S. Pingel; F. Pisano; B. Plaum; G. Plunk; P. Pölöskei; M. Porkolab; J. Proll; M.-E. Puiatti; A. Puig Sitjes; F. Purps; M. Rack; S. Récsei; A. Reiman; F. Reimold; D. Reiter; F. Remppel; S. Renard; R. Riedl; J. Riemann; K. Risse; V. Rohde; H. Röhlinger; M. Romé; D. Rondeshagen; P. Rong; B. Roth; L. Rudischhauser; K. Rummel; T. Rummel; A. Runov; N. Rust; L. Ryc; S. Ryosuke; R. Sakamoto; M. Salewski; A. Samartsev; E. Sánchez; F. Sano; S. Satake; J. Schacht; G. Satheeswaran; F. Schauer; T. Scherer; A. Schlaich; G. Schlisio; F. Schluck; K.-H. Schlüter; J. Schmitt; H. Schmitz; O. Schmitz; S. Schmuck; M. Schneider; W. Schneider; P. Scholz; R. Schrittwieser; M. Schröder; T. Schröder; R. Schroeder; H. Schumacher; B. Schweer; S. Sereda; B. Shanahan; M. Sibilia; P. Sinha; S. Sipliä; C. Slaby; M. Sleczka; W. Spiess; D. A. Spong; A. Spring; R. Stadler; M. Stejner; L. Stephey; U. Stridde; C. Suzuki; V. Szabó; T. Szabolics; T. Szepesi; Z. Szökefalvi-Nagy; N. Tamura; A. Tancetti; J. Terry; J. Thomas; M. Thumm; J. M. Travere; P. Traverso; J. Tretter; H. Trimino Mora; H. Tsuchiya; T. Tsujimura; S. Tulipán; B. Unterberg; I. Vakulchyk; S. Valet; L. Vanó; P. van Eeten; B. van Milligen; A. J. van Vuuren; L. Vela; J.-L. Velasco; M. Vergote; M. Vervier; N. Vianello; H. Viebke; R. Vilbrandt; A. von Stechow; A. Vorköper; S. Wadle; F. Wagner; E. Wang; N. Wang; Z. Wang; T. Wauters; L. Wegener; J. Weggen; T. Wegner; Y. Wei; G. Weir; J. Wendorf; U. Wenzel; A. Werner; A. White; B. Wiegel; F. Wilde; T. Windisch; M. Winkler; A. Winter; V. Winters; S. Wolf; R. C. Wolf; A. Wright; G. Wurden; P. Xanthopoulos; H. Yamada; I. Yamada; R. Yasuhara; M. Yokoyama; M. Zanini; M. Zarnstorff; A. Zeitler; H. Zhang; J. Zhu; M. Zilker; A. Zocco; S. Zoletnik; M. Zuin;
<jats:title>Abstract</jats:title><jats:p>Research on magnetic confinement of high-temperature plasmas has the ultimate goal of harnessing nuclear fusion for the production of electricity. Although the tokamak<jats:sup>1</jats:sup> is the leading toroidal magnetic-confinement concept, it is not without shortcomings and the fusion community has therefore also pursued alternative concepts such as the stellarator. Unlike axisymmetric tokamaks, stellarators possess a three-dimensional (3D) magnetic field geometry. The availability of this additional dimension opens up an extensive configuration space for computational optimization of both the field geometry itself and the current-carrying coils that produce it. Such an optimization was undertaken in designing Wendelstein 7-X (W7-X)<jats:sup>2</jats:sup>, a large helical-axis advanced stellarator (HELIAS), which began operation in 2015 at Greifswald, Germany. A major drawback of 3D magnetic field geometry, however, is that it introduces a strong temperature dependence into the stellarator’s non-turbulent ‘neoclassical’ energy transport. Indeed, such energy losses will become prohibitive in high-temperature reactor plasmas unless a strong reduction of the geometrical factor associated with this transport can be achieved; such a reduction was therefore a principal goal of the design of W7-X. In spite of the modest heating power currently available, W7-X has already been able to achieve high-temperature plasma conditions during its 2017 and 2018 experimental campaigns, producing record values of the fusion triple product for such stellarator plasmas<jats:sup>3,4</jats:sup>. The triple product of plasma density, ion temperature and energy confinement time is used in fusion research as a figure of merit, as it must attain a certain threshold value before net-energy-producing operation of a reactor becomes possible<jats:sup>1,5</jats:sup>. Here we demonstrate that such record values provide evidence for reduced neoclassical energy transport in W7-X, as the plasma profiles that produced these results could not have been obtained in stellarators lacking a comparably high level of neoclassical optimization.</jats:p>
Palabras clave: Multidisciplinary.
Pp. 221-226
Evidence for an atomic chiral superfluid with topological excitations
Xiao-Qiong Wang; Guang-Quan Luo; Jin-Yu Liu; W. Vincent Liu; Andreas Hemmerich; Zhi-Fang Xu
<jats:title>Abstract</jats:title><jats:p>Topological superfluidity is an important concept in electronic materials as well as ultracold atomic gases<jats:sup>1</jats:sup>. However, although progress has been made by hybridizing superconductors with topological substrates, the search for a material—natural or artificial—that intrinsically exhibits topological superfluidity has been ongoing since the discovery of the superfluid <jats:sup>3</jats:sup>He-A phase<jats:sup>2</jats:sup>. Here we report evidence for a globally chiral atomic superfluid, induced by interaction-driven time-reversal symmetry breaking in the second Bloch band of an optical lattice with hexagonal boron nitride geometry. This realizes a long-lived Bose–Einstein condensate of <jats:sup>87</jats:sup>Rb atoms beyond present limits to orbitally featureless scenarios in the lowest Bloch band. Time-of-flight and band mapping measurements reveal that the local phases and orbital rotations of atoms are spontaneously ordered into a vortex array, showing evidence of the emergence of global angular momentum across the entire lattice. A phenomenological effective model is used to capture the dynamics of Bogoliubov quasi-particle excitations above the ground state, which are shown to exhibit a topological band structure. The observed bosonic phase is expected to exhibit phenomena that are conceptually distinct from, but related to, the quantum anomalous Hall effect<jats:sup>3–7</jats:sup> in electronic condensed matter.</jats:p>
Palabras clave: Multidisciplinary.
Pp. 227-231
Actively variable-spectrum optoelectronics with black phosphorus
Hyungjin Kim; Shiekh Zia Uddin; Der-Hsien Lien; Matthew Yeh; Nima Sefidmooye Azar; Sivacarendran Balendhran; Taehun Kim; Niharika Gupta; Yoonsoo Rho; Costas P. Grigoropoulos; Kenneth B. Crozier; Ali Javey
Palabras clave: Multidisciplinary.
Pp. 232-237
Structured fabrics with tunable mechanical properties
Yifan Wang; Liuchi Li; Douglas Hofmann; José E. Andrade; Chiara Daraio
Palabras clave: Multidisciplinary.
Pp. 238-243
Direct imaging of single-molecule electrochemical reactions in solution
Jinrun Dong; Yuxian Lu; Yang Xu; Fanfan Chen; Jinmei Yang; Yuang Chen; Jiandong Feng
Palabras clave: Multidisciplinary.
Pp. 244-249