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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
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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
Ultrahigh-energy photons up to 1.4 petaelectronvolts from 12 γ-ray Galactic sources
Zhen Cao
; F. A. Aharonian; Q. An; Axikegu; L. X. Bai; Y. X. Bai; Y. W. Bao; D. Bastieri; X. J. Bi; Y. J. Bi; H. Cai; J. T. Cai; Zhe Cao; J. Chang; J. F. Chang; X. C. Chang; B. M. Chen; J. Chen; L. Chen; Liang Chen; Long Chen; M. J. Chen; M. L. Chen; Q. H. Chen; S. H. Chen; S. Z. Chen; T. L. Chen; X. L. Chen; Y. Chen; N. Cheng; Y. D. Cheng; S. W. Cui; X. H. Cui; Y. D. Cui; B. Z. Dai; H. L. Dai; Z. G. Dai; Danzengluobu; D. della Volpe; B. D′Ettorre Piazzoli; X. J. Dong; J. H. Fan; Y. Z. Fan; Z. X. Fan; J. Fang; K. Fang; C. F. Feng; L. Feng; S. H. Feng; Y. L. Feng; B. Gao; C. D. Gao; Q. Gao; W. Gao; M. M. Ge; L. S. Geng; G. H. Gong; Q. B. Gou; M. H. Gu; J. G. Guo; X. L. Guo; Y. Q. Guo; Y. Y. Guo; Y. A. Han; H. H. He; H. N. He; J. C. He; S. L. He; X. B. He; Y. He; M. Heller; Y. K. Hor; C. Hou; X. Hou; H. B. Hu; S. Hu; S. C. Hu; X. J. Hu; D. H. Huang; Q. L. Huang; W. H. Huang; X. T. Huang; Z. C. Huang; F. Ji; X. L. Ji; H. Y. Jia; K. Jiang; Z. J. Jiang; C. Jin; D. Kuleshov; K. Levochkin; B. B. Li; Cong Li; Cheng Li; F. Li; H. B. Li; H. C. Li; H. Y. Li; J. Li; K. Li; W. L. Li; X. Li; Xin Li; X. R. Li; Y. Li; Y. Z. Li; Zhe Li; Zhuo Li; E. W. Liang; Y. F. Liang; S. J. Lin; B. Liu; C. Liu; D. Liu; H. Liu; H. D. Liu; J. Liu; J. L. Liu; J. S. Liu; J. Y. Liu; M. Y. Liu; R. Y. Liu; S. M. Liu; W. Liu; Y. N. Liu; Z. X. Liu; W. J. Long; R. Lu; H. K. Lv; B. Q. Ma; L. L. Ma; X. H. Ma; J. R. Mao; A. Masood; W. Mitthumsiri; T. Montaruli; Y. C. Nan; B. Y. Pang; P. Pattarakijwanich; Z. Y. Pei; M. Y. Qi; D. Ruffolo; V. Rulev; A. Sáiz; L. Shao; O. Shchegolev; X. D. Sheng; J. R. Shi; H. C. Song; Yu. V. Stenkin; V. Stepanov; Q. N. Sun; X. N. Sun; Z. B. Sun; P. H. T. Tam; Z. B. Tang; W. W. Tian; B. D. Wang; C. Wang; H. Wang; H. G. Wang; J. C. Wang; J. S. Wang; L. P. Wang; L. Y. Wang; R. N. Wang; W. Wang; W. Wang; X. G. Wang; X. J. Wang; X. Y. Wang; Y. D. Wang; Y. J. Wang; Y. P. Wang; Zheng Wang; Zhen Wang; Z. H. Wang; Z. X. Wang; D. M. Wei; J. J. Wei; Y. J. Wei; T. Wen; C. Y. Wu; H. R. Wu; S. Wu; W. X. Wu; X. F. Wu; S. Q. Xi; J. Xia; J. J. Xia; G. M. Xiang; G. Xiao; H. B. Xiao; G. G. Xin; Y. L. Xin; Y. Xing; D. L. Xu; R. X. Xu; L. Xue; D. H. Yan; C. W. Yang; F. F. Yang; J. Y. Yang; L. L. Yang; M. J. Yang; R. Z. Yang; S. B. Yang; Y. H. Yao; Z. G. Yao; Y. M. Ye; L. Q. Yin; N. Yin; X. H. You; Z. Y. You; Y. H. Yu; Q. Yuan; H. D. Zeng; T. X. Zeng; W. Zeng; Z. K. Zeng; M. Zha; X. X. Zhai; B. B. Zhang; H. M. Zhang; H. Y. Zhang; J. L. Zhang; J. W. Zhang; L. Zhang; Li Zhang; L. X. Zhang; P. F. Zhang; P. P. Zhang; R. Zhang; S. R. Zhang; S. S. Zhang; X. Zhang; X. P. Zhang; Yong Zhang; Yi Zhang; Y. F. Zhang; Y. L. Zhang; B. Zhao; J. Zhao; L. Zhao; L. Z. Zhao; S. P. Zhao; F. Zheng; Y. Zheng; B. Zhou; H. Zhou; J. N. Zhou; P. Zhou; R. Zhou; X. X. Zhou; C. G. Zhu; F. R. Zhu; H. Zhu; K. J. Zhu; X. Zuo
Palabras clave: Multidisciplinary.
Pp. 33-36
Telecom-heralded entanglement between multimode solid-state quantum memories
Dario Lago-Rivera; Samuele Grandi; Jelena V. Rakonjac; Alessandro Seri; Hugues de Riedmatten
Palabras clave: Multidisciplinary.
Pp. 37-40
Heralded entanglement distribution between two absorptive quantum memories
Xiao Liu; Jun Hu; Zong-Feng Li; Xue Li; Pei-Yun Li; Peng-Jun Liang; Zong-Quan Zhou; Chuan-Feng Li; Guang-Can Guo
Palabras clave: Multidisciplinary.
Pp. 41-45
Signatures of moiré trions in WSe2/MoSe2 heterobilayers
Erfu Liu; Elyse Barré; Jeremiah van Baren; Matthew Wilson; Takashi Taniguchi; Kenji Watanabe; Yong-Tao Cui; Nathaniel M. Gabor; Tony F. Heinz; Yia-Chung Chang; Chun Hung Lui
Palabras clave: Multidisciplinary.
Pp. 46-50
CO2 doping of organic interlayers for perovskite solar cells
Jaemin Kong; Yongwoo Shin; Jason A. Röhr; Hang Wang; Juan Meng; Yueshen Wu; Adlai Katzenberg; Geunjin Kim; Dong Young Kim; Tai-De Li; Edward Chau; Francisco Antonio; Tana Siboonruang; Sooncheol Kwon; Kwanghee Lee; Jin Ryoun Kim; Miguel A. Modestino; Hailiang Wang; André D. Taylor
Palabras clave: Multidisciplinary.
Pp. 51-56
Intrinsic toughening and stable crack propagation in hexagonal boron nitride
Yingchao Yang; Zhigong Song; Guangyuan Lu; Qinghua Zhang; Boyu Zhang; Bo Ni; Chao Wang; Xiaoyan Li; Lin Gu; Xiaoming Xie; Huajian Gao; Jun Lou
Palabras clave: Multidisciplinary.
Pp. 57-61
Asymmetric response of interfacial water to applied electric fields
Angelo Montenegro; Chayan Dutta; Muhammet Mammetkuliev; Haotian Shi; Bingya Hou; Dhritiman Bhattacharyya; Bofan Zhao; Stephen B. Cronin; Alexander V. Benderskii
Palabras clave: Multidisciplinary.
Pp. 62-65
Widespread deoxygenation of temperate lakes
Stephen F. Jane; Gretchen J. A. Hansen; Benjamin M. Kraemer; Peter R. Leavitt; Joshua L. Mincer; Rebecca L. North; Rachel M. Pilla; Jonathan T. Stetler; Craig E. Williamson; R. Iestyn Woolway; Lauri Arvola; Sudeep Chandra; Curtis L. DeGasperi; Laura Diemer; Julita Dunalska; Oxana Erina; Giovanna Flaim; Hans-Peter Grossart; K. David Hambright; Catherine Hein; Josef Hejzlar; Lorraine L. Janus; Jean-Philippe Jenny; John R. Jones; Lesley B. Knoll; Barbara Leoni; Eleanor Mackay; Shin-Ichiro S. Matsuzaki; Chris McBride; Dörthe C. Müller-Navarra; Andrew M. Paterson; Don Pierson; Michela Rogora; James A. Rusak; Steven Sadro; Emilie Saulnier-Talbot; Martin Schmid; Ruben Sommaruga; Wim Thiery; Piet Verburg; Kathleen C. Weathers; Gesa A. Weyhenmeyer; Kiyoko Yokota; Kevin C. Rose
Palabras clave: Multidisciplinary.
Pp. 66-70
The nutritional quality of cereals varies geospatially in Ethiopia and Malawi
D. Gashu; P. C. Nalivata; T. Amede; E. L. Ander; E. H. Bailey; L. Botoman; C. Chagumaira; S. Gameda; S. M. Haefele; K. Hailu; E. J. M. Joy; A. A. Kalimbira; D. B. Kumssa; R. M. Lark; I. S. Ligowe; S. P. McGrath; A. E. Milne; A. W. Mossa; M. Munthali; E. K. Towett; M. G. Walsh; L. Wilson; S. D. Young; M. R. Broadley
<jats:title>Abstract</jats:title><jats:p>Micronutrient deficiencies (MNDs) remain widespread among people in sub-Saharan Africa<jats:sup>1–5</jats:sup>, where access to sufficient food from plant and animal sources that is rich in micronutrients (vitamins and minerals) is limited due to socioeconomic and geographical reasons<jats:sup>4–6</jats:sup>. Here we report the micronutrient composition (calcium, iron, selenium and zinc) of staple cereal grains for most of the cereal production areas in Ethiopia and Malawi. We show that there is geospatial variation in the composition of micronutrients that is nutritionally important at subnational scales. Soil and environmental covariates of grain micronutrient concentrations included soil pH, soil organic matter, temperature, rainfall and topography, which were specific to micronutrient and crop type. For rural households consuming locally sourced food—including many smallholder farming communities—the location of residence can be the largest influencing factor in determining the dietary intake of micronutrients from cereals. Positive relationships between the concentration of selenium in grain and biomarkers of selenium dietary status occur in both countries. Surveillance of MNDs on the basis of biomarkers of status and dietary intakes from national- and regional-scale food-composition data<jats:sup>1–7</jats:sup> could be improved using subnational data on the composition of grain micronutrients. Beyond dietary diversification, interventions to alleviate MNDs, such as food fortification<jats:sup>8,9</jats:sup> and biofortification to increase the micronutrient concentrations in crops<jats:sup>10,11</jats:sup>, should account for geographical effects that can be larger in magnitude than intervention outcomes.</jats:p>
Palabras clave: Multidisciplinary.
Pp. 71-76
A high-quality bonobo genome refines the analysis of hominid evolution
Yafei Mao; Claudia R. Catacchio; LaDeana W. Hillier; David Porubsky; Ruiyang Li; Arvis Sulovari; Jason D. Fernandes; Francesco Montinaro; David S. Gordon; Jessica M. Storer; Marina Haukness; Ian T. Fiddes; Shwetha Canchi Murali; Philip C. Dishuck; PingHsun Hsieh; William T. Harvey; Peter A. Audano; Ludovica Mercuri; Ilaria Piccolo; Francesca Antonacci; Katherine M. Munson; Alexandra P. Lewis; Carl Baker; Jason G. Underwood; Kendra Hoekzema; Tzu-Hsueh Huang; Melanie Sorensen; Jerilyn A. Walker; Jinna Hoffman; Françoise Thibaud-Nissen; Sofie R. Salama; Andy W. C. Pang; Joyce Lee; Alex R. Hastie; Benedict Paten; Mark A. Batzer; Mark Diekhans; Mario Ventura; Evan E. Eichler
<jats:title>Abstract</jats:title><jats:p>The divergence of chimpanzee and bonobo provides one of the few examples of recent hominid speciation<jats:sup>1,2</jats:sup>. Here we describe a fully annotated, high-quality bonobo genome assembly, which was constructed without guidance from reference genomes by applying a multiplatform genomics approach. We generate a bonobo genome assembly in which more than 98% of genes are completely annotated and 99% of the gaps are closed, including the resolution of about half of the segmental duplications and almost all of the full-length mobile elements. We compare the bonobo genome to those of other great apes<jats:sup>1,3–5</jats:sup> and identify more than 5,569 fixed structural variants that specifically distinguish the bonobo and chimpanzee lineages. We focus on genes that have been lost, changed in structure or expanded in the last few million years of bonobo evolution. We produce a high-resolution map of incomplete lineage sorting and estimate that around 5.1% of the human genome is genetically closer to chimpanzee or bonobo and that more than 36.5% of the genome shows incomplete lineage sorting if we consider a deeper phylogeny including gorilla and orangutan. We also show that 26% of the segments of incomplete lineage sorting between human and chimpanzee or human and bonobo are non-randomly distributed and that genes within these clustered segments show significant excess of amino acid replacement compared to the rest of the genome.</jats:p>
Palabras clave: Multidisciplinary.
Pp. 77-81