Literature DB >> 29211721

Galaxy growth in a massive halo in the first billion years of cosmic history.

D P Marrone1, J S Spilker1, C C Hayward2,3, J D Vieira4, M Aravena5, M L N Ashby3, M B Bayliss6, M Béthermin7, M Brodwin8, M S Bothwell9,10, J E Carlstrom11,12,13,14, S C Chapman15, Chian-Chou Chen16, T M Crawford11,14, D J M Cunningham15,17, C De Breuck16, C D Fassnacht18, A H Gonzalez19, T R Greve20, Y D Hezaveh21, K Lacaille22, K C Litke1, S Lower4, J Ma19, M Malkan23, T B Miller15, W R Morningstar21, E J Murphy24, D Narayanan19, K A Phadke4, K M Rotermund15, J Sreevani4, B Stalder25, A A Stark3, M L Strandet26,27, M Tang1, A Weiß26.   

Abstract

According to the current understanding of cosmic structure formation, the precursors of the most massive structures in the Universe began to form shortly after the Big Bang, in regions corresponding to the largest fluctuations in the cosmic density field. Observing these structures during their period of active growth and assembly-the first few hundred million years of the Universe-is challenging because it requires surveys that are sensitive enough to detect the distant galaxies that act as signposts for these structures and wide enough to capture the rarest objects. As a result, very few such objects have been detected so far. Here we report observations of a far-infrared-luminous object at redshift 6.900 (less than 800 million years after the Big Bang) that was discovered in a wide-field survey. High-resolution imaging shows it to be a pair of extremely massive star-forming galaxies. The larger is forming stars at a rate of 2,900 solar masses per year, contains 270 billion solar masses of gas and 2.5 billion solar masses of dust, and is more massive than any other known object at a redshift of more than 6. Its rapid star formation is probably triggered by its companion galaxy at a projected separation of 8 kiloparsecs. This merging companion hosts 35 billion solar masses of stars and has a star-formation rate of 540 solar masses per year, but has an order of magnitude less gas and dust than its neighbour and physical conditions akin to those observed in lower-metallicity galaxies in the nearby Universe. These objects suggest the presence of a dark-matter halo with a mass of more than 100 billion solar masses, making it among the rarest dark-matter haloes that should exist in the Universe at this epoch.

Year:  2017        PMID: 29211721     DOI: 10.1038/nature24629

Source DB:  PubMed          Journal:  Nature        ISSN: 0028-0836            Impact factor:   49.962


  8 in total

1.  The intense starburst HDF 850.1 in a galaxy overdensity at z ≈ 5.2 in the Hubble Deep Field.

Authors:  Fabian Walter; Roberto Decarli; Chris Carilli; Frank Bertoldi; Pierre Cox; Elisabete Da Cunha; Emanuele Daddi; Mark Dickinson; Dennis Downes; David Elbaz; Richard Ellis; Jacqueline Hodge; Roberto Neri; Dominik A Riechers; Axel Weiss; Eric Bell; Helmut Dannerbauer; Melanie Krips; Mark Krumholz; Lindley Lentati; Roberto Maiolino; Karl Menten; Hans-Walter Rix; Brant Robertson; Hyron Spinrad; Dan P Stark; Daniel Stern
Journal:  Nature       Date:  2012-06-13       Impact factor: 49.962

2.  Simulations of the formation, evolution and clustering of galaxies and quasars.

Authors:  Volker Springel; Simon D M White; Adrian Jenkins; Carlos S Frenk; Naoki Yoshida; Liang Gao; Julio Navarro; Robert Thacker; Darren Croton; John Helly; John A Peacock; Shaun Cole; Peter Thomas; Hugh Couchman; August Evrard; Jörg Colberg; Frazer Pearce
Journal:  Nature       Date:  2005-06-02       Impact factor: 49.962

3.  A dusty, normal galaxy in the epoch of reionization.

Authors:  Darach Watson; Lise Christensen; Kirsten Kraiberg Knudsen; Johan Richard; Anna Gallazzi; Michał Jerzy Michałowski
Journal:  Nature       Date:  2015-03-02       Impact factor: 49.962

4.  Dusty starburst galaxies in the early Universe as revealed by gravitational lensing.

Authors:  J D Vieira; D P Marrone; S C Chapman; C De Breuck; Y D Hezaveh; A Weiβ; J E Aguirre; K A Aird; M Aravena; M L N Ashby; M Bayliss; B A Benson; A D Biggs; L E Bleem; J J Bock; M Bothwell; C M Bradford; M Brodwin; J E Carlstrom; C L Chang; T M Crawford; A T Crites; T de Haan; M A Dobbs; E B Fomalont; C D Fassnacht; E M George; M D Gladders; A H Gonzalez; T R Greve; B Gullberg; N W Halverson; F W High; G P Holder; W L Holzapfel; S Hoover; J D Hrubes; T R Hunter; R Keisler; A T Lee; E M Leitch; M Lueker; D Luong-Van; M Malkan; V McIntyre; J J McMahon; J Mehl; K M Menten; S S Meyer; L M Mocanu; E J Murphy; T Natoli; S Padin; T Plagge; C L Reichardt; A Rest; J Ruel; J E Ruhl; K Sharon; K K Schaffer; L Shaw; E Shirokoff; J S Spilker; B Stalder; Z Staniszewski; A A Stark; K Story; K Vanderlinde; N Welikala; R Williamson
Journal:  Nature       Date:  2013-03-13       Impact factor: 49.962

5.  A dust-obscured massive maximum-starburst galaxy at a redshift of 6.34.

Authors:  Dominik A Riechers; C M Bradford; D L Clements; C D Dowell; I Pérez-Fournon; R J Ivison; C Bridge; A Conley; Hai Fu; J D Vieira; J Wardlow; J Calanog; A Cooray; P Hurley; R Neri; J Kamenetzky; J E Aguirre; B Altieri; V Arumugam; D J Benford; M Béthermin; J Bock; D Burgarella; A Cabrera-Lavers; S C Chapman; P Cox; J S Dunlop; L Earle; D Farrah; P Ferrero; A Franceschini; R Gavazzi; J Glenn; E A Gonzalez Solares; M A Gurwell; M Halpern; E Hatziminaoglou; A Hyde; E Ibar; A Kovács; M Krips; R E Lupu; P R Maloney; P Martinez-Navajas; H Matsuhara; E J Murphy; B J Naylor; H T Nguyen; S J Oliver; A Omont; M J Page; G Petitpas; N Rangwala; I G Roseboom; D Scott; A J Smith; J G Staguhn; A Streblyanska; A P Thomson; I Valtchanov; M Viero; L Wang; M Zemcov; J Zmuidzinas
Journal:  Nature       Date:  2013-04-18       Impact factor: 49.962

6.  Detection of an oxygen emission line from a high-redshift galaxy in the reionization epoch.

Authors:  Akio K Inoue; Yoichi Tamura; Hiroshi Matsuo; Ken Mawatari; Ikkoh Shimizu; Takatoshi Shibuya; Kazuaki Ota; Naoki Yoshida; Erik Zackrisson; Nobunari Kashikawa; Kotaro Kohno; Hideki Umehata; Bunyo Hatsukade; Masanori Iye; Yuichi Matsuda; Takashi Okamoto; Yuki Yamaguchi
Journal:  Science       Date:  2016-06-16       Impact factor: 47.728

7.  Molecular gas in the host galaxy of a quasar at redshift z = 6.42.

Authors:  Fabian Walter; Frank Bertoldi; Chris Carilli; Pierre Cox; K Y Lo; Roberto Neri; Xiaohui Fan; Alain Omont; Michael A Strauss; Karl M Menten
Journal:  Nature       Date:  2003-07-24       Impact factor: 49.962

8.  Rapidly star-forming galaxies adjacent to quasars at redshifts exceeding 6.

Authors:  R Decarli; F Walter; B P Venemans; E Bañados; F Bertoldi; C Carilli; X Fan; E P Farina; C Mazzucchelli; D Riechers; H-W Rix; M A Strauss; R Wang; Y Yang
Journal:  Nature       Date:  2017-05-24       Impact factor: 49.962

  8 in total
  3 in total

Review 1.  High-redshift star formation in the Atacama large millimetre/submillimetre array era.

Authors:  J A Hodge; E da Cunha
Journal:  R Soc Open Sci       Date:  2020-12-09       Impact factor: 2.963

2.  A dusty compact object bridging galaxies and quasars at cosmic dawn.

Authors:  S Fujimoto; G B Brammer; D Watson; G E Magdis; V Kokorev; T R Greve; S Toft; F Walter; R Valiante; M Ginolfi; R Schneider; F Valentino; L Colina; M Vestergaard; R Marques-Chaves; J P U Fynbo; M Krips; C L Steinhardt; I Cortzen; F Rizzo; P A Oesch
Journal:  Nature       Date:  2022-04-13       Impact factor: 49.962

3.  Normal, dust-obscured galaxies in the epoch of reionization.

Authors:  Y Fudamoto; P A Oesch; S Schouws; M Stefanon; R Smit; R J Bouwens; R A A Bowler; R Endsley; V Gonzalez; H Inami; I Labbe; D Stark; M Aravena; L Barrufet; E da Cunha; P Dayal; A Ferrara; L Graziani; J Hodge; A Hutter; Y Li; I De Looze; T Nanayakkara; A Pallottini; D Riechers; R Schneider; G Ucci; P van der Werf; C White
Journal:  Nature       Date:  2021-09-22       Impact factor: 49.962

  3 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.