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The Astrophysical Journal Supplement (ApJS)

Resumen/Descripción – provisto por la editorial en inglés
The Astrophysical Journal Supplement is an open access journal publishing significant articles containing extensive data or calculations. ApJS also supports Special Issues, collections of thematically related papers published simultaneously in a single volume.
Palabras clave – provistas por la editorial

astronomy; astrophysics

Disponibilidad
Institución detectada Período Navegá Descargá Solicitá
No detectada desde dic. 1996 / hasta dic. 2023 IOPScience

Información

Tipo de recurso:

revistas

ISSN impreso

0067-0049

ISSN electrónico

1538-4365

Editor responsable

American Astronomical Society (AAS)

Idiomas de la publicación

  • inglés

País de edición

Reino Unido

Información sobre licencias CC

https://creativecommons.org/licenses/by/4.0/

Cobertura temática

Tabla de contenidos

Catalog of Long-term Transient Sources in the First 10 yr of Fermi-LAT Data

L. BaldiniORCID; J. BalletORCID; D. BastieriORCID; J. Becerra GonzalezORCID; R. BellazziniORCID; A. Berretta; E. BissaldiORCID; R. D. BlandfordORCID; E. D. Bloom; R. BoninoORCID; E. Bottacini; P. Bruel; S. Buson; R. A. CameronORCID; P. A. CaraveoORCID; E. Cavazzuti; S. ChenORCID; G. Chiaro; D. Ciangottini; N. Cibario; S. CipriniORCID; P. Cristarella Orestano; M. Crnogorcevic; S. CutiniORCID; F. D’AmmandoORCID; P. de la Torre LuqueORCID; F. de Palma; S. W. Digel; N. Di LallaORCID; F. Dirirsa; L. Di VenereORCID; A. DomínguezORCID; A. FioriORCID; H. FleischhackORCID; A. Franckowiak; Y. FukazawaORCID; S. FunkORCID; P. FuscoORCID; F. GarganoORCID; D. GasparriniORCID; S. GermaniORCID; N. GigliettoORCID; F. GiordanoORCID; M. Giroletti; D. Green; I. A. Grenier; S. Griffin; S. GuiriecORCID; M. Gustafsson; J. W. HewittORCID; D. Horan; R. Imazawa; G. JóhannessonORCID; M. KerrORCID; D. KocevskiORCID; M. KussORCID; S. LarssonORCID; L. LatronicoORCID; J. Li; I. Liodakis; F. LongoORCID; F. LoparcoORCID; M. N. Lovellette; P. LubranoORCID; S. MalderaORCID; A. ManfredaORCID; G. Martí-Devesa; H. Matake; M. N. MazziottaORCID; I. MereuORCID; M. MeyerORCID; N. MirabalORCID; W. MitthumsiriORCID; T. MizunoORCID; M. E. MonzaniORCID; A. MorselliORCID; I. V. MoskalenkoORCID; S. Nagasawa; M. NegroORCID; R. Ojha; M. Orienti; E. Orlando; M. Palatiello; V. PaliyaORCID; D. Paneque; Z. Pei; M. PersicORCID; M. Pesce-RollinsORCID; V. PetrosianORCID; H. PoonORCID; T. A. PorterORCID; G. Principe; J. L. RacusinORCID; S. RainòORCID; R. RandoORCID; B. RaniORCID; M. RazzanoORCID; S. RazzaqueORCID; A. ReimerORCID; O. ReimerORCID; P. M. Saz ParkinsonORCID; L. Scotton; D. SeriniORCID; C. SgròORCID; E. J. Siskind; G. Spandre; P. Spinelli; D. J. SusonORCID; H. Tajima; D. TakORCID; D. F. TorresORCID; G. TostiORCID; E. TrojaORCID; K. Wood; M. Yassine; G. Zaharijas

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 13

Self-consistent Stellar Radial Velocities from LAMOST Medium-resolution Survey DR7

Bo ZhangORCID; Jiao LiORCID; Fan YangORCID; Jian-Ping XiongORCID; Jian-Ning FuORCID; Chao LiuORCID; Hao TianORCID; Yin-Bi LiORCID; Jia-Xin WangORCID; Cai-Xia LiangORCID; Yu-Tao ZhouORCID; Weikai ZongORCID; Cheng-Qun YangORCID; Nian LiuORCID; Yong-Hui HouORCID

<jats:title>Abstract</jats:title> <jats:p>Radial velocity (RV) is among the most fundamental physical quantities obtainable from stellar spectra and is rather important in the analysis of time-domain phenomena. LAMOST Medium-resolution Survey (MRS) DR7 contains five million single-exposure stellar spectra with spectral resolution <jats:italic>R</jats:italic> ∼ 7500. However, the temporal variation of the RV zero-points (RVZPs) of the MRS, which makes the RVs from multiple epochs inconsistent, has not been addressed. In this paper, we measure the RVs of 3.8 million single-exposure spectra (for 0.6 million stars) with signal-to-noise ratios (S/N) higher than 5 based on the cross-correlation function method, and propose a robust method to self-consistently determine the RVZPs exposure by exposure for each spectrograph with the help of Gaia DR2 RVs. Such RVZPs are estimated for 3.6 million RVs and can reach a mean precision of ∼0.38 km s<jats:sup>−1</jats:sup>. The result of the temporal variation of RVZPs indicates that our algorithm is efficient and necessary before we use the absolute RVs to perform time-domain analyses. Validating the results with APOGEE DR16 shows that our absolute RVs can reach an overall precision of 0.84/0.80 km s<jats:sup>−1</jats:sup> in the blue/red arm at 50 &lt; S/N &lt; 100 and of 1.26/1.99 km s<jats:sup>−1</jats:sup> at 5 &lt; S/N &lt; 10. The cumulative distribution function of the standard deviations of multiple RVs (<jats:italic>N</jats:italic> <jats:sub>obs</jats:sub> ≥ 8) for 678 standard stars reaches 0.45/0.54, 1.07/1.39, and 1.45/1.86 km s<jats:sup>−1</jats:sup> in the blue/red arm at the 50%, 90%, and 95% levels, respectively. Catalogs of the RVs, RVZPs, and selected candidate RV standard stars are available at <jats:ext-link xmlns:xlink="http://www.w3.org/1999/xlink" ext-link-type="uri" xlink:href="https://github.com/hypergravity/paperdata" xlink:type="simple">https://github.com/hypergravity/paperdata</jats:ext-link>.</jats:p>

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 14

Stellar Mass and Star Formation Rate within a Billion Light-years

Jonathan BiteauORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 15

TIMES. I. A Systematic Observation in Multiple Molecular Lines toward the Orion A and Ophiuchus Clouds

Hyeong-Sik YunORCID; Jeong-Eun LeeORCID; Yunhee ChoiORCID; Neal J. EvansORCID; Stella S. R. OffnerORCID; Mark H. HeyerORCID; Brandt A. L. GachesORCID; Yong-Hee LeeORCID; Giseon BaekORCID; Minho Choi; Hyunwoo KangORCID; Seokho LeeORCID; Ken’ichi TatematsuORCID; Yao-Lun YangORCID; How-Huan ChenORCID; Youngung LeeORCID; Jaehoon Jung; Changhoon Lee; Jungyeon ChoORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 16

Retrieving Dust Grain Sizes from Photopolarimetry: An Experimental Approach

O. MuñozORCID; E. Frattin; T. Jardiel; J. C. Gómez-MartínORCID; F. MorenoORCID; J. L. Ramos; D. GuiradoORCID; M. Peiteado; A. C. CaballeroORCID; J. MilliORCID; F. MénardORCID

<jats:title>Abstract</jats:title> <jats:p>We present the experimental phase function, degree of linear polarization (DLP), and linear depolarization (<jats:italic>δ</jats:italic> <jats:sub> <jats:italic>L</jats:italic> </jats:sub>) curves of a set of forsterite samples representative of low-absorbing cosmic dust particles. The samples are prepared using state-of-the-art size-segregating techniques to obtain narrow size distributions spanning a broad range of the scattering size parameter domain. We conclude that the behavior of the phase function at the side- and back-scattering regions provides information on the size regime, the position and magnitude of the maximum of the DLP curve are strongly dependent on particle size, the negative polarization branch is mainly produced by particles with size parameters in the ∼6 to ∼20 range, and the <jats:italic>δ</jats:italic> <jats:sub> <jats:italic>L</jats:italic> </jats:sub> is strongly dependent on particle size at all measured phase angles except for the exact backward direction. From a direct comparison of the experimental data with computations for spherical particles, it becomes clear that the use of the spherical model for simulating the phase function and DLP curves of irregular dust produces dramatic errors in the retrieved composition and size of the scattering particles: The experimental phase functions are reproduced by assuming unrealistically high values of the imaginary part of the refractive index. The spherical model does not reproduce the bell-shaped DLP curve of dust particles with sizes in the resonance and/or geometric optics size domain. Thus, the use of the Mie model for analyzing polarimetric observations might prevent locating dust particles with sizes of the order of or larger than the wavelength of the incident light.</jats:p>

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 17

Numerical Modeling of Latitudinal Gradients for Galactic Cosmic-Ray Protons during Solar Minima: Comparing with Ulysses Observations

Zhenning Shen; Gang QinORCID; Pingbing ZuoORCID; Fengsi Wei; Xiaojun XuORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 18

Confirming the Calibration of ALMA Using Planck Observations

Gerrit S. FarrenORCID; Bruce PartridgeORCID; Rüdiger KneisslORCID; Simone AiolaORCID; Rahul DattaORCID; Megan GrallaORCID; Yaqiong Li

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 19

Tracing Hα Fibrils through Bayesian Deep Learning

Haodi JiangORCID; Ju JingORCID; Jiasheng WangORCID; Chang LiuORCID; Qin Li; Yan Xu; Jason T. L. WangORCID; Haimin WangORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 20

The XMM-SERVS Survey: XMM-Newton Point-source Catalogs for the W-CDF-S and ELAIS-S1 Fields

Qingling NiORCID; W. N. Brandt; Chien-Ting ChenORCID; Bin LuoORCID; Kristina Nyland; Guang YangORCID; Fan ZouORCID; James AirdORCID; David M. AlexanderORCID; Franz Erik BauerORCID; Mark LacyORCID; Bret D. LehmerORCID; Labani Mallick; Mara SalvatoORCID; Donald P. SchneiderORCID; Paolo TozziORCID; Iris Traulsen; Mattia VaccariORCID; Cristian VignaliORCID; Fabio VitoORCID; Yongquan XueORCID; Manda Banerji; Kate Chow; Andrea ComastriORCID; Agnese Del Moro; Roberto GilliORCID; James MullaneyORCID; Maurizio PaolilloORCID; Axel SchwopeORCID; Ohad ShemmerORCID; Mouyuan SunORCID; John D. Timlin IIIORCID; Jonathan R. TrumpORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 21

An XMM-Newton Early-type Galaxy Atlas

Nazma IslamORCID; Dong-Woo KimORCID; Kenneth Lin; Ewan O’SullivanORCID; Craig Anderson; Giuseppina FabbianoORCID; Jennifer Lauer; Douglas Morgan; Amy Mossman; Alessandro PaggiORCID; Ginevra TrinchieriORCID; Saeqa VrtilekORCID

Palabras clave: Space and Planetary Science; Astronomy and Astrophysics.

Pp. 22