His main research concerns Astrophysics, Galaxy, Astronomy, Redshift and Galaxy formation and evolution. His Stellar mass, Globular cluster, Luminosity, Luminosity function and Star formation investigations are all subjects of Astrophysics research. He combines subjects such as Metallicity, Virgo Cluster and Velocity dispersion with his study of Globular cluster.
His Galaxy study combines topics from a wide range of disciplines, such as Stars and Spectral line. Lee R. Spitler usually deals with Galaxy formation and evolution and limits it to topics linked to Cosmology and Ultraviolet, Far infrared and COSMIC cancer database. His studies in Halo integrate themes in fields like Dark Ages and Cosmic variance.
Lee R. Spitler mainly focuses on Astrophysics, Galaxy, Astronomy, Redshift and Globular cluster. Astrophysics is a component of his Galaxy formation and evolution, Stellar mass, Star formation, Elliptical galaxy and Galaxy cluster studies. In the field of Galaxy formation and evolution, his study on Tully–Fisher relation overlaps with subjects such as Power law.
His study brings together the fields of Stars and Galaxy. His Redshift research is multidisciplinary, incorporating elements of Spectral energy distribution, Infrared, Sigma and Photometry. The concepts of his Globular cluster study are interwoven with issues in Hubble sequence, Advanced Camera for Surveys, Star cluster, Dark matter and Velocity dispersion.
His scientific interests lie mostly in Astrophysics, Galaxy, Star formation, Emission spectrum and Stellar mass. His work blends Astrophysics and Angular momentum studies together. In most of his Galaxy studies, his work intersects topics such as Number density.
In Emission spectrum, he works on issues like Metallicity, which are connected to Redshift survey. His biological study deals with issues like Galaxy cluster, which deal with fields such as Tully–Fisher relation and Globular cluster. His study with Galaxy formation and evolution involves better knowledge in Astronomy.
His primary areas of investigation include Astrophysics, Galaxy, Star formation, Stellar mass and Galaxy formation and evolution. His research on Astrophysics frequently connects to adjacent areas such as Doubly ionized oxygen. Many of his studies on Galaxy apply to Black hole as well.
Lee R. Spitler has included themes like Number density and Near-infrared spectroscopy in his Star formation study. His work in Stellar mass tackles topics such as Galaxy cluster which are related to areas like Tully–Fisher relation and Globular cluster. His Active galactic nucleus research incorporates themes from Stars, Spectroscopy, Line and Sample.
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UV Luminosity Functions at redshifts z~4 to z~10: 10000 Galaxies from HST Legacy Fields
R. J. Bouwens;G. D. Illingworth;P. A. Oesch;M. Trenti.
arXiv: Cosmology and Nongalactic Astrophysics (2014)
UV luminosity functions at redshifts z ∼ 4 to z ∼ 10: 10,000 galaxies from HST legacy fields
R.J. Bouwens;R.J. Bouwens;G.D. Illingworth;P.A. Oesch;P.A. Oesch;M. Trenti.
The Astrophysical Journal (2015)
GALAXY STELLAR MASS FUNCTIONS FROM ZFOURGE/CANDELS: AN EXCESS OF LOW-MASS GALAXIES SINCE z = 2 AND THE RAPID BUILDUP OF QUIESCENT GALAXIES*
Adam R. Tomczak;Ryan F. Quadri;Kim-Vy H. Tran;Ivo Labbe.
The Astrophysical Journal (2014)
The Most Luminous z~9-10 Galaxy Candidates yet Found: The Luminosity Function, Cosmic Star-Formation Rate, and the First Mass Density Estimate at 500 Myr
P. A. Oesch;R. J. Bouwens;G. D. Illingworth;I. Labbe.
arXiv: Cosmology and Nongalactic Astrophysics (2013)
A Remarkably Luminous Galaxy at z=11.1 Measured with Hubble Space Telescope Grism Spectroscopy
P.A. Oesch;G. Brammer;P.G. van Dokkum;G.D. Illingworth.
The Astrophysical Journal (2016)
THE MOST LUMINOUS z ∼ 9-10 GALAXY CANDIDATES YET FOUND: THE LUMINOSITY FUNCTION, COSMIC STAR-FORMATION RATE, AND THE FIRST MASS DENSITY ESTIMATE AT 500 Myr*
P. A. Oesch;P. A. Oesch;R. J. Bouwens;G. D. Illingworth;I. Labbé.
The Astrophysical Journal (2014)
Globular Clusters in Virgo Ellipticals: Unexpected Results for Giants, Dwarfs, and Nuclei from ACS Imaging
Jay Strader;Jean P. Brodie;Lee Spitler;Michael A. Beasley.
arXiv: Astrophysics (2005)
The SFR-M-* relation and empirical star formation histories from ZFOURGE at 0.5 < z < 4
Adam R. Tomczak;Adam R. Tomczak;Ryan F. Quadri;Kim-Vy H. Tran;Ivo Labbé.
The Astrophysical Journal (2016)
A supermassive black hole in an ultra-compact dwarf galaxy
Anil C. Seth;Remco van den Bosch;Steffen Mieske;Holger Baumgardt.
Nature (2014)
Quantifying the coexistence of massive black holes and dense nuclear star clusters
Alister W. Graham;Lee R. Spitler.
Monthly Notices of the Royal Astronomical Society (2009)
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