TC
Tsang Keung Chan
astro-ph.GAastro-ph.COastro-ph.HEastro-ph.IMastro-ph.SRgr-qcgalaxiesphysics.plasm-phastro-ph.EPcs.DC
On Valency
published · living versionsW_unu28bt7·v1 · currentpublished
Why a Multi-Cycle Treasury Program is Essential to Maximize JWST's Scientific Contributions to Galaxy Formation
with Genesis Community, Alice Shapley, Steven L. Finkelstein, Rachel S. Somerville +416
1 version
Preprints & journals
48 papers in the corpus · 2014–2026The Low-Mass Baryon Cycle in QUEST Dwarf Galaxies I: Sample definition and first results2608.15782v1 · Ava Polzin, Hsiao-Wen Chen, Zhijie Qu et al.2026 · 0 citationsarXiv
Emission line tracers of galactic outflows driven by stellar feedback in simulations of isolated disk galaxies2509.21295v1 · Elliot L. Howatson, Alexander J. Richings, Elke Roediger et al.2025 · 0 citationsarXiv
The HyLight model for hydrogen emission lines in simulated nebulae2509.20361v2 · Yuankang Liu, Tom Theuns, Tsang Keung Chan et al.2025 · 0 citationsarXiv
SPARCS -- combining radiation hydrodynamics with non-equilibrium metal chemistry in the SWIFT astrophysical code2508.13277v2 · Tsang Keung Chan, Alexander J. Richings, Tom Theuns et al.2025 · 0 citationsMon Not R Astron Soc (2026) Volume 546, Issue 2, February 2026, stag004
The Star Formation History and Evolution of the Ultra-Diffuse M81 Satellite F8D12507.13349v2 · Adam Smercina, Eric F. Bell, Benjamin F. Williams et al.2025 · 0 citationsarXiv
Cosmological Zoom-In Simulations of Milky Way Host Mass Dark Matter Halos with a Blue-Tilted Primordial Power Spectrum2412.16072v3 · Jianhao Wu, Tsang Keung Chan, Victor J. Forouhar Moreno2024 · 5 citationsPhys. Rev. D 112 (2025) 023512
A halo model for cosmological Lyman-limit systems2310.09228v1 · Tom Theuns, TK Chan (12023 · 7 citationsarXiv
SWIFT: A modern highly-parallel gravity and smoothed particle hydrodynamics solver for astrophysical and cosmological applications2305.13380v2 · Matthieu Schaller, Josh Borrow, Peter W. Draper et al.2023 · 124 citationsMNRAS, Volume 530, Issue 2, May 2024, Pages 2378-2419
The impact and response of minihalos and the inter-halo medium on cosmic reionization2305.04959v2 · Tsang Keung Chan, Alejandro Benitez-Llambay, Tom Theuns et al.2023 · 15 citationsMNRAS 528, 1296-1326 (2024)
Public data release of the FIRE-2 cosmological zoom-in simulations of galaxy formation2202.06969v4 · Andrew Wetzel, Christopher C. Hayward, Robyn E. Sanderson et al.2022 · 142 citationsarXiv
Hot-mode accretion and the physics of thin-disk galaxy formation2201.07235v2 · Zachary Hafen, Jonathan Stern, James Bullock et al.2022 · 95 citationsarXiv
The impact of cosmic rays on dynamical balance and disk-halo interaction in Lstar disk galaxies2110.06231v2 · T. K. Chan, Dusan Keres, Alexander B. Gurvich et al.2021 · 35 citationsarXiv
The In-situ Origins of Dwarf Stellar Outskirts in FIRE-22109.05034v2 · Erin Kado-Fong, Robyn E. Sanderson, Jenny E. Greene et al.2021 · 20 citationsarXiv
Gas infall and radial transport in cosmological simulations of Milky Way-mass disks2105.11472v2 · Cameron Trapp, Dusan Keres, T.K. Chan et al.2021 · 66 citations2022MNRAS.509.4149T
Smoothed Particle Radiation Hydrodynamics: Two-Moment method with Local Eddington Tensor Closure2102.08404v2 · T. K. Chan, Tom Theuns, Richard Bower et al.2021 · 15 citationsarXiv
Which AGN Jets Quench Star Formation in Massive Galaxies?2102.02206v1 · Kung-Yi Su, Philip F. Hopkins, Greg L. Bryan et al.2021 · 77 citationsarXiv
Virial shocks are suppressed in cosmic ray-dominated galaxy halos2011.04706v1 · Suoqing Ji, Dusan Keres, T. K. Chan et al.2020 · 30 citationsarXiv
Virialization of the inner CGM in the FIRE simulations and implications for galaxy discs, star formation and feedback2006.13976v2 · Jonathan Stern, Claude-Andr'e Faucher-Giguere, Drummond Fielding et al.2020 · 130 citationsarXiv
Pressure balance in the multiphase ISM of cosmologically simulated disk galaxies2005.12916v2 · Alexander B. Gurvich, Claude-Andr'e Faucher-Giguere, Alexander J. Richings et al.2020 · 50 citationsarXiv
A dark matter profile to model diverse feedback-induced core sizes of CDM haloes2004.10817v3 · Alexandres Lazar, James S. Bullock, Michael Boylan-Kolchin et al.2020 · 157 citationsarXiv
Effects of Different Cosmic Ray Transport Models on Galaxy Formation2004.02897v2 · Philip F. Hopkins, T. K. Chan (ICC Durham), Jonathan Squire (Otago) et al.2020 · 69 citationsMNRAS, 2021, 501, 3, 3663
Testing Physical Models for Cosmic Ray Transport Coefficients on Galactic Scales: Self-Confinement and Extrinsic Turbulence at GeV Energies2002.06211v2 · Philip F. Hopkins, Jonathan Squire (Otago), T. K. Chan (ICC Durham) et al.2020 · 103 citationsMNRAS, 2021, 501, 3
Cosmic-Ray Driven Outflows to Mpc Scales from Galaxies2002.02462v2 · Philip F. Hopkins, T. K. Chan (Durham), Suoqing Ji et al.2020 · 83 citationsMNRAS, 2021, 501, 3
The Fates of the Circumgalactic Medium in the FIRE Simulations1910.01123v1 · Z. Hafen, C.-A. Faucher-Giguere, D. Angles-Alcazar et al.2019 · 80 citationsarXiv
Properties of the Circumgalactic Medium in Cosmic Ray-Dominated Galaxy Halos1909.00003v2 · Suoqing Ji, T. K. Chan, Cameron B. Hummels et al.2019 · 162 citationsarXiv
Dark and luminous satellites of LMC-mass galaxies in the FIRE simulations1907.02979v2 · Ethan D. Jahn, Laura V. Sales, Andrew Wetzel et al.2019 · 51 citationsarXiv
But What About... Cosmic Rays, Magnetic Fields, Conduction, & Viscosity in Galaxy Formation1905.04321v2 · Philip F. Hopkins, T. K. Chan (UCSD), Shea Garrison-Kimmel et al.2019 · 190 citationsMNRAS, 2020, 492, 3465
Star formation histories of dwarf galaxies in the FIRE simulations: dependence on mass and Local Group environment1903.10515v1 · Shea Garrison-Kimmel, Andrew Wetzel, Phillip F. Hopkins et al.2019 · 132 citationsarXiv
Cosmic ray feedback in the FIRE simulations: constraining cosmic ray propagation with GeV gamma ray emission1812.10496v2 · T.K. Chan, D. Keres, P.F. Hopkins et al.2018 · 160 citationsMNRAS, 488 (2019), 3, 3716
Cosmic Rays or Turbulence can Suppress Cooling Flows (Where Thermal Heating or Momentum Injection Fail)1812.03997v1 · Kung-Yi Su, Philip F. Hopkins, Christopher C. Hayward et al.2018 · 58 citationsarXiv
The Origins of the Circumgalactic Medium in the FIRE Simulations1811.11753v3 · Z. Hafen, C.-A. Faucher-Giguere, D. Angles-Alcazar et al.2018 · 201 citationsarXiv
The origin of ultra diffuse galaxies: stellar feedback and quenching.30573924 · Chan, T K, Kereš, D, Wetzel, A et al.2023 · 184 citationsMonthly notices of the Royal Astronomical Society. 2018;478(1):906-925
Gas kinematics in FIRE simulated galaxies compared to spatially unresolved HI observations.30713356 · El-Badry, Kareem, Bradford, Jeremy, Quataert, Eliot et al.2023 · 59 citationsMonthly notices of the Royal Astronomical Society. 2018;477(2):1536-1548
Stacked star formation rate profiles of bursty galaxies exhibit 'coherent' star formation1709.10099v1 · Matthew E. Orr, Christopher C. Hayward, Erica J. Nelson et al.2017 · 24 citationsarXiv
Gas kinematics, morphology, and angular momentum in the FIRE simulations1705.10321v2 · Kareem El-Badry, Eliot Quataert, Andrew Wetzel et al.2017 · 197 citationsarXiv
On the deuterium abundance and the importance of stellar mass loss in the interstellar and intergalactic medium1704.08254v2 · Freeke van de Voort (1, Eliot Quataert, Claude-Andr'e Faucher-Giguere et al.2017 · 15 citationsMNRAS, 2018, Volume 477, Issue 1, p.80-92
FIRE-2 Simulations: Physics versus Numerics in Galaxy Formation1702.06148v2 · Philip F Hopkins, Andrew Wetzel (Davis), Dusan Keres (UCSD) et al.2017 · 1,127 citationsMNRAS, 2018, 480, 800
What FIREs Up Star Formation: the Emergence of the Kennicutt-Schmidt Law from Feedback1701.01788v3 · Matthew E. Orr, Christopher C. Hayward, Philip Hopkins et al.2017 · 127 citationsarXiv
Perturbative solution to the Lane-Emden equation: An eigenvalue approach1611.07202v1 · Kenny L. S. Yip, T. K. Chan, P. T. Leung2016 · 6 citationsarXiv
When the Jeans don't fit: How stellar feedback drives stellar kinematics and complicates dynamical modeling in low-mass galaxies1610.04232v2 · Kareem El-Badry, Andrew R. Wetzel, Marla Geha et al.2016 · 62 citationsarXiv
Low-Redshift Lyman Limit Systems as Diagnostics of Cosmological Inflows and Outflows1608.05712v2 · Z. Hafen, C.-A. Faucher-Giguere, D. Angles-Alcazar et al.2016 · 92 citationsMon Not R Astron Soc (2017) 469 (2): 2292-2304
Metal flows of the circumgalactic medium, and the metal budget in galactic halos1606.09252v2 · Alexander L. Muratov, Dusan Keres, Claude-Andre Faucher-Giguere et al.2016 · 170 citationsarXiv
The impact of stellar feedback on hot gas in galaxy haloes: the Sunyaev-Zel'dovich effect and soft X-ray emission1604.01397v2 · Freeke van de Voort (1, Eliot Quataert, Philip F. Hopkins et al.2016 · 57 citationsMNRAS, 2016, Volume 463, Issue 4, p.4533-4544
Universality and stationarity of the I-Love relation for self-bound stars1511.08566v1 · T. K. Chan, AtMa P. O. Chan, P. T. Leung2015 · 23 citationsPhys. Rev. D 93, 024033 (2016)
The Impact of Baryonic Physics on the Structure of Dark Matter Halos: the View from the FIRE Cosmological Simulations1507.02282v2 · T. K. Chan, D. Keres, J. Onorbe et al.2015 · 373 citationsarXiv
I-Love relation for incompressible stars and realistic stars1411.7141v1 · T.K. Chan, Atma P.O. Chan, P.T. Leung2014 · 32 citationsPhysical Review D 91, 044017 (2015)
Unveiling the universality of I-Love-Q relations1410.8271v2 · Y.-H. Sham, T. K. Chan, L.-M. Lin et al.2014 · 40 citationsAstrophys.J.798,121,2015
Multipolar universal relations between f-mode frequency and tidal deformability of compact stars1408.3789v2 · T. K. Chan, Y.-H. Sham, P. T. Leung et al.2014 · 101 citationsPhys.Rev.D90,124023,2014
Career total: 63 works. 48 are in this corpus.
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