A Spectroscopic Road Map for Cosmic Frontier: DESI, DESI-II, Stage-5
暂无分享,去创建一个
A. Myers | O. Lahav | J. Kneib | A. Bolton | D. Lang | A. Leauthaud | J. Newman | N. Padmanabhan | N. Palanque-Delabrouille | D. Schlegel | H. Seo | J. Prochaska | L. Infante | A. Palmese | J. DeRose | R. Wechsler | E. Buckley-Geer | P. Doel | A. Drlica-Wagner | G. Gutiérrez | M. Schubnell | G. Tarlé | S. BenZvi | J. Kollmeier | P. Mcdonald | M. Soares-Santos | P. Nugent | P. Martini | A. Kim | J. Simon | G. Aldering | C. Baltay | A. Raichoor | U. Seljak | A. Dey | G. Blanc | R. Besuner | D. Huterer | P. Jelinsky | S. Kent | A. Kremin | M. Landriau | M. Levi | E. Linder | C. Poppett | J. Silber | M. Valluri | Z. Slepian | A. Bonaca | S. Ferraro | D. Karagiannis | E. Schaan | N. Weaverdyck | J. Guy | Daniel Green | Noah Sailer | D. Brooks | C. Miller | M. White | Zhengliang Cai | Xiaohui Fan | S. Ramírez | C. Magneville | Ch. Yèche | R. Zhou | Dionysios Karagiannis
[1] E. Linder,et al. Constraining Scale Dependent Growth with Redshift Surveys , 2022, 2208.10508.
[2] A. Myers,et al. Target Selection and Validation of DESI Emission Line Galaxies , 2022, The Astronomical Journal.
[3] Sergey E. Koposov,et al. The Target Selection Pipeline for the Dark Energy Spectroscopic Instrument , 2022, 2208.08518.
[4] A. Myers,et al. The DESI Bright Galaxy Survey: Final Target Selection, Design, and Validation , 2022, The Astronomical Journal.
[5] A. Myers,et al. Target Selection and Validation of DESI Luminous Red Galaxies , 2022, Astronomical Journal.
[6] A. Myers,et al. Target Selection and Validation of DESI Quasars , 2022, The Astrophysical Journal.
[7] K. Liao,et al. Strongly Lensed Transient Sources: A Review , 2022, 2207.13489.
[8] P. J. Richards,et al. Gaia Data Release 3. Summary of the content and survey properties , 2022, Astronomy & Astrophysics.
[9] O. Philcox. Probing Parity-Violation with the Four-Point Correlation Function of BOSS Galaxies , 2022, 2206.04227.
[10] R. Cahn,et al. Measurement of Parity-Odd Modes in the Large-Scale 4-Point Correlation Function of SDSS BOSS DR12 CMASS and LOWZ Galaxies , 2022, 2206.03625.
[11] A. Barreira. Can we actually constrain $f_{\rm NL}$ using the scale-dependent bias effect? An illustration of the impact of galaxy bias uncertainties using the BOSS DR12 galaxy power spectrum , 2022, 2205.05673.
[12] M. White,et al. Cosmological analysis of three-dimensional BOSS galaxy clustering and Planck CMB lensing cross correlations via Lagrangian perturbation theory , 2022, Journal of Cosmology and Astroparticle Physics.
[13] M. Sullivan,et al. Snowmass2021 Cosmic Frontier White Paper: Enabling Flagship Dark Energy Experiments to Reach their Full Potential , 2022, 2204.01992.
[14] Devendra Singh Chaplot,et al. Overleaf Example , 2022 .
[15] Duncan A. Brown,et al. Snowmass2021 Cosmic Frontier White Paper: Future Gravitational-Wave Detector Facilities , 2022, 2203.08228.
[16] R. Wechsler,et al. Snowmass2021 Theory Frontier White Paper: Data-Driven Cosmology , 2022, 2203.07946.
[17] Zachary J. Weiner,et al. The Physics of Light Relics , 2022, 2203.07943.
[18] Sergey E. Koposov,et al. Snowmass2021 Cosmic Frontier White Paper: Prospects for obtaining Dark Matter Constraints with DESI , 2022, 2203.07491.
[19] A. Slosar,et al. Snowmass2021 Cosmic Frontier White Paper: Cosmology and Fundamental Physics from the three-dimensional Large Scale Structure , 2022, 2203.07506.
[20] Synergy between cosmological and laboratory searches in neutrino physics: a white paper , 2022, 2203.07377.
[21] A. Leauthaud,et al. Snowmass2021 Cosmic Frontier White Paper: Dark Matter Physics from Halo Measurements , 2022, 2203.07354.
[22] Andrew P. Hearin,et al. Snowmass2021 Cosmic Frontier White Paper: High Density Galaxy Clustering in the Regime of Cosmic Acceleration , 2022, 2203.07291.
[23] J. Newman,et al. Snowmass2021 Cosmic Frontier White Paper: Rubin Observatory after LSST , 2022, 2203.07220.
[24] X. Siemens,et al. Snowmass2021 Cosmic Frontier White Paper: Fundamental Physics and Beyond the Standard Model , 2022, 2203.06240.
[25] Duncan A. Brown,et al. Snowmass2021 Cosmic Frontier White Paper: Observational Facilities to Study Dark Matter , 2022, 2203.06200.
[26] Ryan E. Keeley,et al. Cosmology Intertwined: A Review of the Particle Physics, Astrophysics, and Cosmology Associated with the Cosmological Tensions and Anomalies , 2022, Journal of High Energy Astrophysics.
[27] G. Hinshaw,et al. Detection of Cosmological 21 cm Emission with the Canadian Hydrogen Intensity Mapping Experiment , 2022, The Astrophysical Journal.
[28] V. Poulin,et al. Improved cosmological constraints on the neutrino mass and lifetime , 2021, Journal of High Energy Physics.
[29] G. Zamorani,et al. COSMOS2020: A Panchromatic View of the Universe to z ∼ 10 from Two Complementary Catalogs , 2021, The Astrophysical Journal Supplement Series.
[30] D. Green,et al. Cosmological implications of axion-matter couplings , 2021, Journal of Cosmology and Astroparticle Physics.
[31] P. Hopkins,et al. Shapes of Milky-Way-mass galaxies with Self-Interacting Dark Matter , 2021, Monthly Notices of the Royal Astronomical Society.
[32] R. Cahn,et al. Test for Cosmological Parity Violation Using the 3D Distribution of Galaxies. , 2021, Physical review letters.
[33] Duncan A. Brown,et al. A Horizon Study for Cosmic Explorer: Science, Observatories, and Community , 2021, 2109.09882.
[34] D. Green,et al. Neutrino interactions in the late universe , 2021, Journal of High Energy Physics.
[35] L. Knox,et al. The Physical Origin of Dark Energy Constraints from Rubin Observatory and CMB-S4 Lensing Tomography , 2021, 2108.02801.
[36] Z. Slepian,et al. Clustering in massive neutrino cosmologies via Eulerian Perturbation Theory , 2021, Journal of Cosmology and Astroparticle Physics.
[37] M. White,et al. Cosmology at high redshift — a probe of fundamental physics , 2021, Journal of Cosmology and Astroparticle Physics.
[38] C. Tao,et al. The Twins Embedding of Type Ia Supernovae. I. The Diversity of Spectra at Maximum Light , 2021, The Astrophysical Journal.
[39] C. Tao,et al. The Twins Embedding of Type Ia Supernovae. II. Improving Cosmological Distance Estimates , 2021, The Astrophysical Journal.
[40] J. Frieman,et al. Dark Energy Survey Year 3 results: redshift calibration of the weak lensing source galaxies , 2020, Monthly Notices of the Royal Astronomical Society.
[41] M. Vargas-Magaña,et al. Towards testing the theory of gravity with DESI: summary statistics, model predictions and future simulation requirements , 2020, Journal of Cosmology and Astroparticle Physics.
[42] Alex Drlica-Wagner,et al. Characterization of skipper CCDs for cosmological applications , 2020, Astronomical Telescopes + Instrumentation.
[43] M. Drewes,et al. Towards a precision calculation of $N_{\rm eff}$ in the Standard Model II: Neutrino decoupling in the presence of flavour oscillations and finite-temperature QED , 2020, 2012.02726.
[44] Z. Slepian,et al. A Non-Degenerate Neutrino Mass Signature in the Galaxy Bispectrum , 2020, 2011.00899.
[45] A. Kim,et al. Be It Unresolved: Measuring Time Delays from Lensed Supernovae , 2020, The Astrophysical Journal.
[46] J. Kneib,et al. The completed SDSS-IV extended Baryon Oscillation Spectroscopic Survey: a catalogue of strong galaxy–galaxy lens candidates , 2020, 2007.09006.
[47] A. Cimatti,et al. HST Grism-derived Forecasts for Future Galaxy Redshift Surveys , 2020, The Astrophysical Journal.
[48] Y.Fujii,et al. Overview of KAGRA: Detector design and construction history , 2020, Progress of Theoretical and Experimental Physics.
[49] A. Palmese,et al. Probing gravity and growth of structure with gravitational waves and galaxies’ peculiar velocity , 2020, Physical Review D.
[50] G. Bernstein,et al. Propagating sample variance uncertainties in redshift calibration: simulations, theory, and application to the COSMOS2015 data , 2020, Monthly Notices of the Royal Astronomical Society.
[51] E. Linder,et al. Exploring early and late cosmology with next generation surveys , 2020, Physical Review D.
[52] A. Kim,et al. Complementarity of peculiar velocity surveys and redshift space distortions for testing gravity , 2019, Physical Review D.
[53] Y. N. Liu,et al. Multi-messenger Observations of a Binary Neutron Star Merger , 2019, Proceedings of Multifrequency Behaviour of High Energy Cosmic Sources - XIII — PoS(MULTIF2019).
[54] P. J. Richards,et al. Gaia Early Data Release 3 Summary of the contents and survey properties , 2020 .
[55] Adam D. Myers,et al. Astro2020 APC White Paper: The MegaMapper: a z > 2 Spectroscopic Instrument for the Study of Inflation and Dark Energy , 2019, 1907.11171.
[56] Ting Li,et al. The Maunakea Spectroscopic Explorer , 2019, 1907.07192.
[57] J. Rhodes,et al. FOBOS: A Next-Generation Spectroscopic Facility at the W. M. Keck Observatory , 2019, 1907.07195.
[58] J. Brinchmann,et al. SpecTel: A 10-12 meter class Spectroscopic Survey Telescope , 2019, 1907.06797.
[59] F. Beutler,et al. Primordial features from linear to nonlinear scales , 2019, 1906.08758.
[60] R. B. Barreiro,et al. Planck 2018 results. IX. Constraints on primordial non-Gaussianity , 2019, 1905.05697.
[61] Christopher W. Stubbs,et al. Report on LSST Next-generation Instrumentation Workshop, April 11, 12 2019 , 2019, 1905.04669.
[62] M. White,et al. Cosmology with dropout selection: straw-man surveys & CMB lensing , 2019, Journal of Cosmology and Astroparticle Physics.
[63] Cora Dvorkin,et al. Scratches from the Past: Inflationary Archaeology through Features in the Power Spectrum of Primordial Fluctuations , 2019 .
[64] Michelle Lochner,et al. Wide-field Multi-object Spectroscopy to Enhance Dark Energy Science from LSST Thematic , 2019 .
[65] Michelle Lochner,et al. Deep Multi-object Spectroscopy to Enhance Dark Energy Science from LSST , 2019, 1903.09325.
[66] Julian Borrill,et al. Inflation and Dark Energy from spectroscopy at $z>2$ , 2019, 1903.09208.
[67] A. Slosar,et al. Testing Gravity Using Type Ia Supernovae Discovered by Next-Generation Wide-Field Imaging Surveys , 2019, 1903.07652.
[68] Benjamin Rose,et al. Messengers from the Early Universe: Cosmic Neutrinos and Other Light Relics , 2019, 1903.04763.
[69] Eleonora Di Valentino,et al. Gravitational wave cosmology and astrophysics with large spectroscopic galaxy surveys , 2019, 1903.04730.
[70] Benjamin Rose,et al. Dark Matter Science in the Era of LSST , 2019, 1903.04425.
[71] A. Bolton,et al. Astrophysical Tests of Dark Matter with Maunakea Spectroscopic Explorer , 2019, 1903.03155.
[72] Nathan Golovich,et al. Probing the Fundamental Nature of Dark Matter with the Large Synoptic Survey Telescope , 2019, 1902.01055.
[73] S. Matarrese,et al. Primordial Non-Gaussianity , 2018, 1812.08197.
[74] Kendrick M. Smith,et al. Transverse Velocities with the Moving Lens Effect. , 2018, Physical review letters.
[75] P. Nugent,et al. Rates and Properties of Supernovae Strongly Gravitationally Lensed by Elliptical Galaxies in Time-domain Imaging Surveys , 2018, The Astrophysical Journal Supplement Series.
[76] Adam D. Myers,et al. Overview of the DESI Legacy Imaging Surveys , 2018, The Astronomical Journal.
[77] Eduardo Serrano,et al. LSST: From Science Drivers to Reference Design and Anticipated Data Products , 2008, The Astrophysical Journal.
[78] Simone Ferraro,et al. KSZ tomography and the bispectrum , 2018, 1810.13423.
[79] Simone Ferraro,et al. Toward neutrino mass from cosmology without optical depth information , 2018, Physical Review D.
[80] Brian Keating,et al. The Simons Observatory: instrument overview , 2018, Astronomical Telescopes + Instrumentation.
[81] A. Myers,et al. Quasars Probing Quasars. X. The Quasar Pair Spectral Database , 2018, The Astrophysical Journal Supplement Series.
[82] M. Buckley,et al. Gravitational probes of dark matter physics , 2017, Physics Reports.
[83] Uros Seljak,et al. Parameter constraints from cross-correlation of CMB lensing with galaxy clustering , 2017, Physical Review D.
[84] J. Rhodes,et al. Predicting Hα emission-line galaxy counts for future galaxy redshift surveys , 2017, 1710.00833.
[85] M. Blomqvist,et al. The SDSS-DR12 large-scale cross-correlation of damped Lyman alpha systems with the Lyman alpha forest , 2017, 1709.00889.
[86] T. Nagao,et al. Systematic Identification of LAEs for Visible Exploration and Reionization Research Using Subaru HSC (SILVERRUSH). I. Program strategy and clustering properties of ∼2000 Lyα emitters at z = 6–7 over the 0.3–0.5 Gpc2 survey area , 2017, 1704.07455.
[87] A. Bolton,et al. The Sloan Lens ACS Survey. XIII. Discovery of 40 New Galaxy-scale Strong Lenses , 2017, 1711.00072.
[88] B. Metzger,et al. Origin of the heavy elements in binary neutron-star mergers from a gravitational-wave event , 2017, Nature.
[89] Texas Tech University,et al. Multi-messenger observations of a binary neutron star merger , 2017, 1710.05833.
[90] M. White,et al. Modeling CMB lensing cross correlations with CLEFT , 2017, 1706.03173.
[91] Mohammad Akhlaghi,et al. Great Optically Luminous Dropout Research Using Subaru HSC (GOLDRUSH). I. UV Luminosity Functions at $z \sim 4-7$ Derived with the Half-Million Dropouts on the 100 deg$^2$ Sky , 2017, 1704.06004.
[92] W. Percival,et al. The SDSS-IV Extended Baryon Oscillation Spectroscopic Survey: final Emission Line Galaxy Target Selection , 2017, 1704.00338.
[93] A. Raccanelli. Gravitational wave astronomy with radio galaxy surveys , 2016, 1609.09377.
[94] Z. Cai,et al. Mapping the Most Massive Overdensities through Hydrogen (MAMMOTH). II. Discovery of the Extremely Massive Overdensity BOSS1441 at z = 2.32 , 2016, 1609.02913.
[95] M. Jarvis,et al. Lyman-break galaxies , 2017 .
[96] O. Dor'e,et al. Biasing and the search for primordial non-Gaussianity beyond the local type , 2016, 1612.06366.
[97] E. Pajer,et al. How Gaussian can our Universe be? , 2016, 1612.00033.
[98] P. Meerburg,et al. Prospects for cosmological collider physics , 2016, 1610.06559.
[99] Adrian T. Lee,et al. CMB-S4 Science Book, First Edition , 2016, 1610.02743.
[100] Enectali Figueroa-Feliciano,et al. Dark Sectors 2016 Workshop: Community Report , 2016, 1608.08632.
[101] S. Bird,et al. Determining the progenitors of merging black-hole binaries , 2016, 1605.01405.
[102] K. Shimasaku,et al. BRIGHT AND FAINT ENDS OF Lyα LUMINOSITY FUNCTIONS AT z = 2 DETERMINED BY THE SUBARU SURVEY: IMPLICATIONS FOR AGNs, MAGNIFICATION BIAS, AND ISM H I EVOLUTION , 2015, 1512.01854.
[103] A. Myers,et al. THE SDSS-IV EXTENDED BARYON OSCILLATION SPECTROSCOPIC SURVEY: LUMINOUS RED GALAXY TARGET SELECTION , 2015, 1508.04478.
[104] Adam A. Miller,et al. THE SDSS-IV EXTENDED BARYON OSCILLATION SPECTROSCOPIC SURVEY: QUASAR TARGET SELECTION , 2015, 1508.04472.
[105] Juan Maldacena,et al. Cosmological Collider Physics , 2015, 1503.08043.
[106] S. Klimenko,et al. Advanced LIGO , 2014, 1411.4547.
[107] Matias Zaldarriaga,et al. Testing Inflation with Large Scale Structure: Connecting Hopes with Reality , 2014, 1412.4671.
[108] Adam D. Myers,et al. THE DISCOVERY OF THE FIRST “CHANGING LOOK” QUASAR: NEW INSIGHTS INTO THE PHYSICS AND PHENOMENOLOGY OF ACTIVE GALACTIC NUCLEI , 2014, 1412.2136.
[109] C. Broeck,et al. Advanced Virgo: a second-generation interferometric gravitational wave detector , 2014, 1408.3978.
[110] A. Bolton,et al. Inference of the cold dark matter substructure mass function at z = 0.2 using strong gravitational lenses , 2014, 1405.3666.
[111] Abhilash Mishra,et al. Inflationary Freedom and Cosmological Neutrino Constraints , 2014, 1401.7022.
[112] Judith G. Cohen,et al. Extragalactic science, cosmology, and Galactic archaeology with the Subaru Prime Focus Spectrograph , 2012, 1206.0737.
[113] Dan Maoz,et al. Discovery of 90 Type Ia supernovae among 700 000 Sloan spectra: the Type Ia supernova rate versus galaxy mass and star formation rate at redshift ∼0.1 , 2012, 1209.0008.
[114] A. Myers,et al. BROAD ABSORPTION LINE DISAPPEARANCE ON MULTI-YEAR TIMESCALES IN A LARGE QUASAR SAMPLE , 2012, 1208.0836.
[115] L. G. Boté,et al. Laser Interferometer Space Antenna , 2012 .
[116] J. Frieman,et al. THE SLOAN DIGITAL SKY SURVEY QUASAR LENS SEARCH. V. FINAL CATALOG FROM THE SEVENTH DATA RELEASE , 2012, 1203.1087.
[117] Adam D. Myers,et al. THE SDSS-III BARYON OSCILLATION SPECTROSCOPIC SURVEY: QUASAR TARGET SELECTION FOR DATA RELEASE NINE , 2011, 1105.0606.
[118] Alice E. Shapley,et al. Physical Properties of Galaxies from z = 2–4 , 2011, 1107.5060.
[119] P. Dubath,et al. The Impact of Gaia and LSST on Binaries and Exoplanets , 2011, Proceedings of the International Astronomical Union.
[120] V. Mukhanov. INFLATION: THEORY AND OBSERVATIONS , 2010 .
[121] Kevin Bandura,et al. An intensity map of hydrogen 21-cm emission at redshift z ≈ 0.8 , 2010, Nature.
[122] J. Prochaska,et al. GALEX FAR-ULTRAVIOLET COLOR SELECTION OF UV-BRIGHT HIGH-REDSHIFT QUASARS , 2010, 1004.3347.
[123] B. Jain,et al. Cosmological Tests of Gravity , 2010, 1004.3294.
[124] Yi Wang,et al. Quasi-Single Field Inflation and Non-Gaussianities , 2009, 0911.3380.
[125] D. Stinebring,et al. The International Pulsar Timing Array project: using pulsars as a gravitational wave detector , 2009, 0911.5206.
[126] A. Bolton,et al. Detection of a dark substructure through gravitational imaging , 2009, 0910.0760.
[127] T. Treu,et al. LYMAN BREAK GALAXIES AT z ≈ 1.8–2.8: GALEX/NUV IMAGING OF THE SUBARU DEEP FIELD , 2009, 0902.4712.
[128] T. Boroson,et al. A candidate sub-parsec supermassive binary black hole system , 2009, Nature.
[129] Robert J. Brunner,et al. The 2dF-SDSS LRG and QSO Survey: the spectroscopic QSO catalogue , 2008, 0810.4955.
[130] M. Colpi,et al. SDSSJ092712.65+294344.0: a candidate massive black hole binary , 2008, 0809.3446.
[131] Roy Maartens,et al. Dark Energy and Modified Gravity , 2008, 0811.4132.
[132] M. Eracleous,et al. SDSS J092712.65+294344.0: RECOILING BLACK HOLE OR A SUBPARSEC BINARY CANDIDATE? , 2008, 0809.3262.
[133] S. Komossa,et al. A Recoiling Supermassive Black Hole in the Quasar SDSS J092712.65+294344.0? , 2008, 0804.4585.
[134] A. Bolton,et al. The Sloan Lens ACS Survey. VI. Discovery and Analysis of a Double Einstein Ring , 2008, 0801.1555.
[135] D. Huterer,et al. Imprints of primordial non-Gaussianities on large-scale structure: Scale-dependent bias and abundance of virialized objects , 2007, 0710.4560.
[136] The HI content of star-forming galaxies at z = 0.24 , 2007, astro-ph/0701668.
[137] A. Vecchio,et al. The LISA verification binaries , 2006, astro-ph/0605227.
[138] Matias Zaldarriaga,et al. Single field consistency relation for the 3-point function , 2004 .
[139] M. A. Strauss,et al. A gravitationally lensed quasar with quadruple images separated by 14.62 arcseconds , 2003, Nature.
[140] J. Maldacena. Non-Gaussian features of primordial fluctuations in single field inflationary models , 2002, astro-ph/0210603.
[141] V. Narayanan,et al. Spectroscopic Target Selection in the Sloan Digital Sky Survey: The Main Galaxy Sample , 2002, astro-ph/0206225.
[142] M. SubbaRao,et al. Spectroscopic Target Selection in the Sloan Digital Sky Survey: The Quasar Sample , 2002, astro-ph/0202251.
[143] V. Narayanan,et al. Evidence for Reionization at z ∼ 6: Detection of a Gunn-Peterson Trough in a z = 6.28 Quasar , 2001, astro-ph/0108097.
[144] A. Fruchter,et al. HIGH-REDSHIFT GALAXIES IN THE HUBBLE DEEP FIELD : COLOUR SELECTION AND STAR FORMATION HISTORY TO Z 4 , 1996, astro-ph/9607172.
[145] Piero Madau,et al. Radiative transfer in a clumpy universe: The colors of high-redshift galaxies , 1995 .
[146] Joshua R. Smith,et al. LIGO: the Laser Interferometer Gravitational-Wave Observatory , 1992, Science.
[147] Konrad Kuijken,et al. The mass distribution in the galactic disc – II. Determination of the surface mass density of the galactic disc near the Sun , 1989 .
[148] B. Schutz. Determining the Hubble constant from gravitational wave observations , 1986, Nature.
[149] S. Gull,et al. A test for transverse motions of clusters of galaxies , 1983, Nature.