| 1 |
Tsuyoshi Terai |
Subaru Telescope, National Astronomical Observatory of Japan |
Water Ice Abundance on Trans-Neptunian Objects |
High Latitude Wide Area Survey |
solar system astronomy |
2023
|
| 2 |
Aaron Meisner |
NSF's NOIRLab |
Revealing the Milky Way's Thick Disk and Halo Ultracool Dwarf Populations with Roman |
High Latitude Wide Area Survey |
stellar physics and stellar types |
2023
|
| 3 |
Ash Danehkar |
Eureka Scientific |
Emission-line Diagnostics of Galaxies at Cosmic Noon with the Roman Space Telescope High Latitude Spectroscopic Survey |
High Latitude Wide Area Survey |
galaxies, stellar populations and the interstellar medium |
2023
|
| 4 |
Yuichi Harikane |
University of Tokyo |
Subaru-Roman Synergistic Galaxy Survey-I: Overview |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
galaxies, the intergalactic medium and the circumgalactic medium, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 5 |
John Blakeslee |
NSF's NOIRLab |
Gathering Galaxy Distances in Abundance with Roman Wide-Area Data |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe |
2023
|
| 6 |
Eric Perlman |
Florida Institute of Technology |
Using Supernovae to find faint galaxies in the High Latitude Time Domain Survey: An Appeal to 'save the pixels' After a Supernova |
High Latitude Wide Area Survey |
large scale structures, galaxy evolution, galaxies, stellar physics and stellar types |
2023
|
| 7 |
James Rhoads |
NASA GSFC |
Deep-Wide Spectroscopy for Galaxy Evolution and Reionization |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
galaxies, the intergalactic medium and the circumgalactic medium, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 8 |
Keunho J. Kim |
University of Cincinnati |
Strongly lensed [O III] emitters at Cosmic Noon with Roman: Characterizing extreme emission line galaxies on star cluster complex scales (100 pc) |
High Latitude Wide Area Survey |
stellar populations and the interstellar medium, galaxies |
2023
|
| 9 |
Yuichi Harikane |
University of Tokyo |
Studying the Cosmic Dawn at z>10 with Roman |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
galaxies |
2023
|
| 10 |
Ben Rose |
Baylor University |
Roman CCS White Paper: Optimizing the Cadence at Fixed Depth |
High Latitude Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, large scale structure of the universe |
2023
|
| 11 |
David Thilker |
Johns Hopkins University |
Optimizing Science Return with Synergy Between Roman's Core Community Surveys and the High-Resolution, UV-Optical CASTOR Mission |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
exoplanets and exoplanet formation, large scale structure of the universe, galaxies, stellar physics and stellar types |
2023
|
| 12 |
Keith Bechtol |
University of Wisconsin-Madison |
Coordinating Roman and Rubin for Cosmic Probes of Dark Matter with Resolved Stellar Populations |
High Latitude Wide Area Survey |
stellar populations and the interstellar medium, galaxies, large scale structure of the universe |
2023
|
| 13 |
Daniel Huber |
University of Hawai'i |
Asteroseismology with the Roman Galactic Bulge Time-Domain Survey |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 14 |
Arash Bahramian |
Curtin Institute of Radio Astronomy |
X-ray binaries, cataclysmic variables and transients in the Galactic bulge |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 15 |
Matthew Penny |
Louisiana State University |
Contiguity is Key: The length of the Roman Galactic Bulge Time Domain Survey seasons should be maximized |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 16 |
Bhavin Joshi |
Johns Hopkins University |
Tracing stellar mass assembly and emerging quiescence at cosmic noon: the case for deep imaging with all of Roman's wide filters in the HLTDS |
High Latitude Time Domain Survey |
galaxies, stellar physics and stellar types |
2023
|
| 17 |
Benjamin Williams |
University of Washington |
Resolved Stars in Nearby Galaxies with the HLWAS |
High Latitude Wide Area Survey |
stellar populations and the interstellar medium, galaxies, stellar physics and stellar types, the intergalactic medium and the circumgalactic medium, large scale structure of the universe |
2023
|
| 18 |
Aaron Yung |
NASA Goddard Space Flight Center |
A set of multi-tiered 'Wedding Cake' deep fields for galaxy evolution leveraging the HLWAS infrastructure |
High Latitude Wide Area Survey |
galaxies, exoplanets and exoplanet formation, large scale structure of the universe, supermassive black holes and active galaxies |
2023
|
| 19 |
Igor Andreoni |
University of Maryland |
Enabling Kilonova Science with Nancy Grace Roman Space Telescope |
High Latitude Time Domain Survey |
stellar physics and stellar types |
2023
|
| 20 |
Susana Deustua |
NIST |
Achieving Roman Requirements for Flux Calibration of the High Latitude Surveys |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations and the interstellar medium, galaxies, large scale structure of the universe |
2023
|
| 21 |
Mitchell Karmen |
Johns Hopkins University |
A Sweet Spot for Tidal Disruption Events with the Roman Space Telescope |
High Latitude Time Domain Survey |
supermassive black holes and active galaxies |
2023
|
| 22 |
Sean Terry |
University of California, Berkeley |
The Galactic Center with Roman |
Galactic Bulge Time Domain Survey |
supermassive black holes and active galaxies, stellar populations and the interstellar medium, stellar physics and stellar types |
2023
|
| 23 |
László Molnár |
Konkoly Observatory |
Asteroseismic sounding of bulge globular clusters |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 24 |
Rebekah Hounsell |
University of Maryland, Baltimore County |
Measuring Type Ia Supernovae Discovered in the Roman High Latitude Time Domain Survey |
High Latitude Time Domain Survey |
stellar physics and stellar types |
2023
|
| 25 |
Casey Lam |
UC Berkeley |
Characterizing the Galactic population of isolated black holes |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 26 |
Phillip Macias |
UC Santa Cruz |
Optimizing Uniquely-Roman Science in the HLTDS |
High Latitude Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 27 |
Bradford Benson |
University of Chicago |
Improving cosmological constraints from the Roman High Latitude Wide Area Survey by choosing its survey footprint to maximally overlap with the deep SPT-3G Survey |
High Latitude Wide Area Survey |
exoplanets and exoplanet formation, large scale structure of the universe, galaxies, the intergalactic medium and the circumgalactic medium |
2023
|
| 28 |
Jeffrey Newman |
U. Pittsburgh |
Cosmology with HLWAS Imaging and Rubin Observatory: Advantages of a Balanced Strategy |
High Latitude Wide Area Survey |
exoplanets and exoplanet formation, large scale structure of the universe, galaxies |
2023
|
| 29 |
Kris Pardo |
University of Southern California |
Gravitational Wave Detection with Relative Astrometry using Roman's Galactic Bulge Time Domain Survey |
Galactic Bulge Time Domain Survey |
supermassive black holes and active galaxies |
2023
|
| 30 |
Tansu Daylan |
Princeton University |
Searching for dark matter substructure: a deeper wide-area community survey for Roman |
High Latitude Wide Area Survey |
galaxies, large-scale structure of the universe |
2023
|
| 31 |
Jordan Mirocha |
JPL/Caltech |
Opportunities for galaxy ' 21-cm cross-correlations at high redshifts |
High Latitude Wide Area Survey |
galaxies, the intergalactic medium and the circumgalactic medium |
2023
|
| 32 |
Benjamin Rose |
Baylor University |
Considerations for Selecting Fields for the Roman High-latitude Time Domain Core Community Survey |
High Latitude Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, large scale structure of the universe |
2023
|
| 33 |
Benjamin Rose |
Baylor University |
Options to Increase the Coverage Area of Prism Time Series in the High-Latitude Time Domain Core Community Survey |
High Latitude Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, large scale structure of the universe |
2023
|
| 34 |
Robert Wilson |
NASA Goddard Space Flight Center |
The Demographics of Transiting Exoplanets across all Major Milky Way Environments |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar populations and the inter-stellar medium |
2023
|
| 35 |
Ori Fox |
Space Telescope Science Institute |
An Extended Time-Domain Survey (eTDS) to Detect High-z Transients, Trace the First Stars, and Probe the Epoch of Reionization |
High Latitude Time Domain Survey |
stellar physics and stellar types, galaxies, the intergalactic medium and the circumgalactic medium, large scale structure of the universe |
2023
|
| 36 |
David Bennett |
University of Maryland |
The Roman Galactic Exoplanet Survey (RGES) |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation |
2023
|
| 37 |
Bryan Holler |
Space Telescope Science Institute |
OBJECTS IN MIRROR ARE CLOSER THAN THEY APPEAR: The Roman Space Telescope as a Revolutionary Solar System Survey Machine |
High Latitude Wide Area Survey |
solar system astronomy |
2023
|
| 38 |
Federica Bianco |
University of Delaware |
Maximizing the scientific return of Roman and Rubin with a joint wide-sky observing strategy |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe, stellar physics and stellar types, stellar populations and the interstellar medium, supermassive black holes and active galaxies |
2023
|
| 39 |
Thomas Kupfer |
Texas Tech University |
The continuous cadence Roman Galactic Bulge survey |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 40 |
Gregory Rudnick |
University of Kansas |
Roman--Cosmic Noon: A Legacy Spectroscopic Survey of Massive Field and Proto-cluster Galaxies at 2 < z < 3 |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe |
2023
|
| 41 |
Eamonn Kerins |
University of Manchester |
Magnifying NASA Roman GBTDS exoplanet science with coordinated observations by ESA Euclid |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar populations and the interstellar medium |
2023
|
| 42 |
Yusei Koyama |
National Astronomical Observatory of Japan |
Subaru-Roman Synergetic Galaxy Survey-V: Synergy between Roman and ULTIMATE-Subaru |
High Latitude Wide Area Survey; High Latitude Time Domain Survey; Galactic Bulge Time Domain Survey |
galaxies, the intergalactic medium and the circumgalactic medium, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 43 |
Kumiko Morihana |
National Astronomical Observatory of Japan |
Search for faint Cataclysmic Variables at Galactic Bulge |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 44 |
Rachel Street |
Las Cumbres Observatory |
Maximizing science return by coordinating the survey strategies of Roman with Rubin, and other major facilities |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations |
2023
|
| 45 |
Guadalupe Tovar Mendoza |
University of Washington |
Enabling Stellar Flare Science in the Roman Galactic Bulge Survey: Cadence, Filters, and the Read-Out Strategy Matter |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types |
2023
|
| 46 |
Kristen Dage |
McGill University |
Extragalactic Star Cluster Science with the Nancy Grace Roman Space Telescope's High Latitude Wide Area Survey and the Vera C. Rubin Observatory |
High Latitude Wide Area Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, galaxies |
2023
|
| 47 |
P. Gandhi |
University of Southampton |
New Compact Object Binary Populations with Precision Astrometry |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types |
2023
|
| 48 |
Kathleen Kraemer |
Boston College |
Setting the Stage for Improving the Distance Ladder with Roman Core Community Surveys |
High Latitude Wide Area Survey; High Latitude Time Domain Survey; Galactic Bulge Time Domain Survey |
stellar populations and the interstellar medium, stellar physics and stellar types, galaxies, large scale structure of the universe |
2023
|
| 49 |
Greg Aldering |
Lawrence Berkeley National Lab |
Balanced Prism Plus Filter Cadence in the High Latitude Time Domain Survey Core Community Survey |
High Latitude Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, large scale structure of the universe |
2023
|
| 50 |
Yue Shen |
University of Illinois at Urbana-Champaign |
Discovery and Characterization of Galactic-scale Dual Supermassive Black Holes Across Cosmic Time |
High Latitude Wide Area Survey |
supermassive black holes and active galaxies |
2023
|
| 51 |
Eamonn Kerins |
University of Manchester |
RoSETZ: Roman Survey of the Earth Transit Zone - a SETI-optimized survey for habitable-zone exoplanets |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar populations and the interstellar medium |
2023
|
| 52 |
Samuel Grunblatt |
Johns Hopkins University |
Adding Fields Hosting Globular Clusters To The Galactic Bulge Time Domain Survey |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 53 |
Henry Ferguson |
Space Telescope Science Institute |
Figures of Merit for Roman Studies of Galaxy Evolution with Lookback Time |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe |
2023
|
| 54 |
Takahiro Sumi |
Osaka University |
Roman CCS White Paper: Galactic Bulge Time Domain Survey: Mass measurement of FFP with source color measurements |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation, large scale structure of the universe |
2023
|
| 55 |
Zolt'n Haiman |
Columbia University |
Massive Black Hole Binaries as LISA Precursors in the High Latitude Time Domain Survey |
High Latitude Time Domain Survey |
supermassive black holes and active galaxies |
2023
|
| 56 |
Arjun Dey |
NOIRLab |
RomAndromeda: The Roman Survey of the Andromeda Halo |
High Latitude Wide Area Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, galaxies, the intergalactic medium and the circumgalactic medium |
2023
|
| 57 |
B.W. Holwerda |
University of Louisville |
Detection and characterization of M-L-T-Y dwarfs belonging to the Milky Way Disks and Stellar Halo with the Roman Space Telescope |
High Latitude Wide Area Survey; High Latitude Time Domain Survey |
stellar populations and the interstellar medium, galaxies |
2023
|
| 58 |
Sebastian Gomez |
Space Telescope Science Institute |
Characterizing Superluminous Supernovae with Roman |
High Latitude Time Domain Survey |
stellar physics and stellar types |
2023
|
| 59 |
Jesse Han |
Harvard-Smithsonian Center for Astrophysics |
Next-generation All-sky Near-infrared Community surveY |
High Latitude Wide Area Survey |
solar system astronomy, stellar physics and stellar types, stellar populations and the interstellar medium, galaxies, the intergalactic medium and the circumgalactic medium, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 60 |
Tim Eifler |
University of Arizona |
Optimizing the Roman HLWAS |
High Latitude Wide Area Survey |
large scale structure of the universe |
2023
|
| 61 |
Takashi Moriya |
National Astronomical Observatory of Japan |
Identifying high-redshift pair-instability supernovae by adding sparse F213 filter observations |
High Latitude Time Domain Survey |
stellar physics and stellar types |
2023
|
| 62 |
Hironao Miyatake |
Nagoya University |
Subaru-Roman Synergetic Galaxy Survey-III: Cosmology with Large-scale Structure Measurements at z>4 using Lyman-break Galaxies and CMB Lensing |
High Latitude Wide Area Survey |
large scale structure of the universe |
2023
|
| 63 |
Morgan Fraser |
University College Dublin |
A complete survey of nearby galaxies for supernova progenitors with Roman |
High Latitude Time Domain Survey |
stellar physics and stellar types |
2023
|
| 64 |
Atsushi Nishizawa |
Gifu Shotoku Gakuen University |
Subaru-Roman Synergetic Galaxy Survey IV: HSC 16 Medium Band Filters survey |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe |
2023
|
| 65 |
Toru Yamada |
ISAS |
Low-mass SMBH at High Redshift: Deepest variability search for low-luminosity AGN |
High Latitude Time Domain Survey |
supermassive black holes and active galaxies |
2023
|
| 66 |
Ilhuiyolitzin Villicana Pedraza |
New Mexico State University |
Study of volcanic analogues in the Solar System |
High Latitude Wide Area Survey |
solar system astronomy, exoplanets and exoplanet formation |
2023
|
| 67 |
Jennifer C. Yee |
Center for Astrophysics, Harvard & Smithsonian |
The Scientific Discovery Space for the Roman Galactic Bulge Time Domain Survey |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation |
2023
|
| 68 |
Tadayuki Kodama |
Tohoku University |
Subaru-Roman Synergetic Galaxy Survey-II: Galaxy clusters and large-scale structures |
High Latitude Wide Area Survey |
galaxies, supermassive black holes and active galaxies, large scale structure of the universe |
2023
|
| 69 |
Mariko Kubo |
Tohoku University |
Obscured star formation and supermassive black hole growth histories studying with the Roman and infrared all-sky surveys |
High Latitude Wide Area Survey |
galaxies, large scale structure of the universe |
2023
|
| 70 |
Mireia Montes |
Instituto de Astrofi_sica de Canarias |
Optimizing Roman's High Latitude Wide Area Survey for Low Surface Brightness Astronomy |
High Latitude Wide Area Survey |
stellar populations and the interstellar medium, galaxies, large scale structure of the universe |
2023
|
| 71 |
Jean Schneider |
Paris Observatory |
Combining transits with microlensing |
Galactic Bulge Time Domain Survey |
exoplanets and exoplanet formation |
2023
|
| 72 |
Kailash Sahu |
Space Telescope Science Institute |
Isolated Stellar-Mass Black Holes: Strategy to Improve the Efficiency and Robustness of Detection with Roman |
Galactic Bulge Time Domain Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2023
|
| 73 |
Seppo Mattila |
University of Turku |
Exploring the obscured transient universe |
High Latitude Wide Area Survey |
stellar physics and stellar types, stellar populations and the interstellar medium, galaxies, supermassive black holes and active galaxies |
2023
|
| 74 |
Anja von der Linden |
Stony Brook University |
A wide-area extension to the Roman HLIS for multiwavelength galaxy cluster science |
High Latitude Wide Area Survey |
large scale structure of the universe |
2023
|
| 75 |
Roberto Guenzani |
NASA RCN-NOW, INdAM and ngEHT |
Coronagraph Angles as Proxy Theta Angles in the Galactic Plane for Protostar Dust Coupling Analysis |
Galactic Plane Survey |
stellar physics and stellar types |
2025
|
| 76 |
Richard Collins |
The Internet Foundation |
Gravitation signals from many alien civilizations |
Galactic Plane Survey |
solar system astronomy |
2025
|
| 77 |
Thomas Kupfer |
University of Hamburg, T exas T ech University |
The high-cadence Roman Galactic Plane survey |
Galactic Plane Survey |
exoplanets and exoplanet formation, stellar physics and stellar types, stellar populations and the interstellar medium |
2025
|
| 78 |
R. Michael Rich |
Dept of Physics and Astronomy, University of California, Los Angeles |
A survey of the Galactic Plane Emphasizing the Central 2 kpc |
Galactic Plane Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2025
|
| 79 |
Susan D. Benecchi |
Planetary Science Institute |
Characterization of the Deep, Extended Kuiper Belt in the Galactic Disk |
Galactic Plane Survey |
solar system astronomy |
2025
|
| 80 |
Athina Meli |
North Carolina A&T State University |
Investigating the interplay between infrared observations, galactic magnetic fields, and cosmic rays |
Galactic Plane Survey |
stellar populations and the interstellar medium, the intergalactic medium and the circumgalactic medium |
2025
|
| 81 |
Katarzyna Kruszyńska |
Las Cumbres Observatory |
Synergies between Roman Galactic Plane Survey and other major surveys |
Galactic Plane Survey |
stellar physics and stellar types, stellar populations and the interstellar medium |
2025
|
| 82 |
Roberta Paladini |
Caltech-IPAC |
The Milky Way As The z=0 template To Investigate Star and Planet Formation |
Galactic Plane Survey |
stellar populations and the interstellar medium, exoplanets and exoplanets formation |
2025
|
| 83 |
Eleonora Zari |
Currently no affiliation, transitioning from MPIA to INAF , Arcetri (Florence) |
Young stars in the obscured galactic disc |
Galactic Plane Survey |
stellar populations and the interstellar medium |
2025
|