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| NAME ATLAS Stream , the SIMBAD biblio (44 results) | C.D.S. - SIMBAD4 rel 1.8 - 2026.10.14CEST07:52:03 |
| Bibcode/DOI | Score |
in Title|Abstract| Keywords |
in a table | in teXt, Caption, ... | Nb occurence | Nb objects in ref |
Citations (from ADS) |
Title | First 3 Authors |
|---|---|---|---|---|---|---|---|---|---|
| 2014MNRAS.442L..85K | 2655 | T A | X C | 67 | 24 | 52 |
Discovery of a cold stellar stream in the ATLAS DR1 data. |
KOPOSOV S.E., IRWIN M., BELOKUROV V., et al. | |
| 2016MNRAS.463.1759B | 276 | S X C | 5 | 47 | 101 | A Synoptic Map of Halo Substructures from the Pan-STARRS1 3π Survey. | BERNARD E.J., FERGUSON A.M.N., SCHLAFLY E.F., et al. | ||
| 2017MNRAS.471.1005M | 40 | X | 1 | 21 | 4 | Measuring the Sun's motion with stellar streams. | MALHAN K. and IBATA R.A. | ||
| 2018MNRAS.477.2419M | 40 | X | 1 | 24 | 1 | An orbit fit to likely Hermus Stream stars. | MARTIN C., AMY P.M., NEWBERG H.J., et al. | ||
| 2018ApJ...862..114S | 1946 | D | S X C | 47 | 50 | 199 | Stellar streams discovered in the Dark Energy Survey. | SHIPP N., DRLICA-WAGNER A., BALBINOT E., et al. | |
| 2018ApJ...867..101B | 245 | A | D | X | 7 | 16 | 74 | The information content in cold stellar streams. | BONACA A. and HOGG D.W. |
| 2018MNRAS.480.5342J | 40 | X | 1 | 15 | 9 | Discovery of a thin stellar stream in the SLAMS survey. | JETHWA P., TORREALBA G., NAVARRETE C., et al. | ||
| 2018MNRAS.481.3148E | 43 | X | 1 | 15 | 57 | Modelling the Tucana III stream - a close passage with the LMC. | ERKAL D., LI T.S., KOPOSOV S.E., et al. | ||
|
2019ApJ...885....3S |
1057 | A | D | S X C | 25 | 42 | 49 | Proper motions of stellar streams discovered in the Dark Energy Survey. | SHIPP N., LI T.S., PACE A.B., et al. |
|
2019MNRAS.490.3508L |
994 | D | X C F | 23 | 21 | 68 | The Southern Stellar Stream Spectroscopic Survey (S5): Overview, target selection, data reduction, validation, and early science. | LI T.S., KOPOSOV S.E., ZUCKER D.B., et al. | |
| 2020MNRAS.494..983R | 99 | D | X | 3 | 224 | 26 | The Milky Way's stellar streams and globular clusters do not align in a Vast Polar Structure. | RILEY A.H. and STRIGARI L.E. | |
| 2020AJ....160...30S | 82 | C | 1 | 28 | ~ | Pleiades or not? Resolving the status of the lithium-rich M dwarfs HHJ 339 and HHJ 430. | STAUFFER J., BARRADO D., DAVID T., et al. | ||
| 2020MNRAS.497.1547P | 82 | X | 2 | 31 | ~ | Modelling the Milky Way - I. Method and first results fitting the thick disc and halo with DES-Y3 data. | PIERES A., GIRARDI L., BALBINOT E., et al. | ||
| 2020MNRAS.498.2472K | 42 | X | 1 | 81 | 150 | Kraken reveals itself - the merger history of the Milky Way reconstructed with the E-MOSAICS simulations. | KRUIJSSEN J.M.D., PFEFFER J.L., CHEVANCE M., et al. | ||
|
2020AJ....160..181J |
766 | A | S X C | 17 | 74 | 47 | The Southern Stellar Stream Spectroscopic Survey (S5): chemical Abundances of seven stellar streams. | JI A.P., LI T.S., HANSEN T.T., et al. | |
| 2020AJ....160..244S | 41 | X | 1 | 14 | ~ | Discovery of extended tidal tails around the globular cluster Palomar 13. | SHIPP N., PRICE-WHELAN A.M., TAVANGAR K., et al. | ||
| 2021MNRAS.501..179M | 85 | X | 2 | 28 | 30 | Probing the nature of dark matter with accreted globular cluster streams. | MALHAN K., VALLURI M. and FREESE K. | ||
| 2021ApJ...909L..26B | 185 | D | X | 5 | 39 | 53 | Orbital clustering identifies the origins of Galactic stellar streams. | BONACA A., NAIDU R.P., CONROY C., et al. | |
| 2021ApJ...911L..32G | 45 | X | 1 | 5 | 15 | Velocity dispersion of the GD-1 stellar stream. | GIALLUCA M.T., NAIDU R.P. and BONACA A. | ||
|
2021ApJ...911..149L |
3787 | T A | S X C | 88 | 146 | 41 |
Broken into pieces: ATLAS and Aliqa Uma as one single stream. |
LI T.S., KOPOSOV S.E., ERKAL D., et al. | |
|
2021ApJ...914..123I |
42 | X | 1 | 6030 | 82 | Charting the Galactic acceleration field. I. A search for stellar streams with Gaia DR2 and EDR3 with follow-up from ESPaDOnS and UVES. | IBATA R., MALHAN K., MARTIN N., et al. | ||
|
2022AJ....163...18F |
366 | A | X | 9 | 158 | 8 | DELVE-ing into the Jet: a thin stellar stream on a retrograde orbit at 30 kpc. | FERGUSON P.S., SHIPP N., DRLICA-WAGNER A., et al. | |
| 2021ApJ...923..149S | 1273 | D | S X C | 29 | 17 | 47 | Measuring the mass of the Large Magellanic Cloud With Stellar streams observed by S5. | SHIPP N., ERKAL D., DRLICA-WAGNER A., et al. | |
| 2022ApJ...926..107M | 443 | D | X C | 10 | 140 | 64 | The Global Dynamical Atlas of the Milky Way Mergers: Constraints from Gaia EDR3-based Orbits of Globular Clusters, Stellar Streams, and Satellite Galaxies. | MALHAN K., IBATA R.A., SHARMA S., et al. | |
| 2022ApJ...928...30L | 1294 | D | S X C | 29 | 53 | 46 | S5: The Orbital and Chemical Properties of One Dozen Stellar Streams. | LI T.S., JI A.P., PACE A.B., et al. | |
| 2022ApJ...925..118T | 553 | S X C | 11 | 9 | 6 | From the Fire: A Deeper Look at the Phoenix Stream. | TAVANGAR K., FERGUSON P., SHIPP N., et al. | ||
| 2022ApJ...930..103Y | 1107 | A | D | S X C | 25 | 27 | 17 | The Complexity of the Cetus Stream Unveiled from the Fusion of STREAMFINDER and StarGO. | YUAN Z., MALHAN K., SESTITO F., et al. |
| 2022MNRAS.514.1757P | 1039 | D | S X C | 23 | 30 | 1 | Uniform modelling of the stellar density of thirteen tidal streams within the Galactic halo. | PATRICK J.M., KOPOSOV S.E. and WALKER M.G. | |
| 2022MNRAS.514.3532E | 43 | X | 1 | 13 | 7 | The Pristine survey - XVIII. C-19: tidal debris of a dark matter-dominated globular cluster? | ERRANI R., NAVARRO J.F., IBATA R., et al. | ||
| 2022ApJ...935L..38Y | 85 | X | 2 | 22 | 2 | A New Cold Stream near the Southern Galactic Pole. | YANG Y., ZHAO J.-K., XUE X.-X., et al. | ||
| 2023MNRAS.520.5225M | 1280 | D | S X C | 28 | 119 | 28 | galstreams: A library of Milky Way stellar stream footprints and tracks. | MATEU C. | |
| 2023ApJ...947...37C | 45 | X | 1 | 32 | 38 | Overview of the DESI Milky Way Survey. | COOPER A.P., KOPOSOV S.E., ALLENDE PRIETO C., et al. | ||
| 2023ApJ...959..141W | 44 | X | 1 | 39 | ~ | Chemical Analysis of the Brightest Star of the Cetus II Ultrafaint Dwarf Galaxy Candidate. | WEBBER K.B., HANSEN T.T., MARSHALL J.L., et al. | ||
| 2024ApJ...961..126M | 45 | X | 1 | 22 | ~ | A Search for Faint Resolved Galaxies Beyond the Milky Way in DES Year 6: A New Faint, Diffuse Dwarf Satellite of NGC 55. | McNANNA M., BECHTOL K., MAU S., et al. | ||
| 2024ApJ...974..286A | 18 | D | 1 | 97 | ~ | LMC-driven Anisotropic Boosts in Stream-Subhalo Interactions. | ARORA A., GARAVITO-CAMARGO N., SANDERSON R.E., et al. | ||
| 2024ApJ...976...54P | 90 | F | 1 | 38 | ~ | Forecasting the Population of Globular Cluster Streams in Milky Way-type Galaxies. | PEARSON S., BONACA A., CHEN Y., et al. | ||
| 2025ApJ...979..171F | 47 | X | 1 | 14 | ~ | Segue 2 Recently Collided with the Cetus-Palca Stream: New Opportunities to Constrain Dark Matter in an Ultra-faint Dwarf. | FOOTE H.R., BESLA G., GARAVITO-CAMARGO N., et al. | ||
| 2025MNRAS.538..454R | 93 | F | 1 | 12 | ~ | Stellar streams from black hole-rich star clusters. | ROBERTS D., GIELES M., ERKAL D., et al. | ||
| 2025ApJ...983...68N | 47 | X | 1 | 9 | ~ | StreamSculptor: Hamiltonian Perturbation Theory for Stellar Streams in Flexible Potentials with Differentiable Simulations. | NIBAUER J., BONACA A., SPERGEL D.N., et al. | ||
| 2025ApJ...987...96M | 47 | X | 1 | 5 | ~ | Toward Characterizing Dark Matter Subhalo Perturbations in Stellar Streams with Graph Neural Networks. | MA P.X., ROGERS K.K., LI T.S., et al. | ||
| 2025ApJ...988...45T | 140 | X | 3 | 6 | ~ | Inferring the Density and Membership of Stellar Streams with Flexible Models: The GD-1 Stream in Gaia Data Release 3. | TAVANGAR K. and PRICE-WHELAN A.M. | ||
| 2025ApJ...990..201S | 47 | X | 1 | 16 | ~ | The ATLAS Virtual Research Assistant. | STEVANCE H.F., SMITH K.W., SMARTT S.J., et al. | ||
| 2025A&A...704A.296Y | 65 | D | X | 2 | 228 | ~ | Identifying substructure associations in the Milky Way halo using chemo-kinematic tagging. | YOUAKIM K. and LIND K. | |
| 2026ApJ...997...90W | 20 | D | 1 | 25 | ~ | Kinematics of Stellar Streams from Globular Clusters Depend on Black Hole Retention and Star Mass: A Selection Effect for Dark Matter Inference. | WEATHERFORD N.C. and BONACA A. |