Planet 1RXS 1609 b
| Name | 1RXS 1609 b | ||
| Planet Status | Confirmed | ||
| Discovered in | 2008 | ||
| Mass | 14.0 ( -3.0 +2.0 ) MJ |  |
|
| Mass*sin(i) | — | ||
| Semi-Major Axis | 330.0 (± 0.0) AU | |
|
| Orbital Period | — | ||
| Eccentricity | — | ||
| ω | — | ||
| Tperi | — | ||
| Radius | 1.7 RJ | |
|
| Inclination | — | ||
| Update | 2018-11-15 | ||
| Detection Method | Imaging | ||
| Mass Detection Method | — | ||
| Radius Detection Method | — | ||
| Primary transit | — | ||
| Secondary transit | — | ||
| λ | — | ||
| Impact Parameter b | — | ||
| Time Vr=0 | — | ||
| Velocity Semiamplitude K | — | ||
| Calculated temperature | — | ||
| Measured temperature | 1800.0 K | |
|
| Hottest point longitude | — | ||
| Geometric albedo | — | ||
| Surface gravity log(g/gH) | 4.0 | |
|
| Alternate Names | 1RXS J160929.1-210524 b, 1RXS J1609b, 1RXS J1609-2105b, RXJ 1609 |
Star
1RXS 1609| Name | 1RXS 1609 | ||
| Distance | 145.0 (± 20.0) pc | |
|
| Spectral type | K7V | ||
| Apparent magnitude V | — | ||
| Mass | 0.73 (± 0.05) MSun | |
|
| Age | 0.011 (± 0.002) Gyr | |
|
| Effective temperature | 4060.0 ( -200.0 +200.0 ) K | |
|
| Radius | 1.35 RSun | |
|
| Metallicity [Fe/H] | — | ||
| Detected Disc | — | ||
| Magnetic Field | — | ||
| RA2000 | 16:09:30.0 | ||
| Dec2000 | -21:04:58 | ||
| Alternate Names | 1RXS1609, 1RXS J1609, 1RXS J160929 | ||
| Planetary system | 1 planet |
Atmospheric parameters
Temperatures
| Data Source | Type | Result Value | Result Figure | Notes | Reference |
Molecules
| Molecule | Data Source | Type | Result Value | Result Figure | Notes | Reference |
| CO | Measurements | Detected | 2008 - LAFRENIERE D. | |||
| H2O | Measurements | Detected | 2008 - LAFRENIERE D. | |||
| K | Measurements | Detected | 2010 - LAFRENIERE D. | |||
Observability Predictor 
Remarks
Pecaut et al. (2012) have revised the age of Upper Scorpius to 11 Myr from the 5 Myr previously estimated. As a consequence, the estimation of the planet mass has increased to 14 Mjup from the previous estimates of 8 Mjup, putting this planet in the brown dwarf range.(Lafrenière et al. 2010): companions more massive than 1 Mjup, 2 Mjup and 4 Mjup are ruled out for separations ≳ 440 AU, 100 AU and 50 AU respectively.
(Lafrenière et al. 2008): spectral type L4+1-2
Related publications
The nature of the radio source detected toward the exoplanet system 1RXS1609.1-210524
2022
NARANG M.
MNRAS, 515, 2015
arxiv
A Mid-infrared Study of Directly Imaged Planetary-mass Companions Using Archival Spitzer/IRAC Images
2022
MARTINEZ R., & KRAUS A.
Astron. J., 163, 36
paper
ALMA 0.88 mm Survey of Disks around Planetary-mass Companions
2020
WU Y.-L., BOWLER ., SHEEHAN P., ANDRES S., HERCZEG G. et al.
Astron. J., 159, 229
paper arxiv
Constraints on the occurrence and distribution of 1--20 MJup companions to stars at separations of 5--5000 AU from a compilation of direct imaging surveys
2019
BARON F., LAFRENIERE D., ARTIGAU E., GAGNE J., RAMEAU J. et al.
Astron. J., 158, 187
paper arxiv
On the Mass Function, Multiplicity, and Origins of Wide-Orbit Giant Planets
2019
WAGNER K., APAIL D. & KRATTER K.
ApJ, accepted
arxiv
Two decades of Exoplanetary Science with Adaptive Optics
2018
CHAUVIN, G.
SPIE Astronomical Telescopes and Instrumentation
arxiv
paper
An Explanation of the Very Low Radio Flux of Young Planet-mass Companions
2017
WU Y.-L., CLOSE L., EISNER J. & SHEEHAN P.
Astron. J., 154, 234
paper arxiv
Search for 150 MHz radio emission from extrasolar planets in the TIFR GMRT Sky Survey
2014
SIROTHIA S., LECAVELIER des ETANGS A., GOPAL-KRISHNA, KANTHARIA N. & ISHWAR-CHANDRA H.
Astron. & Astrophys., 562, A108
paper ADS
Astrometric follow-up observations of directly imaged sub-stellar companions to young stars and brown dwarfs
2014
GINSKI C., SCHMIDT, T., MUGRAUER, M., NEUHÄUSER, R., VOGT, N. & 2 additional authors
MNRAS, 444, 2280
paper arxiv ADS
New constraints on the formation and settling of dust in the atmospheres of young M and L dwarfs
2014
MANJAVACAS E., BONNEFOY M., SCHLIEDER J., ALLARD F., ROJO P. & 5 co-authors
Astron. Astrophys., 564, A55
paper arxiv ADS
An Adaptive Optics Multiplicity Census of Young Stars in Upper Scorpius
2014
LAFRENIERE D., JAYAWARDHANA R., VAN KERKWIJK M., BRANDEKER A. & JANSON M.
ApJ, 785, 47
paper ADS
Spectroscopic Confirmation of Young Planetary-Mass Companions on Wide Orbits
2014
BOWLER B., LIU M., KRAUS A. & MANN A.
ApJ, 784, 65
paper arxiv ADS
A Revised Age for Upper Scorpius and The Star-Formation History Among the F-Type Members of the Scorpius-Centaurus OB Association
2012
PECAUT M., MAMAJEK E. & BUBAR E.
ApJ., 746, 154
paper arxiv ADS
Direct Imaging of Extra-solar Planets - Homogeneous Comparison of Detected Planets and Candidates
2012
NEUHAUSER R. & SCHMIDT T.
in "Topics in Adaptive Optics", Chap 3
Full text arxiv ADS
Two Wide Planetary-Mass Companions to Solar-Type Stars in Upper Scorpius
2011
IRELAND M., KRAUS A., MARTINACHE F., LAW N. & HILLEBRAND L.
ApJ., 726, 113
paper arxiv ADS
Estimation of the XUV radiation onto close planets and their evaporation
2011
SANZ-FORCADA J., MICELA G., RIBAS I., POLLOCK A., EIROA C. & 2 additional authors
Astron. & Astrophys., 532, A6
paper arxiv ADS
The Exoplanet Handbook
2011
PERRYMAN M.
Content
Content and Chapter 5
The Directly Imaged Planet around the Young Solar Analog 1RXS J160929.1-210524: Confirmation of Common Proper Motion, Temperature and Mass
2010
LAFRENIERE D., JAYAWARDHANA R. & van KERWIJK M.
ApJ., 719, 497
paper arxiv ADS
Direct Imaging and Spectroscopy of a Planetary Mass Candidate Companion to a Young Solar Analog
2008
LAFRENIERE D., JAYAWARDHANA R., & van KERWIJK M.
ApJ. Letters, 689, L153
paper arxiv ADS
