TEPCat: Kepler-453


 

This page summarises the information held within TEPCat for the transiting system Kepler-453. Please see here for descriptions of the quantities given below.

This object consists of an eclipsing binary star system which is itself eclipsed by one or more transiting planets. The binarity of the central star causes problems for structured databases. The stellar data below refer specifically to the primary star, and the planetary data to the transiting planet. For further information on the secondary star or the system as a whole please consult the publication(s) referenced below.

 

Discovery and basic observable quantities:
 
Quantity Value Unit
Reference of discovery paper 2015ApJ...809...26W  
Date of discovery paper 2014 / 9 / 8 y / m / d
Data/telescope used for discovery Kepler  
Right ascension 18 52 57.91 h m s
Declination +46 22 42.5 d m s
Right ascension (decimal) 283.24129 degrees
Declination (decimal) 46.37847 degrees
V-band apparent magnitude 13.70 mag
K-band apparent magnitude 11.92 mag
Transit duration 0.5
( 12. )
day
hour
Transit depth 0.5 %
Time of mid-transit   2455069.020 ± 0.054     HJD or BJD
Orbital period 240.503 ± 0.053 days
Reference for orbital ephemeris   2015ApJ...809...26W  

 

Physical properties from the most recent detailed study:
 
Quantity Value Unit
Stellar effective temperature 5527 ± 100 K
Stellar metal abundance ([Fe/H] or [M/H])   +0.09 ± 0.10 dex
Stellar mass 0.944 ± 0.010   Msun
Stellar radius 0.833 ± 0.011 Rsun
Stellar logarithmic surface gravity 4.571 ± 0.015 c.g.s.
Stellar mean density ρsun
g cm-3
Orbital eccentricity 0.0359 ± 0.0088  
Orbital semimajor axis   0.7903 ± 0.0028  AU
Planetary mass 0.0 +0.050 −0.0
( 0 +15 −0 )
Mjup
Mearth
Planetary radius 0.5535 ± 0.0035
( 6.204 ± 0.039 )
Rjup
Rearth
Planetary surface gravity m/s2
log(cgs)
Planetary mean density ρjup
g cm-3
Planetary equilibrium temperature K
Reference of detailed study 2015ApJ...809...26W  

 

Kepler-453 does not have an entry in the catalogue of orbital obliquity measurements.

 


Page generated on 2024/09/10           John Southworth   (Keele University, UK)