When planet-hosting stars evolve off the main sequence and go through the red-giant branch, the stars become orders of magnitudes more luminous and, at the same time, lose mass at much higher rates than their main sequence counterparts. Accordingly, if planetary companions exist around these stars at orbital distances of a few au, they will be heated up to the level of canonical hot Jupiters and also be subjected to a dense stellar wind. Given that magnetized planets interacting with stellar winds emit radio waves, such "Red-Giant Hot Jupiters" (RGHJs) may also be candidate radio emitters. We estimate the spectral auroral radio intensity of RGHJs based on the empirical relation with the stellar wind as well as a proposed scaling for planeta...
International audienceBy analysing a database of 26 yr of observations of Jupiter with the Nancay De...
International audiencePlanet-star plasma interactions can be described as the interaction of a plasm...
International audienceContext: Close-in giant extrasolar planets (``Hot Jupiters'') are believed to ...
International audienceThe relatively high contrast between planetary and solar low-frequency radio e...
Magnetised exoplanets are expected to emit at radio frequencies analogously to the radio auroral emi...
The intensity of Jupiter’s auroral radio emission quickly gave rise to the question whether a compar...
International audienceIn this study we explore if supermassive hot Jupiters can maintain source regi...
In this paper, we present the analysis of incoherent non-thermal radio emission from a sample of hot...
In this paper, we present the analysis of incoherent non-thermal radio emission from a sample of hot...
Like the magnetized planets in our Solar system, magnetized exoplanets should emit strongly at radio...
International audienceThe intensity of Jupiter's auroral radio emission quickly gave rise to the que...
The relatively high contrast between planetary and solar low frequency radio emissions suggests that...
International audienceMagnetised exoplanets are expected to emit at radio frequencies analogously to...
© The Author(s), under exclusive licence to Springer Nature Limited 2020Low-frequency (ν ≲ 150 MHz) ...
International audienceBy analysing a database of 26 yr of observations of Jupiter with the Nancay De...
International audiencePlanet-star plasma interactions can be described as the interaction of a plasm...
International audienceContext: Close-in giant extrasolar planets (``Hot Jupiters'') are believed to ...
International audienceThe relatively high contrast between planetary and solar low-frequency radio e...
Magnetised exoplanets are expected to emit at radio frequencies analogously to the radio auroral emi...
The intensity of Jupiter’s auroral radio emission quickly gave rise to the question whether a compar...
International audienceIn this study we explore if supermassive hot Jupiters can maintain source regi...
In this paper, we present the analysis of incoherent non-thermal radio emission from a sample of hot...
In this paper, we present the analysis of incoherent non-thermal radio emission from a sample of hot...
Like the magnetized planets in our Solar system, magnetized exoplanets should emit strongly at radio...
International audienceThe intensity of Jupiter's auroral radio emission quickly gave rise to the que...
The relatively high contrast between planetary and solar low frequency radio emissions suggests that...
International audienceMagnetised exoplanets are expected to emit at radio frequencies analogously to...
© The Author(s), under exclusive licence to Springer Nature Limited 2020Low-frequency (ν ≲ 150 MHz) ...
International audienceBy analysing a database of 26 yr of observations of Jupiter with the Nancay De...
International audiencePlanet-star plasma interactions can be described as the interaction of a plasm...
International audienceContext: Close-in giant extrasolar planets (``Hot Jupiters'') are believed to ...