Magnetised exoplanets are expected to emit at radio frequencies, similarly to the radio auroral emission of Earth and Jupiter. We predict the radio emission from V830 Tau b, the youngest (2 Myr) detected exoplanet to date, and investigate whether its radio emission can propagate through the stellar wind plasma. We model the wind of the host star using 3D MHD simulations that take into account the reconstructed stellar surface magnetic field. We find that, although stellar winds can power radio emission from exoplanets, if the planet orbits inside the radio photosphere of the stellar wind, then the wind will prevent the propagation of planetary radio emission
International audienceContext. Since the first extra-solar planet discovery in 1995, several hundred...
We present stellar wind modelling of the hot Jupiter host HD189733, and predict radio emission from ...
The relatively high contrast between planetary and solar low frequency radio emissions suggests that...
International audienceMagnetised exoplanets are expected to emit at radio frequencies, similarly to ...
International audienceMagnetised exoplanets are expected to emit at radio frequencies analogously to...
Magnetised exoplanets are expected to emit at radio frequencies analogously to the radio auroral emi...
Context. The search for radio emission from extra-solar planets has so far been unsuccessful. Much o...
International audienceRadio emission from extrasolar giant planets in close orbits around their host...
Context. The search for radio emission from extra-solar planets has so far been unsuccessful. Much o...
International audienceContext. The magnetized wind from stars that impact exoplanets should lead to ...
Like the magnetized planets in our Solar system, magnetized exoplanets should emit strongly at radio...
International audienceThe relatively high contrast between planetary and solar low-frequency radio e...
International audienceContext. Since the first extra-solar planet discovery in 1995, several hundred...
We present stellar wind modelling of the hot Jupiter host HD189733, and predict radio emission from ...
The relatively high contrast between planetary and solar low frequency radio emissions suggests that...
International audienceMagnetised exoplanets are expected to emit at radio frequencies, similarly to ...
International audienceMagnetised exoplanets are expected to emit at radio frequencies analogously to...
Magnetised exoplanets are expected to emit at radio frequencies analogously to the radio auroral emi...
Context. The search for radio emission from extra-solar planets has so far been unsuccessful. Much o...
International audienceRadio emission from extrasolar giant planets in close orbits around their host...
Context. The search for radio emission from extra-solar planets has so far been unsuccessful. Much o...
International audienceContext. The magnetized wind from stars that impact exoplanets should lead to ...
Like the magnetized planets in our Solar system, magnetized exoplanets should emit strongly at radio...
International audienceThe relatively high contrast between planetary and solar low-frequency radio e...
International audienceContext. Since the first extra-solar planet discovery in 1995, several hundred...
We present stellar wind modelling of the hot Jupiter host HD189733, and predict radio emission from ...
The relatively high contrast between planetary and solar low frequency radio emissions suggests that...