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PALANTIR: an updated prediction tool for exoplanetary radio emissions

1 Pith paper cite this work, alongside 2 external citations. Polarity classification is still indexing.

1 Pith paper citing it
2 external citations · Pith
abstract

In the past two decades, it has been convincingly argued that magnetospheric radio emissions, of cyclotron maser origin, can occur for exoplanetary systems, similarly as solar planets, with the same periodicity as the planetary orbit. These emissions are primarily expected at low frequencies (usually below 100 MHz, c.f. Farrell et al., 1999; Zarka, 2007). The radio detection of exoplanets will considerably expand the field of comparative magnetospheric physics and star-planet plasma interactions (Hess & Zarka, 2011). We have developed a prediction code for exoplanetary radio emissions, PALANTIR: "Prediction Algorithm for star-pLANeT Interactions in Radio". This code has been developed for the construction of an up-to-date and evolutive target catalog, based on observed exoplanet physical parameters, radio emission theory, and magnetospheric physics embedded in scaling laws. It is based on, and extends, previous work by Grie{\ss}meier et al. (2007b). Using PALANTIR, we prepared an updated list of targets of interest for radio emissions. Additionally, we compare our results with previous studies conducted with similar models (Grie{\ss}meier, 2017). For the next steps, we aim at improving this code by adding new models and updating those already used.

fields

astro-ph.EP 1

years

2026 1

verdicts

CONDITIONAL 1

representative citing papers

Radio emission from star-planet interactions

astro-ph.EP · 2026-07-03 · conditional · novelty 4.0

SKA can transform exoplanet science via radio M-SPI detections if given substantial dedicated time comparable to successful optical campaigns, based on ECMI scaling and ensemble predictions.

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Showing 1 of 1 citing paper.

  • Radio emission from star-planet interactions astro-ph.EP · 2026-07-03 · conditional · none · ref 49 · internal anchor

    SKA can transform exoplanet science via radio M-SPI detections if given substantial dedicated time comparable to successful optical campaigns, based on ECMI scaling and ensemble predictions.