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Le GdR Ondes Gravitationnelles (http://gdrgw.in2p3.fr/) a été crée en 2017 avec le but de rassembler la communauté scientifique intéressée par l’exploration de l’Univers avec les ondes gravitationnelles, et de lui fournir des occasions de rencontres et de discussions communes.
La huitième assemblée générale du GdR Ondes Gravitationnelles se tiendra en présence à l'Université Aix-Marseille, dans l'amphithéâtre l’Hexagone au coeur du campus de Luminy. Elle couvrira les thèmes d’intérêt du GdR, représentés par ses Groupes de Travail.
L'inscription à cette réunion est obligatoire avant le 13 septembre 2024. Il faut, au préalable, devenir membre du GdR en s'inscrivant sur le site http://gdrgw.in2p3.fr/ si vous ne l'êtes pas déjà.
La date limite pour envoyer une contribution est le 13 septembre 2024.
One of the primary objectives of the LISA mission is to measure and characterize the stochastic gravitational-wave background (SGWB). Achieving this goal will allow LISA to explore various domains, including astrophysics, cosmology, and particle physics. This talk will focus on the latter, specifically on physics beyond the Standard Model that involves strong first-order phase transitions. We will demonstrate that LISA holds significant potential for advancing particle physics. Indeed, by utilizing the reconstruction of the SGWB from first-order phase transitions, LISA will accurately constrain the parameter space of particle physics models.
In June 2023, the International Pulsar Timing Array (IPTA) collaboration, comprising the European Pulsar Timing Array (EPTA), the Indian Pulsar Timing Array (InPTA), NANOGrav, and the Parkes Pulsar Timing Array (PPTA), simultaneously announced the first compelling evidence of the very-low-frequency (nHz) gravitational wave background. This result was followed by a detailed comparative analysis at the IPTA level, enhancing the robustness of the results by demonstrating consistency, accounting for the differences across data sets and noise models. In this presentation, I will review these different results and outline the key challenges faced by the EPTA in further optimizing sensitivity and resolving specific peculiarities in our results. Additionally, I will discuss the upcoming Third Data Release of the IPTA, exploring its potential to detect nano-Hertz gravitational waves, and will highlight the complexities involved in interpreting a measured signal with Pulsar Timing Arrays.