The IAC hosts the second Solar MHD conference, an international meeting of experts in solar physics
Attendees at the Solar MHD (UKUS 7) conference held in the Aula at the IAC headquarters in La Laguna. Credit: Inás Bonet (IAC)
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The Instituto de Astrofísica de Canarias (IAC) is hosting the second Solar MHD (UKUS 7) conference this week. Following the successful first edition held in Eastbourne (UK) in 2022, this event brings together nearly fifty international experts to discuss the latest advancements in solar magnetohydrodynamics.
Magnetohydrodynamics (MHD) is a branch of physics that studies the behavior of electrically conducting fluids, such as solar plasma. Understanding MHD processes in the Sun is essential for predicting phenomena like solar flares and coronal mass ejections, which can significantly impact Earth.
During the conference, participants will explore a wide range of topics, including: spectral synthesis and simulated data; machine learning in simulations and observations; using observations to establish boundary, initial conditions and constraints for MHD simulations; multi-fluid and partially ionised plasma models; enhanced MHD/hybrid models; and next generation of solar and stellar MHD simulations.
In addition to plenary and parallel sessions, the conference will include interactive sessions focused on the use of numerical codes and the diagnosis of solar plasma. These sessions will provide participants with the opportunity to share knowledge, establish collaborations, and explore new research avenues.
Magnetic fields are at the base of star formation and stellar structure and evolution. When stars are born, magnetic fields brake the rotation during the collapse of the mollecular cloud. In the end of the life of a star, magnetic fields can play a key role in the form of the strong winds that lead to the last stages of stellar evolution. During
POLMAG - Polarized Radiation Diagnostics for Exploring the Magnetism of the Outer Solar Atmosphere
POLMAG aims at a true breakthrough in the development and application of polarized radiation diagnostic methods for exploring the magnetic fields of the chromosphere, transition region and corona of the Sun.
CHromospheric magnetic fields in fLAREs and their evolution CHLARE
This project aims to study the variations of the solar magnetic field in flares, the most energetic events in our solar system. Flares accelerate charged particles into space, which may adversely affect satellites and Earth’s technology. Despite their clear importance for today’s technology, the timing and positioning when flares occur are so far
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