The presented theory of strong coupling superconductivity in uranium compounds is based on electron–electron interaction through magnetic fluctuations described by frequency-dependent magnetic susceptibility. The magnetic field dependence of the electron effective mass is expressed through the field dependence of the magnetic susceptibility components. It is shown that the intensity of triplet pairing, and hence the critical temperature of the transition to the superconducting state, are also determined by the field-dependent susceptibility. The results are discussed in relation to the properties of ferromagnetic uranium compounds URhGe and UCoGe.

Biography
V.Mineev graduated from Moscow Institute of Physics and Technology in 1969.
He defended his PhD Thesis (1974) and Doctor of Science Degree (1983) in Landau Institute for Theoretical Physics Moscow, USSR.
During 1992-1999 V.P. Mineev was Vice-director of the Landau Institute and at the same time Professor and Head of Chair « Problems of Theoretical Physics »in Moscow Institute of Physics and Technology.
Since 1999 till 2022 he was Senior Researcher in Commissariat a l’Energie Atomique, Grenoble, France.
At present he is Principal Researcher in Landau Institute for Theoretical Physics.
V.P.Mineev is awarded by L.D.Landau prize of Russian Academy of Sciences in 1992 and by Onsager prize of American Physical Society in 2014.

Books
1. « Topologically Stable Defects and Solitons in Ordered Media », Harwood Academic Publishers 1998.
2. « Introduction to Unconventional Superconductivity » (in co-authorship with K.V.Samokhin) Gordon and Breach Science Publishers 1999.
3. “Kinetics” (in co-authorship with V.N.Gorelkin) МЦНМО 2024.

In theory, Quantum Chromodynamics only needs quark masses and the strong coupling constant calibrated from experimental data to predict hadronic properties. In practice, achieving this and understanding the transition from quark to hadron masses relies on large-scale first-principles lattice QCD simulations. Using domestically generated CLQCD gauge configurations, we developed numerical techniques to systematically study ground-state hadrons containing up, down, strange, charm, and bottom quarks, including QED corrections. We compute their masses and decay constants, which effectively support phenomenological and experimental studies on the origin of hadron masses and in flavor physics.

Biography:
Prof. Yi-Bo Yang has been engaged in the study of hadron structure in lattice quantum chromodynamics (LQCD), focusing on the origin of mass in strong interactions and the internal structure of hadrons. He has collaboratively ported LQCD software to various domestic exascale architectures, achieving full-system operation. This enabled the construction of the CLQCD ensembles which can provide independent and precise predictions for strong interactions. He also established the Lattice Parton collaboration and serves as the spokesperson. His work on the gluon contribution to nucleon spin was selected as a highlight of the year by the American Physical Society in 2017.