Predictive modeling of of experiments on matter under extreme conditions

• Michael Bussmann (HZDR)

Understanding electronic correlations in warm, dense quantum plasmas

• Tobias Dornheim (HZDR/CASUS)

Scalable machine learning for predicting the electronic structure in many-particle systems

• Attila Cangi (Helmholtz-Zentrum Dresden-Rossendorf, Center for Advanced Systems Understanding)

Cluster virial expansions for correlated matter

• Gerd Ropke (University of Rostock)

Hydrodynamic simulations of superdense fluids

• Pasi Huovinen

T-Matrix Theory of the Quark-Gluon-Plasma

• Ralf Rapp (Texas A&M University)

Thermodynamics of QCD with quarks and multi-quark clusters

• Oleksii Ivanytskyi (University of Wroclaw)

The global CREDO cosmic radiation research project and the synergy of its extensive scientific research and popularization activities

• Robert Kaminski

Probing hadron-quark phase transition in twin stars using f-modes

• David Alvarez Castillo

Physics-enhanced neural networks for EoS calculations

• Timothy James Callow (Center for Advanced Systems Understanding)

Elasticity, geometry and fractons

• Piotr Surowka (Wroclaw University of Science and Technology)

Quantum Monte Carlo and Machine Learning Calculations for matter under extreme conditions

• David Ceperley (University of Illinois Urbana-Champaign)

Strong phase transitions in neutron star mergers

• Andreas Bauswein

The QCD phase diagram at low temperatures

• Armen Sedrakian (University of Wrocław, Frankfurt Institute for Advanced Studies)

Ultracold atomic gases, neutron stars, and nuclei from the perspective of density functional theory

• Gabriel Wlazłowski

Simulations of massive star explosions driven by a first-order QCD phase transition. Neutrino signal and gravitational wave mode analysis

• Noshad Khosravi-Largani

Correlations and semi-universal relations connecting nuclear matter and neutron stars

• James Lattimer (Stony Brook University)

Primordial black holes and QCD transition in Cosmology

• Günther Hasinger (DZA Görlitz)

About the WE-Heraeus Foundation

• Stefan Jorda

Probing the Quantum Vacuum at the High-Intensity Frontier

• Holger Gies

Monte-Carlo event generation for the interacxtion of x-ray laser fields and hot electrons

• Uwe Hernandez Acosta (Center for Advanced Systems Understanding)

Dynamically assisted tunneling in the impulse regime

• Friedemann Queisser (HZDR)

Strong field Quantum Electrodynamics from amplitudes to physical effects

• Naser Ahmadiniaz (Helmholtz Zentrum Dresden Rossendorf)

Sauter-Schwinger effect for colliding laser pulses

• Christian Kohlfuerst (Helmholtz-Zentrum Dresden Rossendorf)

Kinetic equation approach to pair creation in strong fields

• Minghui Ding (HZDR)
• Biplab Mahato

Imaging the quark and gluon substructure of the pion

• Minghui Ding (HZDR)

As the theory of quantum chromodynamics has unfolded, the pion has come to be understood as Nature’s most fundamental Nambu-Goldstone boson. It is attached to chiral symmetry, which is dynamically broken, quite probably as a corollary of emergence of hadron mass that has measurable implications for the quark and gluon substructure of the pion. Continuum Schwinger function methods are well suited to tackling the pion. This presentation describes the theoretical developments on pion structure, thereby providing challenges and opportunities for modern and anticipated high-luminosity, high-energy facilities - JLab at 22GeV, the AMBER project at CERN, and electron ion colliders in the USA and China - and surveys the developments in global phenomenological fits and lattice regularised QCD, enabling the picture of the pion to be drawn.