
Explore the exciting possibility of a new force of nature through recent LHCb experiment findings. Particle physicists discuss unexpected discrepancies in B meson decay data and their potential implications for fundamental physics.

Explore the origins of the universe with particle physicist Guido Tonelli, who discusses ancient and modern theories, the Higgs Boson discovery, and complex scientific concepts in an accessible manner.

Explore an infinite dimensional manifold of exact solutions for the Navier-Stokes loop equation in decaying turbulence, presented by renowned physicist Alexander Migdal.

Explore two major unsolved physics problems: quark confinement and turbulence. Gain insights into physicists' approach to understanding complex phenomena with Prof. David Tong.

Explore heavy ion physics fundamentals, including collision dynamics, quark-gluon plasma formation, and experimental techniques used in high-energy nuclear collisions.

Explores single spin asymmetries and transverse momentum dependent parton distributions in hadron structure, crucial for understanding nucleon spin and momentum at the Electron-Ion Collider.

Fizičar Davor Horvatić otkriva primjenu zakona fizike u raznim područjima života - od prometa do financija i crnih rupa, pokazujući kako nam fizika može pomoći u razumijevanju svakodnevnih pojava.

Leading string theorists discuss the current state and potential of string theory as a unified description of nature's laws, exploring its mathematical elegance and promise as a "theory of everything."

Explore pion structure through distribution functions in talks by Satyajit Puhan and Bhumika Pandya, part of a workshop on probing hadron structure at the Electron-Ion Collider.

Explore axial-vector bottom-charm tetraquarks through expert talks, delving into advanced particle physics concepts and cutting-edge research in hadron structure and quark interactions.

Explore valence quark and gluon TMDs in spin-1 QCD systems using light-front Hamiltonian approach. Gain insights into hadron structure and fundamental particle interactions.

Explore the Drell-Yan process in pion-proton collisions, focusing on polarized protons and its implications for understanding hadron structure and quark-gluon dynamics in particle physics.

Explores pion electromagnetic form factor research at Jefferson Lab and future electron-ion collider implications, discussing experimental techniques and theoretical insights in hadron structure studies.

Explore angularity event shapes in high-energy particle collisions, examining their role in understanding hadron structure and quark-gluon interactions at the electron-ion collider.

Explore machine learning applications in particle physics, transferring knowledge from LHC experiments to the upcoming Electron-Ion Collider for advanced proton and neutron structure analysis.

Explore jets and heavy flavor production at the Electron-Ion Collider, examining their role in probing hadron structure and advancing our understanding of fundamental particle physics.

Explore jet physics theory for the Electron-Ion Collider, covering fundamental concepts, analysis techniques, and implications for probing hadron structure at unprecedented levels.

Explore gluon distributions in protons, crucial for understanding hadron structure. Learn about cutting-edge research and its implications for particle physics at the electron-ion collider.

Explore gluon distributions in protons, crucial for understanding hadron structure and fundamental interactions. Gain insights into cutting-edge research in particle physics and quantum chromodynamics.

Explore quark transverse momentum distributions (TMDs) in hadron structure, their theoretical foundations, and methods for extracting them from experimental data.

Explore hadron structure through experimental insights, focusing on proton and neutron composition, quark-gluon dynamics, and implications for understanding fundamental particle physics.