
Explore proton structure through light-front Hamiltonian, focusing on gluon and sea quark distributions. Gain insights into fundamental particle physics and hadron composition.

Explore jet physics and machine learning applications for the Electron-Ion Collider, uncovering new insights into proton and neutron structure using advanced computational techniques.

Explores advanced QCD calculations for semi-inclusive deep inelastic scattering, focusing on technical aspects of second-order corrections relevant to electron-ion collider research.

Explores small x physics in particle colliders, focusing on RHIC, ALICE, and ePIC experiments. Discusses gluon saturation, color glass condensate, and implications for understanding hadron structure.

Exploring India's contributions to the Electron-Ion Collider project, discussing current efforts and progress in understanding hadron structure and quark-gluon dynamics.

Exploring collective behavior in electron-ion collisions at the Electron-Ion Collider, focusing on probing hadron structure and understanding quark-gluon dynamics in nuclear matter.

Exploring medium modifications to jet angularities using Soft-Collinear Effective Theory with Glauber gluons, advancing our understanding of quark-gluon plasma in heavy-ion collisions.

Explore XYZTP spectroscopy through Lattice QCD, uncovering insights into hadron structure and properties. Learn advanced computational techniques for studying exotic particles in quantum chromodynamics.

Explore light-front quark models and their application in understanding hadron structure, providing insights into the fundamental building blocks of matter and their interactions.

Explores Generalized Parton Distributions on lattice and their relevance to the Electron-Ion Collider, discussing advancements in understanding hadron structure and quark-gluon dynamics.

Explore chiral anomaly's impact on hadron physics, delving into fundamental particle interactions and their consequences for understanding nuclear structure and behavior.

Explores proton structure through angular momentum distributions, focusing on quark and gluon contributions to proton spin. Discusses implications for understanding fundamental particle physics.

Exploring gluon transverse momentum distributions and their significance in electron-ion collider research, focusing on probing hadron structure and advancing our understanding of nucleon composition.

Exploring the TMD Shape Function's role in probing hadron structure at the Electron-Ion Collider, focusing on its applications and implications for understanding nucleon composition.

Exploration of quark transverse momentum dependent distributions (TMDs) in hadron structure, relevant for the upcoming Electron-Ion Collider's research on proton and neutron composition.

Explore NNLO QCD corrections to semi-inclusive deep inelastic scattering, advancing understanding of hadron structure and quark-gluon interactions in high-energy collisions.

Explores India's involvement in the Electron Ion Collider project, discussing its potential to revolutionize our understanding of proton and neutron structure through high-energy particle collisions.

Explore proton spin structure at the Electron-Ion Collider. Learn about quark and gluon contributions, experimental techniques, and future research prospects in high-energy nuclear physics.

Explore transverse momentum imaging in hadron structure, focusing on key concepts, applications, and relevance to electron-ion collider experiments.

Explore relativistic hydrodynamics in high-energy physics, focusing on fluid dynamics in extreme conditions and its applications to heavy-ion collisions and quark-gluon plasma.

Explore transverse momentum imaging in hadron physics, focusing on advanced concepts, experimental techniques, and implications for understanding particle structure and interactions.