Future Prospects for Hadron Physics at PANDA

TL;DR

The PANDA experiment at FAIR aims to explore fundamental questions in hadron physics, including the structure of exotic states and non-perturbative QCD, utilizing advanced detector technologies for high-precision measurements.

Contribution

This paper outlines the ambitious physics program of PANDA and highlights its innovative detector design surpassing current experimental capabilities.

Findings

PANDA will investigate glueballs, hybrids, and exotic states.

The experiment will provide high-precision data on nucleon form factors.

Advanced detector technologies enable unprecedented measurement accuracy.

Abstract

The PANDA experiment at the new FAIR facility will be the major hadron physics experiment at the end of this decade. It has an ambitious far-reaching physics program that spans the most fascinating topics that are emerging in contemporary hadron physics. The universality of the antiproton annihilation process, with either protons or nuclei as targets, allows physicists to address questions like the structure of glueballs and hybrids; to clarify the nature of the X, Y and Z states; to investigate electromagnetic channels in order to measure form factors of the nucleon; and to provide theory with input with respect to non-perturbative aspects of QCD. The possibility to use different nuclear targets opens the window for charm physics with nuclei or for color transparency studies, as well as for an intensive hypernuclear physics program. Previous experimental experience has clearly demonstrated that the key to success lies in high levels of precision complemented with sophisticated analysis methods, only possible with high statistics in the data set. However, since this puts many critical demands on the detector, PANDA's design has incorporated cutting-edge detector technologies that in some cases have surpassed even the requirements for LHC experiments.