The last two decades have witnessed the discovery of a myriad of new and unexpected
hadrons. The future holds more surprises for us, thanks to new-generation experiments …

Quantum chromodynamics, the theory of the strong force, describes interactions of coloured
quarks and gluons and the formation of hadronic matter. Conventional hadronic matter …

This review treats the advances in Light Baryon Spectroscopy of the last two decades, which
were mainly obtained by measuring meson-production reactions at photon facilities all over …

A coupled-channel approach is applied to the charged tetraquark state T cc+ recently
discovered by the LHCb Collaboration. The parameters of the interaction are fixed by a fit to …

Strong three-body interactions above threshold govern the dynamics of many exotics and
conventional excited mesons and baryons. Three-body finite-volume energies calculated …

A bstract A new baryon state is observed in the\({\Lambda} _ {\mathrm {b}}^ 0 {\pi}^{+}{\pi}^{-
}\) mass spectrum with high significance using a data sample of pp collisions, collected with …

A bstract In this work, we use an extension of the quantization condition, given in ref.[1], to
numerically explore the finite-volume spectrum of three relativistic particles, in the case that …

We perform a fit of the finite-volume QCD spectrum of three pions at maximal isospin to
constrain the three-body force. We use the unitarity-based relativistic three-particle …

Despite decades of research, we still lack a detailed quantitative understanding of the way
quantum chromodynamics (QCD) generates the spectrum of hadrons. Precise experimental …

Two methodologies have been presented in the literature which connect relativistic three-
particle scattering amplitudes with lattice QCD spectra—the “relativistic effective field theory” …