  We describe a calculation of the spectrum of strange and nonstrange hadrons
that simultaneously correlates the dressed-quark-core masses of meson and
baryon ground- and excited-states within a single framework. The foundation for
this analysis is a symmetry-preserving Dyson-Schwinger equation treatment of a
vector-vector contact interaction. Our results exemplify and highlight the deep
impact of dynamical chiral symmetry breaking on the hadron spectrum: an
accurate description of the meson spectrum entails a similarly successful
prediction of the spectrum of baryons, including those with strangeness. The
analysis also provides numerous insights into baryon structure. For example,
that baryon structure is largely flavour-blind, the first radial excitation of
ground-state baryons is constituted almost entirely from axial-vector diquark
correlations, and DCSB is the foundation for the ordering of low-lying baryon
levels; viz., (1/2)^+, (1/2)^+, (1/2)^-.
