  Motivated by the relevance of Hund's coupling in the context of multiorbital
superconductors, we revisit the problem of a multiorbital Kondo impurity with
Hund's interaction. Using dynamical large-N techniques, we propose an efficient
approach that retains the essential physics at play, while providing a pathway
to scalable quantum impurity solvers. We are able to follow the ground state,
dynamic, and thermodynamic properties of this system over many decades of
temperature. Our approach captures the emergence of large moments, and follows
the stretched evolution of the physics down to their exponentially suppressed
Kondo temperature. We focus our analysis on the intermediate finite temperature
phase which presents an alternate paramagnetic state due to the emergent
moment, and discuss the relevance of this regime to Hund's metals.
