  The AdS/CFT correspondence, or holography, has provided numerous important
insights into the behavior of strongly-coupled many-body systems. Crucially, it
has provided a testing ground for the construction of new effective field
theories, especially those in the low frequency, long wavelength limit known as
hydrodynamics. We review the study of strongly-coupled rotating fluids using
holography, and we examine the hydrodynamics emerging from the study of
rotating Myers-Perry black holes. We discuss three regimes in which holographic
rotating fluids display either (1) hydrodynamic behavior of a boosted fluid,
(2) hydrodynamic behavior distinct from a boosted fluid, or (3) no obvious
hydrodynamic behavior. We describe techniques to obtain hydrodynamic and
non-hydrodynamic modes, and we compute the radius of convergence for the
hydrodynamic regimes. The limitations of hydrodynamics under rotation are
discussed alongside our findings.
