Flow- and temperature-based statistics characterizing the regimes in rapidly rotating turbulent convection in simulations employing no-slip boundary conditions

We present results from direct numerical simulations of rotating Rayleigh--B\'enard convection (RRBC), the quintessential paradigm for investigating buoyancy-driven rotating turbulence, at rather extreme values of the governing parameters and bounded by experimentally realizable no-slip boundary conditions. We provide a statistical characterization of the RRBC flow regimes that can be used as a framework for identification of these flow states in future experiments and simulations at even more extreme parameter values, and for extrapolation to geophysical and astrophysical flow systems.