  So far most of the analysis of coronavirus 2020 epidemic data has been
focusing on a short-time window and consequently a quantitative test of
statistical physical laws of Coronavirus Epidemics with Containment Measures
(CEwCM) is currently lacking. Here we report a quantitative analysis of CEwCM
over 230 days, covering the full-time lapse of the first epidemic wave. We use
a 3D phase diagram tracking the simultaneous evolution of the doubling time
Td(t) and reproductive number Rt(t) showing that this expanded parameter space
is needed for biological physics of CEwCP. We have verified that in the
supercritical [Rt(t)>1, Td(t)<40 days] regime i) the curve Z(t) of total
infected cases follows the growth rate called Ostwald law; ii) the doubling
time follows the exponential law Td(t)=A exp((t-t0)/s) as a function of time
and iii) the power law Td(t)=C(Rt(t)-1)^-n is verified with the exponent n
depending on the definition of Rt(t). The log-log plots Td(t) versus (Rt-1) of
the second 2020 epidemic wave unveil in the subcritical regime [Td(t)>100 days]
arrested metastable phases with Rt>1 where Td(t) was kept constant followed by
its explosion and its containment following the same power law as in the first
wave
