  I report on two new measures of the sudden change in the orbital period ($P$)
across the nova eruption ($\Delta$P) and the steady period change in quiescence
($\dot{P}$) for classical novae (CNe) RR Pic and HR Del, bringing a total of
six such measures for CNe, all in a final report of my large and long observing
program. The fractional changes ($\Delta$P/P) in parts-per-million (ppm) are
-290.71$\pm$0.28 (QZ Aur), -472.1$\pm$4.8 (HR Del), -4.46$\pm$0.03 (DQ Her),
+39.6$\pm$0.5 (BT Mon), -2003.7$\pm$0.9 (RR Pic), and -273$\pm$61 (V1017 Sgr).
These results are in stark opposition to the Hibernation Model for the
evolution of cataclysmic variables (CVs), which requires $\Delta$P/P$>$+1000
ppm to get the required drop in the accretion rate to produce hibernation. The
Hibernation Model cannot be salvaged in any way. My program has also measured
the first long-term $\dot{P}$ for classical novae, with -2.84$\pm$0.22 (QZ
Aur), +4.0$\pm$0.9 (HR Del), +0.00$\pm$0.02 (DQ Her), -2.3$\pm$0.1 (BT Mon),
and +1.25$\pm$0.01 (RR Pic) in units of $10^{-11}$ days/cycle. These can be
directly compared to the predictions of the Magnetic Braking Model, where the
long-term average $\dot{P}$ is a single universal function of $P$. The measured
values are +5.3, $-$94, 0.00, +6.9, and $-$190 times that predicted by the
model, so the predictions are always greatly wrong. Further, the effects of the
$\Delta$P averaged over the eruption cycle are usually much larger than the
magnetic braking effects. To get a realistic model of CV evolution, we must add
the physics of the $\Delta$P and $\dot{P}$ variations.
