Theorem 23.1.62.8BCBC6CB58C6 Within $\mathcal R$ the following assertions hold.
Every individual $\nu _{W,u}$ is finite if and only if $\sup _{t\gg 1}\sqrt t\, W(t)<\infty $. This is also equivalent to a uniform total-mass bound. In this case
\[ \sup _{u\in \mathcal R}\nu _{W,u}(X)\leq 12Q(W). \]If the condition fails there is one $u\in \mathcal R$ with infinite measure.
Uniform deep tails hold if and only if $\sqrt t\, W(t)\to 0$. For all $u\in \mathcal R$ and $T\geq 0$,
\[ \nu _{W,u}(\{ -u>T\} )\leq 12Q_ T(W). \]The inequality is understood in the extended sense.
Uniform absolute continuity relative to $\operatorname {Cap}_\omega $ holds if and only if $\sqrt t\, W(t)\to 0$.
The assignment $u\mapsto \nu _{W,u}$ is a map into finite measures and is continuous from capacity convergence in $\mathcal R$ to weak measure convergence if and only if $\sqrt t\, W(t)\to 0$. When $\sqrt t\, W(t)$ is bounded but does not tend to zero, there are smooth $u_ j\in \mathcal R$ converging in capacity to $g\in \mathcal R$, whose weighted measures have a weak cluster measure charging the pole divisor of $g$.
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