Distribution of zeros and masses for holomorphic and subharmonic functions. I. Hadamard- and Blaschke-type conditions

Let $M$ be a subharmonic function on a domain $D$ in the complex plane $\mathbb{C}$ with the Riesz measure ${\nu }_M$. Let $f$ be a non-zero holomorphic function on $D$ such that $\log \mathrm{\mid }f\mathrm{\mid }\le M$ on $D$ and the function $f$ vanish on a sequence $\mathtt{Z}=\{{\mathtt{z}}_k{\}}_{k=1,2,\dots }\subset D$ {\large(}$u\equiv ̸-\mathrm{\infty }$ be a subharmonic function on $D$ with the Riesz measure or the mass distribution ${\nu }_u$, and $u\le M$ on $D$ resp.{\large)}. Then restrictions on the growth of the Riesz measure ${\nu }_M$ of the function $M$ near the boundary of the domain $D$ entail certain restrictions on the distribution of points of the sequence $\mathtt{Z}$ (to the mass distribution ${\nu }_u$ resp.). A quantitative form of research of this phenomenon is given immediately in the subharmonic framework. We also establish results in the inverse direction. We investigated in detail the cases when $D$ is $\mathbb{C}$, the unit disk, exterior of the unit disk, a concentric annulus, and $M$ is a radial function; $D$ is a regular domain and $M$ are constant on the level lines of Green’s function of this domain $D$; $D$ is a domain of hyperbolic type, and $M$ are the superpositions of convex functions with functions that depend on the hyperbolic radius; $D$ is a regular domain and $M$ is the superposition of convex functions with a function dependent on the distance to some subset of the boundary of the domain $D$. All our main results and their implementation in more or less concrete situations are new not only for subharmonic functions $u$, and also for holomorphic functions $f$ even in the case when $D$ is $\mathbb{C}$, the unit disk, an annulus etc.