TL;DR: The potential theory in value distribution has been studied in the context of Meromorphic Functions with Radially Distributed Values (RDV) and Singular values as discussed by the authors, where the potential theory of value distribution is applied to the case of MRFs.
Abstract: Preliminaries of Real Functions.- Characteristics of a Meromorphic Function.- T Directions of a Meromorphic Function.- Argument Distribution and Deficient Values.- Meromorphic Functions With Radially Distributed Values.- Singular Values of Meromorphic Functions.- The Potential Theory in Value Distribution.
TL;DR: Some examples for which it appear that log M(P(x, y) = rL'(E, 0), where E is an elliptic curve and r is a rational number, often either an integer or the reciprocal of an integer.
Abstract: If P(Xl,… xn) is a polynomial with integer coefficients, the Mahler measureM(P) of P is defined to be the geometric mean of |P| over the n-torus Tn. For n = 1, M(P) is an algebraic integer, but for n > 1, there is reason to believe that M(P) is usually transcendental. For example, Smyth showed that log M(l + x +y) = L'(X–3, −1), where X–3 is the odd Dirichlet character of conductor 3. Here we will describe some examples for which it appearsthat log M(P(x, y)) = rL'(E, 0), where E is an elliptic curve and r is a rational number, often either an integer or the reciprocal of an integer. Most of the formulas we discover have been verified numerically to high accuracy but not rigorously proved.