By introducing the notion of
distributive constant of a family of hypersurfaces
with respect to a projective variety, we prove a second main theorem in
Nevanlinna theory for meromorphic mappings with arbitrary families of
hypersurfaces. Our second main theorem generalizes and improves previous results
for meromorphic mappings with hypersurfaces, in particular for algebraically
nondegenerate mappings with hypersurfaces in subgeneral position. The
analogous results for the holomorphic curves with finite growth index from
a complex disc into a projective variety, and for meromorphic mappings
on a complete Kähler manifold are also given. For the last aim, we will
prove a Schmidt’s subspace theorem for arbitrary families of homogeneous
polynomials, which is the counterpart in the number theory of our second main
theorem.
Keywords
Nevanlinna theory, diophantine approximation, second main
theorem, subspace theorem, meromorphic mapping,
hypersurface, homogeneous polynomial, subgeneral position