Riemann Theta Meta-Operational Mathematics: A Complete, Rigorous, and Intrinsic Extension of Meta-Operational Mathematics to Riemann Theta Functions of Arbitrary Genus and Their Inverses

This work presents a complete, rigorous, and self-contained extension of the entire apparatus of Meta-Operational Mathematics---the hierarchical theory of operations acting upon operations---to the class of Riemann Theta functions (z;) of arbitrary genus g 1 and their multi-valued compositional inverses ^-1 (the Jacobi inversion operations I₁, , Ig). The central philosophical principle remains unchanged: operations upon operations constitute the natural generalization of operations upon numbers, and this principle is established with complete mathematical precision through a hierarchical framework of four ascending levels---elements, operations, meta-operations, and meta-meta-operations. The fundamental geometric object is a principally polarized Abelian variety g = ᵍ /, where = ᵍ + ᵍ is a full-rank lattice of rank 2g with period matrix g. The primary generating operation is the Riemann Theta function (z;) and its logarithmic derivatives, the generalized Weierstrass functions ₈₉ (z) = - ² zᵢ zⱼ (z;), which together generate the entire field of Abelian functions. A fundamental and systematic distinction from the elliptic case is established throughout: the multi-periodicity with 2g independent real periods replaces the double periodicity of genus one, leading to the Abelian Duality Axiom, which replaces the quotient group (, +) by (ᵍ /, +). This crucial modification, together with the higher-dimensional divisor structure = \ (z) =0\ of complex codimension one, permeates the entire theory. The paper develops the full meta-operational framework in complete analogy to the elliptic case, with every definition, theorem, and proof carried out at the same or higher level of detail. The Abelian operad Thg is constructed, endowed with a complete Hopf operad structure, and connected to the Connes-Kreimer renormalization Hopf algebra via an explicit morphism. Bornological convergence is systematically generalized to the multi-cylindrical setting that avoids the theta divisor, and the path integral trace is reinterpreted as an operadic trace on Thg. Applications to noncommutative Abelian geometry, topological quantum field theory on Abelian surfaces, the spectrum of topological modular forms of higher genus, the Belavin-Drinfeld quantum group equivalence, and the operadic Langlands correspondence for Abelian varieties are developed in full detail. Several open problems are resolved as theorems within this framework.