Description of Complex Systems in terms of Self-Organization Processes of Prime Integer Relations

Abstract

In the paper we present a description of complex systems in terms of self-organization processes of prime integer relations. A prime integer relation is an indivisible element made up of integers as the basic constituents following a single organizing principle. The prime integer relations control correlation structures of complex systems and may describe complex systems in a strong scale covariant form. It is possible to geometrize the prime integer relations as two-dimensional patterns and isomorphically express the self-organization processes through transformations of the geometric patterns. As a result, prime integer relations can be measured by corresponding geometric patterns specifying the dynamics of complex systems. Determined by arithmetic only, the self-organization processes of prime integer relations can describe complex systems by information not requiring further explanations. This gives the possibility to develop an irreducible theory of complex systems.

8 pages, 4 figures, index corrected, minor changes mainly of stylistic character

References in corpus (1)

• On Optimality Condition of Complex Systems: Computational Evidence

Cited by in corpus (3)

• On Possible Implications of Self-Organization Processes through Transformation of Laws of Arithmetic into Laws of Space and Time
• On a New Type of Information Processing for Efficient Management of Complex Systems
• On the Potential of the Irreducible Description of Complex Systems for the Modeling of the Global Financial System