Abstract:
The article provides approaches to evolutionary modelling of synthesis of organised systems and analyses
methodological problems of evolutionary computations of this kind. Based on the analysis of works on evolutionary
cybernetics, evolutionary theory, systems theory and synergetics, we conclude that there are open problems in formalising the
synthesis of organised systems and modelling their evolution. The article emphasises that the theoretical basis for the practice
of evolutionary modelling is the principles of the modern synthetic theory of evolution. Our software project uses a virtual
computing environment for machine synthesis of problem solving algorithms. In the process of modelling, we obtained the
results on the basis of which we conclude that there are a number of conditions that fundamentally limit the applicability
of genetic programming methods in the tasks of synthesis of functional structures. The main limitations are the need for the
fitness function to track the step-by-step approach to the solution of the problem and the inapplicability of this approach to
the problems of synthesis of hierarchically organised systems. We note that the results obtained in the practice of evolutionary
modelling in general for the whole time of its existence, confirm the conclusion the possibilities of genetic programming are
fundamentally limited in solving problems of synthesizing the structure of organized systems.. As sources of fundamental
difficulties for machine synthesis of system structures the article points out the absence of directions for gradient descent in
structural synthesis and the absence of regularity of random appearance of new organised structures. The considered problems
are relevant for the theory of biological evolution. The article substantiates the statement about the biological specificity of
practically possible ways of synthesis of the structure of organised systems. As a theoretical interpretation of the discussed
problem, we propose to consider the system-evolutionary concept of P. K. Anokhin. The process of synthesis of functional
structures in this context is an adaptive response of organisms to external conditions based on their ability to integrative
synthesis of memory, needs and information about current conditions. The results of actual studies are in favour of this
interpretation. We note that the physical basis of biological integrativity may be related to the phenomena of non-locality and
non-separability characteristic of quantum systems. The problems considered in this paper are closely related to the problem
of creating strong artificial intelligence.