Genetic Organization and Evolution of Electromechanical Objects with Adaptive Geometry of Active Zone

Abstract

The paper is devoted to the presentation of a new methodological approach (new philosophy) to the formulation and solution of directed search and synthesis of electromechanical objects for a given function problems. The object under the study is a class of electrical machines and electromechanical devices which operation is carried out with a variable structure or geometry of the active zone. The research is relevant due to the characteristic trend in the evolution of modern technology which is associated with the creation of complex technical systems with the ability to change the structure and spatial geometry of the executive body in accordance with changing of external factors. The novelty of the synthesis methodology is determined by genetic nature of the technical evolution of electromechanical objects and by genetic programs of structure formation using. According to the results of research the genetic principles and macrogenetic programs of electromechanical objects with variable spatial geometry of active parts have been determined for the very first time. The area of existence and results of genetic synthesis of "elastic" electromechanics objects are presented. The reliability of genetic models, genetic programs and the results of the electromechanical objects with adaptive spatial geometry of the active zone synthesis is confirmed by the results of evolutionary experiments.

Structural Mutations in Adaptive Evolution of Electromechanical Energy Converters

“…Результати передбачення відкрили можливість створення нових класів модульних ЕМ-об'єктів з 2Di 3D-просторовою адаптацією активної зони, шляхом керованої зміни просторової геометрії активної поверхні в процесі їх функціонування (рис. 7) [20]. Найбільшу практичну цінність мають міжродові хромосомні мутації в межах групи 2.2, генетична схильність яких максимально чутлива як до зміни просторової орієнтації активних частин, так і до зміни геометрії активної поверхні.…”

The Principle of Hybridization in the Structural Organization and Evolution of Electromechanics Objects

“…The main provisions of the chromosomal theory of evolution of electromechanics objects were first summarized in the monograph of 2002 [19]. Models and methods of chromosomal hybridization of EM-structures, further development in the works of students and followers [28][29][30][31]. Its main provisions can be summarized by the following conclusions: hybrid EM objects have a genetic nature, because the basis of their structure determines the system-wide principle of crossing the original (parental) electromagnetic chromosomes, the genetic codes of which differ in the components of genetic information; the function of the systemic carrier of universal genetic codes of electromagnetic chromosomes to be crossed performs the periodic structure of the GC of the primary sources of the electromagnetic field (electromagnetic chromosomes); the systemic basis of the structure formation of hybrid EM-structures fulfills the principle of crossing the components of genetic information, which is modeled by the corresponding interbreeding operator in genetic synthesis procedures; the processes of structural hybridization are modeled at the chromosomal level of the structural organization of EM-objects; in accordance with the principle of genetic information saving, synthesized hybrid electromagnetic chromosomes perform the function of generative in relation to the corresponding hybrid Species of EM-objects; system carriers of information are genetic programs endowed with a predictive function in relation to genetically permissible hybrid classes of EM-structures; arbitrary hybrid chromosome performs the function of generative in relation to the corresponding Specie of hybrid EM-objects; hybridization processes can occur at different levels of structural organization of EM systems: chromosomal, intraspecific, intragenic, intergeneric and intersystemic levels; hybrid descendant structures are endowed with emergent properties, they contain new features that are absent in the original structures; the theoretical basis for the analysis and synthesis of hybrid EM-structures are genetic models of convergent type crossings and methods of genetic combinatorics; the reliability of the theoretical provisions of genetic structure formation and the evolution of hybrid EM objects is checked by the evolutionary experiments.…”