Computação natural metateórica: um arcabouço conceitual para o estudo da computação na natureza

• Autor(a) principal: Xavier, Rafael Silveira
• Data de Publicação: 2015
• Tipo de documento: Tese
• Idioma: por
• Título da fonte: Biblioteca Digital de Teses e Dissertações do Mackenzie
• Texto Completo: http://dspace.mackenzie.br/handle/10899/24269
• topic: computação natural; sistemas naturais; bioinspiração; estrutura conceitual; natural computing; natural systems; bioinspiration; conceptual framework; CNPQ::ENGENHARIAS::ENGENHARIA ELETRICA

Currently, the natural sciences are taking advantage of information and computing concepts to investigate the structure of nature and the interrelationships among the various natural systems. Furthermore, scientists from various fields are arguing that nature performs computations and others argue that the basic structure of the physical world is based on informational and computational processes. Within this scenario, there is the Natural Computing, whose main premise is to assume that natural phenomena can be interpreted from a computational perspective and that these phenomena can be modeled computationally and applied in different scientific contexts. Although Natural Computing is committed with the computational interpretation of nature, there is no theoretical framework that leads to the explanation of natural systems from a computational perspective. In this context, this thesis proposes a Conceptual Framework that allows to computationally explain the structures and processes within natural systems. The Conceptual Framework is based on a set of concepts and macroconcepts and its formalization consists of two sets of tools: a conceptual map with its graphical view of macroconcepts and concepts and their relationships; and a set of UML diagrams to computationally modeling the structures, processes and subprocesses present in natural systems. Thus, the proposed Conceptual Framework brings an intuitive and visual way to understand the natural systems under a computational perspective and to guide the modeling of bioinspired algorithms. From the perspective of a bioinspired analysis of algorithms, modeling tools allow to view conceptual gaps in the algorithms. Finally, the proposed Conceptual Structure is used as a tool for the analysis and synthesis of bioinspired algorithms, more specifically to develop algorithms inspired by the behavior of bacteria. In this way, the proposed framework aims to build an analysis and synthesis tool to collaborate for the theoretical and interdisciplinary maturation of Natural Computing.