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Self-Organizing Systems, 1963

Por: Tipo de material: TextoIdioma: en Editor: Salt Lake City, UT : Project Gutenberg, 2021Descripción: 1 online resource : multiple file formatsTipo de contenido:
  • text
Tipo de medio:
  • computer
Tipo de soporte:
  • online resource
Tema(s): Clasificación LoC:
  • Q
Recursos en línea:
Contenidos:
Foreword -- The ionic hypothesis and neuron models, by E. R. Lewis -- Fields and waves in excitable cellular structures, by R. M. Stewart -- Multi-layer learning networks, by R. A. Stafford -- Adaptive detection of unknown binary waveforms, by J. J. Spilker, Jr. -- Conceptual design of self-organizing machines, by P. A. Kleyn -- A topological foundation for self-organization, by R. I. Ścibor-Marchocki -- On functional neuron modeling, by C. E. Hendrix -- Selection of parameters for neural net simulations, by R. K. Overton -- Index of invited participants.
Créditos de producción:
  • Mark C. Orton and the Online Distributed Proofreading Team at https://www.pgdp.net
Resumen: "Self-Organizing Systems" edited by James Emmett Garvey is a scientific publication written in the early 1960s. This work compiles papers presented at a symposium focusing on emerging research in self-organizing systems, particularly in relation to neural modeling and electrical behavior in biological systems. The book explores various approaches and methodologies in the field, including the Ionic Hypothesis, neuron models, and adaptive learning networks. The opening of the book introduces the foreword by Garvey, which outlines the symposium's objectives and emphasizes the relevance of the collected papers to a broader scientific audience. The text highlights the significance of self-organization as a concept in understanding complex systems, particularly in relation to biological processes. It sets the stage for the subsequent papers, focusing first on the Ionic Hypothesis and neuron models, which discuss the behavior and modeling of neurons, based on empirical data and theoretical frameworks developed by early scientists. The introduction paves the way for a deeper inquiry into the principles of self-organization in both biological and artificial systems. (This is an automatically generated summary.)
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The papers appearing in this volume were presented at a Symposium on Self-Organizing Systems, which was sponsored by the Office of Naval Research and held at the California Institute of Technology, Pasadena, California, on 14 November 1963.

Release date is 2021-09-13

Foreword -- The ionic hypothesis and neuron models, by E. R. Lewis -- Fields and waves in excitable cellular structures, by R. M. Stewart -- Multi-layer learning networks, by R. A. Stafford -- Adaptive detection of unknown binary waveforms, by J. J. Spilker, Jr. -- Conceptual design of self-organizing machines, by P. A. Kleyn -- A topological foundation for self-organization, by R. I. Ścibor-Marchocki -- On functional neuron modeling, by C. E. Hendrix -- Selection of parameters for neural net simulations, by R. K. Overton -- Index of invited participants.

Mark C. Orton and the Online Distributed Proofreading Team at https://www.pgdp.net

"Self-Organizing Systems" edited by James Emmett Garvey is a scientific publication written in the early 1960s. This work compiles papers presented at a symposium focusing on emerging research in self-organizing systems, particularly in relation to neural modeling and electrical behavior in biological systems. The book explores various approaches and methodologies in the field, including the Ionic Hypothesis, neuron models, and adaptive learning networks. The opening of the book introduces the foreword by Garvey, which outlines the symposium's objectives and emphasizes the relevance of the collected papers to a broader scientific audience. The text highlights the significance of self-organization as a concept in understanding complex systems, particularly in relation to biological processes. It sets the stage for the subsequent papers, focusing first on the Ionic Hypothesis and neuron models, which discuss the behavior and modeling of neurons, based on empirical data and theoretical frameworks developed by early scientists. The introduction paves the way for a deeper inquiry into the principles of self-organization in both biological and artificial systems. (This is an automatically generated summary.)

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