Reflexive Autopoietic Dissipative Special Systems Theory

Total Page:16

File Type:pdf, Size:1020Kb

Reflexive Autopoietic Dissipative Special Systems Theory Reflexive Autopoietic Dissipative Special Systems Theory Reflexive Autopoietic Dissipative Special Systems Theory: An Approach to Emergent Meta-systems through Holonomics Kent D. Palmer, Ph.D. P.O. Box 1632 Orange CA 92856 USA 714-633-9508 [email protected] Copyright 2000 K. Palmer. [TXu884397] All Rights Reserved. Not for distribution. Review Copy Only. Unfinished Draft. Version 0.49; 01/19/2000 rastnewY.fm First submitted to IJGS 11/01/95 Latest version at URL http://dialog.net:85/homepage/autopoiesis.html http://server.snni.com:80/~palmer/autopoiesis.html 1 Reflexive Autopoietic Dissipative Special Systems Theory 0. Summary: A newly discovered approach to extending General Systems Theory as defined by George Klir through a set of Special Systems is described. General Systems Theory is distinguished from the theory of Meta-systems. Then, a hinge of three special systems is identified between systems and meta-systems. These special systems are defined by algebraic analogies. Anomalous physical phenomena are specified that exemplify the structures defined by the algebraic analogies. The extraordinary efficacious properties of these special systems are explained. These include ultra-efficiency and ultra-effectiveness. These three special systems are called dissipative, autopoietic, and reflexive. They are anomalous within general systems theory and provide a bridge between the theory of systems and the theory of recursive meta-systems. This extension of Systems Theory allows us to move step by step through a series of emergent levels up to a comprehensive Meta-systems Theory. In that theory the different special systems fit together to produce the inverse of General Systems Theory which is called Emergent Meta-systems Theory. Emergent Meta-systems are composed of the meta-operations which appear at each level of algebraic emergence from the system through the three levels of special systems. Each level can be seen as a meta-operator within the overall structure of the Emergent Meta-system. Together these operations produce a theoretical model of the meta-system. Historical examples of artifacts with the structure of the Emergent Meta-system are pointed out. Four different series of anomalous physical, logical and mathematical structures are related which give different views of the special systems. Besides the series of solitons and the various other physical phenomena that exemplify ultra-efficiency we also look at the series of topological structures of which the mobius strip and kleinian bottles are the best known examples. These other mathematical and physical phenomena which indicate the nature of the special systems elaborate on the structures established through the algebraic analogies. In general we are indicating a new set of anomalous systems that may be used to extend and enrich general systems theory and build a bridge to a complete meta-systems theory. The special systems form the underlying basis of Meta-systems theory because it is through their interaction that they form the Emergent Meta-system. By recognizing this peculiar state of affairs we both found the General Meta-systems Theory and a Holonomics that deals with the Special Systems Theory at the same time. Keywords: Systems Theory, Dissipative Systems, Autopoietic Systems, Reflexive Systems, Recursive Systems, Meta-Systems, Meta-systems Theory, Ontology, Existence, Emergence, Social Phenomenology, Social Theory, Ultra-efficacity, Ultra-effectiveness, Ultra-efficiency, Holonomics, Complexnion, Quaternion, Octonion, Sedenion, Algebra, Hyper-complex Algebras, Soliton, Soliton Breather, Instanaton, Soliton Super-Breather, Super- Conductivity, Bose-Einstein Condensate, Super-Fluidity, Mobius Strip, Kleinian Bottle, Hyper-Kleinian Bottle, Lemniscate, Autogenesis, Computational Sociology, Autopoietic Sociology, Social Construction, Reflexive Sociology, Sociological Theory, Autogenesis, Gaia, Supra-rationality, Paradoxicality, Nihilism, Non-nihilisitic Distinction, Gestalt, Flow, Proto-Gestalt, Proto-Flow, Environment, Context, Situation, Milieu, Propensity, Disposition, Tendency, Field. 2 Reflexive Autopoietic Dissipative Special Systems Theory 1. Introduction This paper will strike many as strange and peculiar because it goes against many of the fundamental presuppositions of the Western scientific approach to phenomena. In fact, it produces a bridge for understanding alternative scientific traditions such as those found in China and Islam and traditional sciences that are considered non-scientific from the narrow perspective of Western philosophy of science like Acupuncture and Homeopathy. In effect a more sophisticated and elegant form of science, that can be seen as an extension of normal Western science, is developed based on the understanding of meta-systems and some very special anomalous systems. The understanding of this extension is timely because it is precisely the misunderstanding of the environment which has led to the global destruction of our planetary environment. It is posited that these alternative scientific traditions and their traditional sciences have a much greater sensitivity to environmental concerns. This extension shows how we can both incorporate those concerns ourselves and extend our Western science to support that understanding and so benefit from the wisdom of traditional sciences developed within other worldviews down through history. Ostensibly this paper is an introduction to the theory of Special Anomalous Systems that are seen to exist when we extend Formal Structural Systems Theory, such as that produced by George Klir, toward the realm of Meta-systems. Thus, it can be seen as developing a theory within the domain of General Systems Theory broadly conceived. However, since Systems Theory touches every discipline that attempts to isolate and describe systems, the presented here theory has very wide and deep implications for most scientific disciplines. Of special interest is the implications for Sociology because the theory is based on a philosophical Social Phenomenology and attempts to extend the biological concept of the autopoietic special system into the social realm. It aims at defining rigorously the social in terms of reflexivity in the tradition of philosophically oriented sociologists such as John O’Malley and Barry Sandywell. However, this extension is based on a previous extension from the physical dissipative special systems developed by Prigogine to the picture of living biological autopoietic special systems developed by Maturana and Varela. The paper proposes a new special systems and meta-systems theoretic basis for understanding and grounding our approach to social phenomena as reflexive1. However, because it ultimately finds that Special Systems Theory describes precisely the Meta-systems, this paper also has much to say about the foundations of ecology and environmentalism and specifically gives us an interesting and new concept of Gaia, the living and cognitive meta-environment. 1. A precursor to this work is that of Arthur M. Young [1976 ]Reflexive Universe. Delacorte Press / Seymour Lawrence. This be- comes evident if one reads Appendix II of that book on why the number seven is used as a basis of his category schemes. However we offer a very different categorical interpretation of the underlying mathematical basis which he appears to have appreciated before our work.. 3 Reflexive Autopoietic Dissipative Special Systems Theory There are four basic disciplines related to Systems Theory of which three are defined for the first time in this paper. The first discipline is General Systems Theory which we take George Klir’s Architecture of Systems Problem Solving to be the best representative. It is a good generalization of a Formal Structural Systems Theory. From this basis we project General Meta-systems Theory being concerned with systems of systems and we interpret these are environments of systems. Then between these two extremes we posit two other disciplines called Special Systems Theory and Emergent Meta-Systems Theory. Special Systems Theory amounts to the Holonomics as it concerns structures that are both whole and part yet neither precisely whole or part. Emergent Meta-Systems Theory concerns the meta- structures that occur when you combine normal emergent systems with the special systems to produce a dynamic cycling structure called an Emergent Meta-system. The Emergent Meta-system is posited to be the underlying dynamic of Existence beyond Being. Special Systems are posited to be an indication of the infra-structure of the Void. The Meta-Systems Theory includes both of these in an over arching theory of interpenetration of all things which are considered empty existences. This paper projects Meta-Systems as a means of situating Special Systems and then describes Emergent Meta-systems. It then shows how these two intermediate representations allow us to re-comprehend Meta-systems by the use of the new conceptual tools that have been developed. 2. Systems and Meta-systems Instead of looking at systems as objects2 we maintain that they are social gestalts3 and we do not divide them into sub-systems and sub-sub-systems, but instead contrast the systems view that sees the super-system as a social gestalt with a different way of looking at systems called the meta-system approach4. The view of the nested complex super-system is the opposite of the denested and desconstructed Meta-systems view. The Meta-system is the view of a system that occurs when one takes it apart and forms a field of disassembled
Recommended publications
  • What Is Systems Theory?
    What is Systems Theory? Systems theory is an interdisciplinary theory about the nature of complex systems in nature, society, and science, and is a framework by which one can investigate and/or describe any group of objects that work together to produce some result. This could be a single organism, any organization or society, or any electro-mechanical or informational artifact. As a technical and general academic area of study it predominantly refers to the science of systems that resulted from Bertalanffy's General System Theory (GST), among others, in initiating what became a project of systems research and practice. Systems theoretical approaches were later appropriated in other fields, such as in the structural functionalist sociology of Talcott Parsons and Niklas Luhmann . Contents - 1 Overview - 2 History - 3 Developments in system theories - 3.1 General systems research and systems inquiry - 3.2 Cybernetics - 3.3 Complex adaptive systems - 4 Applications of system theories - 4.1 Living systems theory - 4.2 Organizational theory - 4.3 Software and computing - 4.4 Sociology and Sociocybernetics - 4.5 System dynamics - 4.6 Systems engineering - 4.7 Systems psychology - 5 See also - 6 References - 7 Further reading - 8 External links - 9 Organisations // Overview 1 / 20 What is Systems Theory? Margaret Mead was an influential figure in systems theory. Contemporary ideas from systems theory have grown with diversified areas, exemplified by the work of Béla H. Bánáthy, ecological systems with Howard T. Odum, Eugene Odum and Fritj of Capra , organizational theory and management with individuals such as Peter Senge , interdisciplinary study with areas like Human Resource Development from the work of Richard A.
    [Show full text]
  • TECHNICAL PROGRAM NAFIPS-TARDEC Session*
    TECHNICAL PROGRAM NAFIPS-TARDEC Session* Wednesday, June 22, 2005 8:00 AM Visitor Check-in at Badge Office (Bldg. 232, Gate 38) Continental Breakfast and TARDEC Seminar Sign-In TARDEC Bldg 200A-Auditorium 10:00 AM TARDEC Welcome - Dr. Grant Gerhart. Session Chair: Tom Meitzler 10:10 AM From Search Engines to Question-Answering Systems—The Problems of World Knowledge, Relevance and Deduction Lotfi A. Zadeh, Department of Electrical Engineering and Computer Science, University of California, Berkeley 10:50 AM BREAK 11:00 AM Arming the Robotic Solder with Fuzzy Logic Ronald R Yager, Machine Intelligence Institute 11:40 AM LUNCH- Bldg. 200A Cafeteria (Box Lunches Provided) 12:10 PM Standard Fuzzy Arithmetic and Constrained Fuzzy Arithmetic George J. Klir, Department of Systems Science & Industrial Eng., Binghamton University (SUNNY) 12:50 PM Fuzzy-Neural Computing and the Development of Intelligent Systems: Theory and Industrial Applications Madan M. Gupta, Intelligent Systems Research Laboratory, University of Saskatchewan 1:30 PM BREAK 1:40 PM Hybrid Fuzzy Systems: Classification and Prediction Applications Piero P. Bonissone, General Electric Global Research 2:20 PM Soft Computing for Sensor and Algorithm Fusion Jim Keller, Electrical and Computer Engineering Department, University of Missouri-Columbia 3:00 PM BREAK 3:10 PM Panel Discussion: The Importance of Fuzzy Logic Applications to the US Army and Homeland Defense Tom Meitzler, Moderator Panelists: Lotfi A. Zadeh, Ronald R Yager, George J. Klir, Madan M. Gupta, Piero P. Bonissone, Jim Keller, and Dimitar Filev 4:00PM Closing Remarks *This session is open to US citizens only. Thursday, June 23, 2005, 08:30AM – 10:00AM Plenary Session I 8:30 AM The Concept of a Generalized Constraint—A Bridge from Natural Languages to Mathematics Lofti A.
    [Show full text]
  • Autobiographical Reminiscences
    SYSTEMS MOVEMENT: AUTOBIOGRAPHICAL REMINISCENCES John N. Warfield Integrative Sciences, Inc. 2673 Westcott Circle Palm Harbor, FL 34684-1746 Page 1 SYSTEMS MOVEMENT: AUTOBIOGRAPHICAL REMINISCENCES John N. Warfield Integrative Sciences, Inc. 2673 Westcott Circle Palm Harbor, FL 34684-1746 Introduction. I have been invited by George Klir to contribute to this journal “information regarding...thought processes and individual motivations” that animated my career in the systems movement. This invitation was right on target with my wishes for writing this article. At the outset I will tell the reader that my motivation was to develop a systems science; a science that extended all the way from its foundations through a sufficient number of applications to provide empirical evidence that the science was properly constructed and was very functional; a science that could withstand the most aggressive challenge. Part of my strategy was to discover any prior scientific work that had relevance and to show its place in the science. The motivation for developing such a science was founded in the belief that many problematic situations could readily be observed in the world, and that a properly constructed and documented systems science would provide the basis for resolving these situations. I now believe that I have succeeded in accomplishing what I set out to do. I also think that the reader will find this to be a very dubious statement, and that my challenge in this paper is to convince the reader that what I have said is true. The reader may keep this in mind in going through the paper, and may write challenges as the reading progresses.
    [Show full text]
  • Fuzzy Logic in Geology
    Fuzzy Logic in Geology Edited by Robert V. Demicco and George J. Klir CENTER FOR INTELLIGENT SYSTEMS BINGHAMTON UNIVERSITY (SUNY) BINGHAMTON, NEW YORK, USA Copyright © 2004, Elsevier Science (USA) Academic Press An imprint of Elsevier Science 525 B Street, Suite 1900, San Diego, California 92101-4495, USA http://www.academicpress.com Academic Press 84 Theobald’s Road, London WC1X 8RR, UK http://www.academicpress.com Library of Congress Cataloging-in-Publication Data ISBN 0-12-415146-9 PRINTED IN THE UNITED STATES OF AMERICA Contents Contributors vii Foreword by Lotfi A. Zadeh ix Preface xiii Glossary of Symbols xv Chapter 1 Introduction 1 Chapter 2 Fuzzy Logic: A Specialized Tutorial 11 Chapter 3 Fuzzy Logic and Earth Science: An Overview 63 Chapter 4 Fuzzy Logic in Geological Sciences: A Literature Review 103 Chapter 5 Applications of Fuzzy Logic to Stratigraphic Modeling 121 Chapter 6 Fuzzy Logic in Hydrology and Water Resources 153 Chapter 7 Formal Concept Analysis in Geology 191 Chapter 8 Fuzzy Logic and Earthquake Research 239 Chapter 9 Fuzzy Transform: Application to the Reef Growth Problem 275 Chapter 10 Ancient Sea Level Estimation 301 Acknowledgments 337 Index 339 v Foreword In October 1999, at the invitation of my eminent friend, Professor George Klir, I visited the Binghamton campus of the State University of New York. In the course of my visit, I became aware of the fact that Professor Klir, a leading contributor to fuzzy logic and theories of uncertainty, was collaborating with Professor Robert Demicco, a leading contributor to geology and an expert on sedimentology, on an NSF-supported research project involving an exploration of possible applications of fuzzy logic to geology.
    [Show full text]
  • SSIE-261 Probabilistic Systems-I
    A Personal Historical Perspective on Systems Studies at Binghamton & Elsewhere CoCo Seminar March 2, 2016 Hal Lewis 1 Overview Reasons for knowing some history Subtext: A matter of identity Origins of systems studies Early days of systems studies at Binghamton: SAT My personal experiences leading me to systems science Systems science at Binghamton in the ‘80s Systems science in other locations What has happened since then? Personal reflections & possible lessons 2 Reasons for knowing some history To discover potentially useful ideas to pick up & develop anew To put our current ideas & activities into context To understand what’s really going on now, we need to understand what went on before To avoid past mistakes To have a basis of communication with people from the past (alumni, past faculty, etc.) Pride/Marketing on past glories BUT NOT to attempt to recreate the past 3 Subtext: A matter of identity I’ll be upfront in telling you one of my subtexts—Identity issues are important I don’t identify myself as an engineer I don’t identify systems science as primarily an engineering field When we’re misidentified by others or ourselves, we miss opportunities & we suffer 4 Subtext: Not that I’m anti-engineering 5 Subtext: Not that I’m anti-engineering 6 Subtext: But there is a lot more than engineering 7 Systems studies origins 8 Some definitions & claims of Klir Interdisciplinary: Fields on the border of (typically two) disciplines (biochemistry, social anthropology, geophysics, etc.) Multidisciplinary: Fields where it
    [Show full text]
  • Leveraging System Science When Doing System Engineering
    Leveraging System Science When Doing System Engineering Richard A. Martin INCOSE System Science Working Group and Tinwisle Corporation System Science and System Engineering Synergy • Every System Engineer has a bit of the scientific experimenter in them and we apply scientific knowledge to the spectrum of engineering domains that we serve. • The INCOSE System Science Working Group is examining and promoting the advancement and understanding of Systems Science and its application to System Engineering. • This webinar will report on these efforts to: – encourage advancement of Systems Science principles and concepts as they apply to Systems Engineering; – promote awareness of Systems Science as a foundation for Systems Engineering; and – highlight linkages between Systems Science theories and empirical practices of Systems Engineering. 7/10/2013 INCOSE Enchantment Chapter Webinar Presentation 2 Engineering or Science • “Most sciences look at certain classes of systems defined by types of components in the system. Systems science looks at systems of all types of components, and emphasizes types of relations (and interactions) between components.” George Klir – past President of International Society for the System Sciences • Most engineering looks at certain classes of systems defined by types of components in the system. Systems engineering looks at systems of all types of components, and emphasizes types of relations (and interactions) between components. 7/10/2013 INCOSE Enchantment Chapter Webinar Presentation 3 Engineer or Scientist
    [Show full text]
  • System Science D
    System Science D. L. Hysell Earth and Atmospheric Sciences Cornell University June, 2011 definition There is no universal definition of \system science." People seem to have trouble defining \system science" without using the term \system." Is \system science" whatever people say it is? What do we say? 2 / 20 practice The Department of at invites applications for an Assistant Professor in the area of extreme weather under climate change. ... The incumbent could take an Earth system approach to the subject, emphasizing the interactions of atmospheric, oceanic, and land-surface processes in responding to forcing from the climate system ... 1 1An actual position announcement 3 / 20 Earth System Science \Given the concerns that humankind is impacting the earth's physical climate system, a broader concept of the earth as a system is emerging. Within this concept, knowledge from the traditional earth science disciplines of geology, meteorology and oceanography along with biology is being gleaned and integrated to form a physical basis for Earth System Science. The broader concept of Earth System Science has also come to include societal dimensions and the recognition that humanity plays an ever increasing role in global change." \The Earth System Science concept fosters synthesis and the development of a holistic model in which disciplinary process and action lead to synergistic interdisciplinary relevance." 2 2Johnson, D. R., et al., What is Earth System Science?, Proceedings of the 1997 International Geoscience and Remote Sensing Symposium, Singapore, August 4 - 8, 1997, pp 688 - 691 4 / 20 science education \The Earth system is often represented by interlinking and interacting \spheres" of processes and phenomena.
    [Show full text]
  • Chapter 1 the BACKGROUND to SYSTEMICS
    Chapter 1 THE BACKGROUND TO SYSTEMICS 1.1 Introduction 1.2 What is Systemics? 1.3 A short, introductory history 1.4 Fundamental theoretical concepts 1.4.1 Set theory 1.4.2 Set theory and systems 1.4.3 Formalizing systems 1.4.4 Formalizing Systemics 1.5 Sets, structured sets, systems and subsystems 1.6 Other approaches 1.1 Introduction This book is devoted to the problems arising when dealing with emergent behaviors in complex systems and to a number of proposals advanced to solve them. The main concept around which all arguments revolve, is that of Collective Being. The latter expression roughly denotes multiple systems in which each component can belong simultaneously to different subsystems. Typical instances are swarms, flocks, herds and even crowds, social groups, sometimes industrial organisations and perhaps the human cognitive system itself. The study of Collective Beings is, of course, a matter of necessity when dealing with systems whose elements are agents, each of which is capable of some form of cognitive processing. The subject of this book could therefore be defined as "the study of emergent collective behaviors within assemblies of cognitive agents". 2 Chapter 1 Needless to say, such a topic involves a wide range of applications attracting the attention of a large audience. It integrates contributions from Artificial Life, Swarm Intelligence, Economic Theory, but also from Statistical Physics, Dynamical Systems Theory and Cognitive Science. It concerns domains such as organizational learning, the development or emergence of ethics (metaphorically intended as social software), the design of autonomous robots and knowledge management in the post-industrial society.
    [Show full text]
  • Rethinking Systems Movement: a Proposal for Reshaping It As an Academic Discipline Named ‘Systems Studies’
    Rethinking Systems Movement: A Proposal for Reshaping it as an Academic Discipline Named ‘Systems Studies’ Dr. Md. Abdur Rouf Second Secretary National Board of Revenue (NBR) Government of the People’s Republic of Bangladesh E-mail: [email protected] ABSTRACT In this work, in an effort to critically analyze the systems movement, its nature and scope have been discussed, achievements and failures have been examined, potentials to become an academic discipline has been explored and finally suggestions have been made to forge an academic discipline out of systems movement named Systems Studies. Systems movement is centered upon General Systems Theory (GST) that appears to be extremely broad, diverse, fluid and obscure. There is no precise definition of GST. Unlike many other theories, GST cannot be expressed exhaustively in one or several sentences. A number of phrases widely used in systems literature, such as ‘general systems theory’, ‘systems approach’, ‘systems perspective’, ‘systems research’, ‘systems movement’, ‘systems thinking’, ‘systems methodology’, ‘systemics’, ‘systemology’, ‘systems science’, etc. take us to the same area. The systems movement has gathered ideas from many fields, each of those has become strand of GST. Yi Lin (1999: 10-14) mentions classical systems theory, catastrophe theory, compartment theory, cybernetics, fuzzy mathematics, game theory, genetic algorithms, graph theory, information theory, Navier- Stokes equation and chaos, networks, set theory, simulation, statistics, theory of automata etc. as several strands of GST. The systems ideas have become so fluid that those can reach in any area of intellectual endeavor without any remarkable success. Therefore, the question arises what systems movement really is? The need arises to conceptualize its philosophy, delineate its area, specify objectives, work out methodology and finally put it into practice.
    [Show full text]
  • Evidence Sets and Contextual Genetic Algorithms Exploring Uncertainty, Context, and Embodiment in Cognitive and Biological Systems
    EVIDENCE SETS AND CONTEXTUAL GENETIC ALGORITHMS EXPLORING UNCERTAINTY, CONTEXT, AND EMBODIMENT IN COGNITIVE AND BIOLOGICAL SYSTEMS Embodiment 6HOHFWHG6HOI 2UJDQL]DWLRQ (YROXWLRQDU\ &RQVWUXFWLYLVP Semiosis Evolution Semantics Syntax Pragmatics By LUIS MATEUS ROCHA Licentiate, Instituto Superior Técnico, Lisboa, Portugal DISSERTATION Submitted in partial fulfillment of the requirements for the degree of Doctor in Philosophy in Systems Science in the Graduate School Binghamton University State University of New York 1997 © Copyright by Luis Mateus Rocha 1997 All Rights Reserved ii Accepted in partial fulfillment of the requirements for the degree of Doctor in Philosophy in Systems Science in the Graduate School Binghamton University State University of New York 1997 Dr. George Klir May 3, 1997 Department of Systems Science and Industrial Engineering Dr. Howard Pattee May 3, 1997 Department of Systems Science and Industrial Engineering Dr. Eileen Way May 3, 1997 Philosophy Department Dr. John Dockery May 3, 1997 Defense Information Systems Agency iii Abstract This dissertation proposes a systems-theoretic framework to model biological and cognitive systems which requires both self-organizing and symbolic dimensions. The framework is based on an inclusive interpretation of semiotics as a conceptual theory used for the simulation of complex systems capable of representing, as well as evolving in their environments, with implications for Artificial Intelligence and Artificial Life. This evolving semiotics is referred to as Selected Self-Organization
    [Show full text]
  • Paul P. Wang, Da Ruan, Etienne E. Kerre (Eds.) Fuzzy Logic Studies in Fuzziness and Soft Computing, Volume 215
    Paul P. Wang, Da Ruan, Etienne E. Kerre (Eds.) Fuzzy Logic Studies in Fuzziness and Soft Computing, Volume 215 Editor-in-chief Prof. Janusz Kacprzyk Systems Research Institute Polish Academy of Sciences ul. Newelska 6 01-447 Warsaw Poland E-mail: [email protected] Further volumes of this series Vol. 207. Isabelle Guyon, Steve Gunn, can be found on our homepage: Masoud Nikravesh, Lotfi A. Zadeh (Eds.) springer.com Feature Extraction, 2006 ISBN 978-3-540-35487-1 Vol. 199. Zhong Li Vol. 208. Oscar Castillo, Patricia Melin, Fuzzy Chaotic Systems, 2006 Janusz Kacprzyk, Witold Pedrycz (Eds.) ISBN 978-3-540-33220-6 Hybrid Intelligent Systems, 2007 ISBN 978-3-540-37419-0 Vol. 200. Kai Michels, Frank Klawonn, Vol. 209. Alexander Mehler, Reinhard Rudolf Kruse, Andreas Nürnberger Köhler Fuzzy Control, 2006 Aspects of Automatic Text Analysis, 2007 ISBN 978-3-540-31765-4 ISBN 978-3-540-37520-3 Vol. 201. Cengiz Kahraman (Ed.) Vol. 210. Mike Nachtegael, Dietrich Van der Fuzzy Applications in Industrial Weken, Etienne E. Kerre, Wilfried Philips Engineering, 2006 (Eds.) ISBN 978-3-540-33516-0 Soft Computing in Image Processing, 2007 Vol. 202. Patrick Doherty, Witold ISBN 978-3-540-38232-4 Łukaszewicz, Andrzej Skowron, Andrzej Vol. 211. Alexander Gegov Szałas Complexity Management in Fuzzy Systems, Knowledge Representation Techniques: A 2007 Rough Set Approach, 2006 ISBN 978-3-540-38883-8 ISBN 978-3-540-33518-4 Vol. 212. Elisabeth Rakus-Andersson Vol. 203. Gloria Bordogna, Giuseppe Psaila Fuzzy and Rough Techniques in Medical (Eds.) Diagnosis and Medication, 2007 Flexible Databases Supporting Imprecision ISBN 978-3-540-49707-3 and Uncertainty, 2006 ISBN 978-3-540-33288-6 Vol.
    [Show full text]
  • Toward a Classification of General Systems Theory Concepts: the Categorization of Vocabulary Components and Their Su Age Patterns in the Literature
    Louisiana State University LSU Digital Commons LSU Historical Dissertations and Theses Graduate School 1982 Toward a Classification of General Systems Theory Concepts: the Categorization of Vocabulary Components and Their sU age Patterns in the Literature. Stephanie S. Robbins Louisiana State University and Agricultural & Mechanical College Follow this and additional works at: https://digitalcommons.lsu.edu/gradschool_disstheses Recommended Citation Robbins, Stephanie S., "Toward a Classification of General Systems Theory Concepts: the Categorization of Vocabulary Components and Their sU age Patterns in the Literature." (1982). LSU Historical Dissertations and Theses. 3771. https://digitalcommons.lsu.edu/gradschool_disstheses/3771 This Dissertation is brought to you for free and open access by the Graduate School at LSU Digital Commons. It has been accepted for inclusion in LSU Historical Dissertations and Theses by an authorized administrator of LSU Digital Commons. For more information, please contact [email protected]. INFORMATION TO USERS This reproduction was made from a copy of a document sent to us for microfilming. While the most advanced technology has been used to photograph and reproduce •this document, the quality of the reproduction is heavily dependent upon the quality of the material submitted. The following explanation of techniques is provided to help clarify markings or notations which may appear on this reproduction. 1.The sign or “target” for pages apparently lacking from the document photographed is “Missing Page(s)”. If it was possible to obtain the missing page(s) or section, they are spliced into the film along with adjacent pages. This may have necessitated cutting through an image and duplicating adjacent pages to assure complete continuity.
    [Show full text]