Theories of Immune Networks [electronic resource] /
For a long time, immunology has been dominated by the idea of a simple linear cause-effect relationship between the exposure to an antigen and the production of specific antibodies against that antigen. Clonal selection was the name of the theory based on this idea and it has provided the main concepts to account for the known features of the immune response. More recently, immunologists have discovered a wealth of new facts, in the form of different regulatory cells (helpers, suppressors, antigen presenting cells), genetic determinations of immune responses such as those involved in graft re jections, different molecular structures responsible for intercellular interactions such as interleukins, cytokins, idiotype-antiidiotype recognition and others. While furthering our understanding of the local interactions (molecular and cellular) in volved in the immune response, these discoveries have led to a questioning of the simplicities of the classical clonal selection theory. It is clear today that every single immune response is a cooperative phenomenon involving several different molecular and cellular interactions taking place in a coupled manner. In addition, cross reactivity to different antigens has shown that responses of the whole im mune system to different antigens are not completely isolated from one another and that the history of encounters with different antigens plays a crucial role in the maturation of the whole system. Thus, problems of complexity, generation of di versity and self-organization have entered the field of immunology.
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Berlin, Heidelberg : Springer Berlin Heidelberg,
1989
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Subjects: | Medicine., Immunology., Physical chemistry., Allergy., Biochemistry., Biophysics., Biological physics., Biomedicine., Biophysics and Biological Physics., Physical Chemistry., Allergology., Biochemistry, general., |
Online Access: | http://dx.doi.org/10.1007/978-3-642-83935-1 |
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Medicine. Immunology. Physical chemistry. Allergy. Biochemistry. Biophysics. Biological physics. Biomedicine. Immunology. Biophysics and Biological Physics. Physical Chemistry. Allergology. Biochemistry, general. Medicine. Immunology. Physical chemistry. Allergy. Biochemistry. Biophysics. Biological physics. Biomedicine. Immunology. Biophysics and Biological Physics. Physical Chemistry. Allergology. Biochemistry, general. |
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Medicine. Immunology. Physical chemistry. Allergy. Biochemistry. Biophysics. Biological physics. Biomedicine. Immunology. Biophysics and Biological Physics. Physical Chemistry. Allergology. Biochemistry, general. Medicine. Immunology. Physical chemistry. Allergy. Biochemistry. Biophysics. Biological physics. Biomedicine. Immunology. Biophysics and Biological Physics. Physical Chemistry. Allergology. Biochemistry, general. Atlan, Henri. editor. Cohen, Irun R. editor. SpringerLink (Online service) Theories of Immune Networks [electronic resource] / |
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For a long time, immunology has been dominated by the idea of a simple linear cause-effect relationship between the exposure to an antigen and the production of specific antibodies against that antigen. Clonal selection was the name of the theory based on this idea and it has provided the main concepts to account for the known features of the immune response. More recently, immunologists have discovered a wealth of new facts, in the form of different regulatory cells (helpers, suppressors, antigen presenting cells), genetic determinations of immune responses such as those involved in graft re jections, different molecular structures responsible for intercellular interactions such as interleukins, cytokins, idiotype-antiidiotype recognition and others. While furthering our understanding of the local interactions (molecular and cellular) in volved in the immune response, these discoveries have led to a questioning of the simplicities of the classical clonal selection theory. It is clear today that every single immune response is a cooperative phenomenon involving several different molecular and cellular interactions taking place in a coupled manner. In addition, cross reactivity to different antigens has shown that responses of the whole im mune system to different antigens are not completely isolated from one another and that the history of encounters with different antigens plays a crucial role in the maturation of the whole system. Thus, problems of complexity, generation of di versity and self-organization have entered the field of immunology. |
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Medicine. Immunology. Physical chemistry. Allergy. Biochemistry. Biophysics. Biological physics. Biomedicine. Immunology. Biophysics and Biological Physics. Physical Chemistry. Allergology. Biochemistry, general. |
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Atlan, Henri. editor. Cohen, Irun R. editor. SpringerLink (Online service) |
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Atlan, Henri. editor. Cohen, Irun R. editor. SpringerLink (Online service) |
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Atlan, Henri. editor. |
title |
Theories of Immune Networks [electronic resource] / |
title_short |
Theories of Immune Networks [electronic resource] / |
title_full |
Theories of Immune Networks [electronic resource] / |
title_fullStr |
Theories of Immune Networks [electronic resource] / |
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Theories of Immune Networks [electronic resource] / |
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theories of immune networks [electronic resource] / |
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Berlin, Heidelberg : Springer Berlin Heidelberg, |
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1989 |
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http://dx.doi.org/10.1007/978-3-642-83935-1 |
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AT atlanhenrieditor theoriesofimmunenetworkselectronicresource AT cohenirunreditor theoriesofimmunenetworkselectronicresource AT springerlinkonlineservice theoriesofimmunenetworkselectronicresource |
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KOHA-OAI-TEST:1734642018-07-30T22:51:10ZTheories of Immune Networks [electronic resource] / Atlan, Henri. editor. Cohen, Irun R. editor. SpringerLink (Online service) textBerlin, Heidelberg : Springer Berlin Heidelberg,1989.engFor a long time, immunology has been dominated by the idea of a simple linear cause-effect relationship between the exposure to an antigen and the production of specific antibodies against that antigen. Clonal selection was the name of the theory based on this idea and it has provided the main concepts to account for the known features of the immune response. More recently, immunologists have discovered a wealth of new facts, in the form of different regulatory cells (helpers, suppressors, antigen presenting cells), genetic determinations of immune responses such as those involved in graft re jections, different molecular structures responsible for intercellular interactions such as interleukins, cytokins, idiotype-antiidiotype recognition and others. While furthering our understanding of the local interactions (molecular and cellular) in volved in the immune response, these discoveries have led to a questioning of the simplicities of the classical clonal selection theory. It is clear today that every single immune response is a cooperative phenomenon involving several different molecular and cellular interactions taking place in a coupled manner. In addition, cross reactivity to different antigens has shown that responses of the whole im mune system to different antigens are not completely isolated from one another and that the history of encounters with different antigens plays a crucial role in the maturation of the whole system. Thus, problems of complexity, generation of di versity and self-organization have entered the field of immunology.to Immune Networks -- I -- Natural Id-Anti-Id Networks and the Immunological Homunculus -- Self-Nonself Immunological Tolerance and Idiotype Networks -- II -- Extensive Percolation in Reasonable Idiotypic Networks -- The Concept of Idiotypic Network: Deficient or Premature? -- Dynamical Behavior of Discrete Models of Jerne’s Network -- Some Reflections on Memory in Shape Space -- III -- Regulation of the Immune Response: A Discrete Mapping Approach -- Simulation of the Immune Cellular Response by Small Neural Networks -- Discrete Time Versus Continuous Time Approach to the Autoimmune Response -- Optimizing the Immune Control of Parasitic Invasion -- Index of Contributors.For a long time, immunology has been dominated by the idea of a simple linear cause-effect relationship between the exposure to an antigen and the production of specific antibodies against that antigen. Clonal selection was the name of the theory based on this idea and it has provided the main concepts to account for the known features of the immune response. More recently, immunologists have discovered a wealth of new facts, in the form of different regulatory cells (helpers, suppressors, antigen presenting cells), genetic determinations of immune responses such as those involved in graft re jections, different molecular structures responsible for intercellular interactions such as interleukins, cytokins, idiotype-antiidiotype recognition and others. While furthering our understanding of the local interactions (molecular and cellular) in volved in the immune response, these discoveries have led to a questioning of the simplicities of the classical clonal selection theory. It is clear today that every single immune response is a cooperative phenomenon involving several different molecular and cellular interactions taking place in a coupled manner. In addition, cross reactivity to different antigens has shown that responses of the whole im mune system to different antigens are not completely isolated from one another and that the history of encounters with different antigens plays a crucial role in the maturation of the whole system. Thus, problems of complexity, generation of di versity and self-organization have entered the field of immunology.Medicine.Immunology.Physical chemistry.Allergy.Biochemistry.Biophysics.Biological physics.Biomedicine.Immunology.Biophysics and Biological Physics.Physical Chemistry.Allergology.Biochemistry, general.Springer eBookshttp://dx.doi.org/10.1007/978-3-642-83935-1URN:ISBN:9783642839351 |