Abstract
Socio-economic networks describe collective phenomena through constraints relating actions of several agents, coalitions of these agents and multilinear connectionist operators acting on the set of actions of each coalition. We provide a class of control systems governing the evolution of actions, coalitions and multilinear connectionist operators under which the architecture of the network remains viable. The controls are the “viability multipliers” of the “resource space” in which the constraints are defined. They are involved as “tensor products” of the actions of the coalitions and the viability multiplier, allowing to encapsulate in this dynamical and multilinear framework the concept of Hebbian learning rules in neural networks in the form of “multi-Hebbian” dynamics in the evolution of connectionist operators. They are also involved in the evolution of coalitions through the “cost” of the constraints under the viability multiplier regarded as a price.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Preview
Unable to display preview. Download preview PDF.
Similar content being viewed by others
References
Aubin J.-P. (1979), “Mathematical Methods of Game and Economic Theory”, Studies in Mathematics and its applications, 7, North- Holland.
Aubin J.-P. (1981a), “Cooperative fuzzy games”, Mathematical Operational Research, 6, 1–13.
Aubin J.-P. (198 lb), “Locally lipchitz cooperative games”, J. Math. Economics, 8, 241–262.
Aubin J.-P. (1982), “An alternative mathematical description of a player in game theory”, IIASA WP, 82–122.
Aubin J.-P. (1991), Viability Theory, Birkhäuser, Boston, Basel, Berlin.
Aubin J.-P. (1993), “Beyond Neural Networks: Cognitive Systems”, in Demongeot J., Capasso (eds.) Mathematics Applied to Biology and Medicine, Wuers, Winnipeg.
Aubin J.-P. (1995), “Learning as adaptive control of synaptic matrices”, in Arbib M. (ed.) The handbook of brain theory and neural networks, Bradford Books and MIT Press.
Aubin J.-P. (1996), Neural Networks and Qualitative Physics: A Viability Approach,Cambridge University Press.
Aubin J.-P. (1997) Dynamic Economic Theory: a Viability Approach,Springer-Verlag.
Aubin J.-P. (1998 a), Optima and equilibria (2“1e edition), Springer-Verlag.
Aubin J.-P. (1998 b), “Connectionist complexity and its evolution”, in Equations aux dérivées partielles, Articles dédies à J.-L. Lions,Elsevier, 50–79.
Aubin J.-P. (1998 c), “Minimal complexity and maximal decentralization”, in Beckmann H.J., Johansson B., Snickars F, Thord D. (eds.) Knowledge and Information in a Dynamic Economy,Springer, 83–104.
Aubin J.-P. (1999), Mutational and morphological analysis: tools for shape regulation and morphogenesis,Birkhäuser.
Aubin J.-P. (2002), “Dynamic Core of Fuzzy Dynamical Cooperative Games, Annals of Dynamic Games”, Ninth International Symposium on Dynamical Games and Applications, Adelaide, 2000.
Aubin J.-P. (to be edited), La mort du devin, l’émergence du démiurge. Essai sur la contingence, l’inertie et la viabilité des systèmes.
Aubin J.-P., Burnod Y. (1998), “Hebbian Learning in Neural Networks with Gates”, Cahiers du Centre de Recherche Viabilité, Jeux, Contrôle 981.
Aubin J.-P., Cellina A. (1984), Differential Inclusions,Springer-Verlag.
Aubin J.-P., Dordan O. (1996), “Fuzzy Systems, Viability Theory and Toll Sets”, in Hung Nguyen (ed.) Handbook of Fuzzy Systems, Modeling and Control, Kluwer, 461–488.
Aubin J.-P., Foray D. (1998), “The emergence of network organizations in processes of technological choice: a viability approach”, in Cohendet P., Llerena P., Stahn H., Umbhauer G. (eds.), The economics of networks, Springer, 283–290.
Aubin J.-P., Frankowska H. (1990) Set-Valued Analysis.
Aubin J.-P., Louis-Guerin C., Zavalloni M. (1979) Comptabilité entre conduites sociales réelles dans les groupes et les représentations symboliques de ces groupes: un essai de formalisation mathématique, Math. Sci. Hum., 68, 27–61.
Aubin J.-P., Pujal D., Saint-Pierre P. (2001), Dynamic Management of Portfolios with Transaction Costs under Tychastic Uncertainty,preprint.
Basile A., De Simone A., Graziano M.G. (1996), “On the Aubin-like characterization of competitive equilibria in infinite-dimensional economies”, Rivista di Matematica per le Scienze Economiche e Sociali, 19, 187–213.
Basile A. (1993), “Finitely additive nonatomic coalition production economies: Core-Walras equivalence”, Int. Econ. Rew., 34, 993–995.
Basile A. (1994), “Finitely additive correpondences”, Procedings AMS 121, 883–891.
Basile A. (to be edited) On the range of certain additive correspondences,Universita di Napoli Bonneuil N. (2000), “Viability in dynamic social networks”, Journal of Mathematical Sociology,24175–182.
Bonneuil N. (1998) “Games, equilibria, and population regulation under viability constraints: An interpretation of the work of the anthropologist Fredrik Barth”, Population: An English selection, special issue of New Methodological Approaches in the Biological Sciences, 151–179.
Bonneuil N. (1998), “Population paths implied by the mean number of pairwise nucleotide differences among mitochondrial sequences”, Annals of Human Genetics, 62, 61–73.
Bonneuil N., Rosental P.-A. (2002), “Changing social mobility in 19th century France”, Historical Methods, Spring, 32, 53–73.
Bonneuil N., Saint-Pierre P. (2000), “Protected polymorphism in the theo-locus haploid model with unpredictable firnesses”, Journal of Mathematical Biology, 40, 251–377.
Bonneuil N., Saint-Pierre P. (1998), “Domaine de victoire et stratégies viables dans le cas d’une correspondance non convexe: application à l’anthropologie des pêcheurs selon Fredrik Barth”, Mathématiques et Sciences Humaines, 132, 43–66.
Chaitin G.J. (1992), Algorithmic information theory,Cambridge University Press.
Chauvet G. (1995), La vie dans la matière,Flammarion.
Day R.H. (1994) Complex Economic Dynamics, Vol. 1, An introduction to dynamical systems and market mechanims,MIT Press.
Day R.H. (to be edited) Complex Economic Dynamics, Vol. II, An introduction to macroeconomic dynamics,MIT Press.
Deghdak M., Florenzano M. (1999), “Decentralizing Edgeworth equilibria in economies with many commodities”, Economic Theory, 14, 287–310.
Elton C. (1958), The ecology of invasion in plants and animals,Cambridge University Press.
Filar J.A., Petrosjan L.A. (2000), Dynamic cooperative games, International Game, Theory Review, 2, 47–65.
Florenzano M. (1990), “Edgeworth equilibria, fuzzy core and equilibria of a production economy without ordered preferences”, Journal of Math. Anal. Appl., 153, 18–36.
Florenzano M., Marakulin V.M. (2001), “Production equilibria in vector lattices”, Economic Theory, 20.
Henry C. (1972), “Differential equations with discontinuous right hand side”, Journal of Economic Theory, 4, 545–551.
Hutchinson G.E. (1959), “Hommage to Santa Rosalia, or why there are so many kinds of animals”, American Naturalist, 93, 145–159.
Ioannides Y.M. (1997), “Evolution of trading structures”, in Arthur, Durlauf, Lane (eds.) The Economy as an evolving complex system, Addison-Wesley.
Lamarck J.-B. (1809), Philosophie biologique.
Livi R., Ruffo S., Ciliberto S., Buatti M. (eds) (1988), Chaos and complexity,Word Scientific. Mares M. (2001), Fuzzy cooperative games. Cooperation with vague expectations,Physica Verlag
May R.M. (1973), Stability and complexity in model ecosytems,Princeton University Press.
Mayr E. (1988), Toward a new philosophy of biology,Harvard University Press.
Mishizaki I. Sokawa M. (2001), Fuzzy and multiobjective games for conflict resolution,Physica Verlag.
Parisi G. (1990), “Emergence of a tree structure in complex systems”, in Solbrig O.T., Nicolis C. (eds.) Perspectives on biological complexity, IUBS monograph series, 6.
Parisi G. (1992), Order, disorder and simulations,World Scientific.
Parisi G. (1996), Sulla complessità, in Fra ordine e caos, Turno M., Liotta E., Oruscci F. (eds ), Cosmopoli.
Peliti L., Vulpiani A. (eds) (1987) Measures of complexity,Springer-Verlag.
Petrosjan L.A. (2001), “Dynamic Cooperative Games” Annals of Dynamic Games.
Petrosjan L.A., Zenkevitch N.A. (1996), Game Theory World Scientific.
Rockafellar R.T., Wets R. (1997), Variational Analysis Springer-Verlag.
Saari D.G. (1995), Mathematical complexity of simple economics Notices of AMS.
Saint-Pierre P. (2001), “Approximation of capture basins for hybrid systems”, Proceedings of the ECC 2001 Conference.
Shimokawa T., Pakdaman K., Takahata T., Tanabe S. Sato S. (to be edited), “A first-passage-time analysis of the periodically forced noisy leaky integrate-and-fire model” Biological cybernetics.
Shimokawa T., Pakdaman K. & Sato S. (1999)Coherence resonance in a noisy leaky integrate-and-fire model.
Shimokawa T., Pakdaman K., Sato S. (1999), “Time-scale matching in the response of a leaky integrate-and-fire neuron model to periodic stimulation with additive noise”, Physical Review E, 59, 3427–3443.
Smith J.M. (1974), Models in ecology,Cambridge University Press.
Weaver W. (1948), “Science and complexity” American Scientist, 36, 536.
Wigner E. (1960), “The unreasonable effectiveness of mathematics in the natural sciences”, Communications in Pure and Applied Mathematics, 13, 1.
Author information
Authors and Affiliations
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 2003 Springer Science+Business Media Dordrecht
About this chapter
Cite this chapter
Aubin, JP. (2003). Evolution of complex economic systems and uncertain information. In: Lesage, C., Cottrell, M. (eds) Connectionist Approaches in Economics and Management Sciences. Advances in Computational Management Science, vol 6. Springer, Boston, MA. https://doi.org/10.1007/978-1-4757-3722-6_1
Download citation
DOI: https://doi.org/10.1007/978-1-4757-3722-6_1
Publisher Name: Springer, Boston, MA
Print ISBN: 978-1-4419-5379-7
Online ISBN: 978-1-4757-3722-6
eBook Packages: Springer Book Archive