Abstract
At the beginning of this story is John von Neumann. As far back as 1948 he introduced the idea of a theory of automata in a conference at the Hixon Symposium, September 1948 (von Neumann, 1951). From that time on, he worked to what he described himself not as a theory, but as “an imperfectly articulated and hardly formalized ”body of experience“ (introduction to ”The Computer and the Brain“, written around 1955-56 and published after his death (von Neumann, 1958)). He worked up to conceive the first cellular automaton (he is also said to have introduced the cellular epithet (Burks, 1972)). He also left interesting views about implied mathematics, including logics, probabilities, leading from the discrete to the continuous (von Neumann, 1951; von Neumann, 1956; von Neumann, 1966).
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Preview
Unable to display preview. Download preview PDF.
References
Albert J. and Culik II K. A simple universal cellular automaton and its one-way totalistic version. Complex Systems. Vol. no. 1: 1–16, 1987.
Allouche J.-P., v. Haeseler F., Peitgen H.-O. and Skordev G. Linear cellular automata, finite automata and Pascal’s triangle. Discrete App!. Math. Vol. no. 66: 1–22, 1996.
Allouche J.-P., v. Haeseler F., Peitgen H.-O., Petersen A. and Skordev G. Automaticity of double sequences generated by one-dimensional cellular automata. To appear in Theoretical Computer Science.
Aso H. and Honda N. Dynamical Characteristics of Linear Cellular Automata. Journal of Computer and System Sciences. Vol. no. 30: 291–317: 1985.
Banks E. R. Universality in Cellular Automata. I.E.E.E. Ann. Symp. Switching and Automata Theory. Santa Monica, Vol. no. 11: 194–215, 1970.
Bartlett R. and Garzon M. Monomial Cellular Automata. Complex Systems. Vol. no. 7: 367–388, 1993.
Bartlett R. and Garzon M. Bilinear Cellular Automata. Complex Systems. Vol. no. 9: 455–476, 1995.
Blanchard F., Kfu-ka P. and Maass A. Topological and measure-theoretic properties of one-dimensional cellular automata. Physica D. Vol. no. 103: 86–99, 1997.
Burks E. Essays on Cellular Automata,University of Illinois Press, 1972.
Burks E. Theory of Self-reproduction, University of Illinois Press, Chicago, 1966.
Byl J. Self-reproduction in small cellular automata. Physica D. Vol. no. 34: 295–299, 1989.
Cayley A. Theory of groups. American Journal of Mathematics. Vol. no. 1: 50–52, 1878.
Choffrut C. and (ulik II K. On real-time cellular automata and trellis automata. Acta Informatica. Vol. no. 21: 393–407, 1984.
Codd E.F. Cellular Automata, Academic Press, New York, 1968.
Cole S. Real-time computation by n-dimensional iterative arrays of finite-state machine. IEEE Trans. Comput.Vol. no. C-18: 349–365, 1969.
Čulik II K. and Yu S. Undecidability of CA classification schemes. Complex Systems. Vol. no. 2: 177–190, 1988.
Čulik II K., Pachl J. and Yu S. On the limit sets of cellular automata. SIAM J. Comput. Vol. 18 no. 4: 831–842, 1989.
Čulik II K., Dube S. Fractal and Recurrent Behavior of Cellular Automata. Complex Systems. Vol. no. 3: 253–267, 1989.
Cutland N. Computability,Cambridge University Press, 1980.
Delorme M., Mazoyer J. and Tougne L. Discrete parabolas and circles on 2D-cellular automata. To appear in Theoretical Computer Science.
Dubacq J.-C. How to simulate Turing machines by invertible one-dimensional cellular automata. International Journal of Foundations of Computer Science,Vol.6 no. 4: 395–402, 1995.
Durand B. Global properties of 2D-cellular automata. in Cellular Automata and Complex Systems, Golès E. and Martinez S. Eds, Kluwer, 1998.
Fischer P.C. Generation of primes by a one dimensional real time iterative array. Journal of A.C.M. Vol. no. 12: 388–394, 1965.
Gajardo A. Universality in a 2-dimensional cellular space with a neighborhood of cardinality 3. Preprint, 1998.
Garzon M. Cyclic Automata. Theoretical Computer Science,Vol. no. 53: 307–317, 1987.
Garzon M. Cayley Automata. Theoretical Computer Science,Vol. no. 103: 83–102, 1993.
Garzon M. Models of Massive Parallelism,Springer, 1995.
Godsil C. and Imrich W. Embedding graphs in Cayley graphs. Graphs and Combinatorics,Vol. no. 3: 39–43, 1987.
Goles E., Maass A. and Martinez S. On the Limit Set of some Universal Cellular Automata. Theoretical Computer Science,Vol. no. 110: 53–78, 1993.
Head T. One-dimensional cellular automata: injectivity from unambiguity. Complex systems,Vol. no. 3: 343–348, 1989.
Hedlund G. Transformations commuting with the shift. In: Topological Dynamics, eds. Auslander J. and Gottschalk W. G. ( Benjamin, New York, 1968 ), 259
Hedlund G. Endomorphisms and automorphisms of the shift dynamical system. Math. Syst. Theor. Vol. 3 no. 320, 1969.
Heen O. Economie de ressources sur Automates Cellulaires. Diplôme de Doctorat, Université Paris 7 (in french), 1996.
Hurd L. Formal language characterizations of cellular automata limit sets. Complex Systems Vol. 1 no. 1: 69–80, 1987.
Ishii S. Measure theoretic approach to the classification of cellular automata. Discrete Applied Mathematics Vol. no. 39: 125–136, 1992.
Jen E. Linear cellular automata and recurrence systems in finite fields. Comm. Math. Physics Vol. no. 119: 13–28, 1988.
Kari J. Reversibility and surjectivity problems of cellular automata. Journal of Computer and System Sciences,Vol. no. 48: 149–182, 1994.
Langton C. Self-Reproduction in Cellular Automata. Physica,Vol. no. 100: 135–144, 1984.
Lindgren K. and Nordahl M. Universal computation in simple one dimensional cellular automata. Complex Systems Vol. no. 4: 299–318, 1990.
Macle A. and Mignosi F. Garden of Eden configurations for cellular automata on Cayley graphs of groups. SIAM Journal on Discrete Mathematics,Vol. no. 6: 44–56, 1993.
Martin O., Odlyzko A. and Wolfram S. Algebraic properties of cellular automata. Comm. Math. Phys., Vol. no. 93: 219–258, 1984.
Martin B. A universal automaton in quasi-linear time with its s-n-m form. Theoretical Computer Science Vol. no. 124: 199–237, 1994.
Mazoyer J. Computations on one-dimensional cellular automaton. Annals of Mathematics and Artificial Intelligence Vol. no. 16: 285–309, 1996.
Mazoyer J. and Rapaport I. Inducing an order on cellular automata by a grouping operation. in STACS’98, LNCS Vol. 1373: 116–127, 1998.
Mazoyer J. and Terrier V. Signals on one dimensional cellular automata. To appear in Theoretical Computer Science., 1998.
McCullough W. and Pitts W. A logical calculus of the ideas immanent in nervous activity. Bull. Math. Biophys.,Vol. no. 5: 115–133, 1943.
Minsky M. Finite and infinite machines. Prentice Hall, 1967.
Morita K. A Simple Construction Method of a Reversible Finite Automaton out of Fred-kin Gates, and its Related Model. Transactions of the IEICE,Vol. no. E: 978–984, 1990.
Morita K. and Imai K. A Simple Self-Reproducing Cellular Automaton with Shape-Encoding Mechanism. Artificial Life V, 1996.
Moore E. F. Machine models of self-reproduction. Proc. Symp. Appl. Math. Vol. no. 14: 17–33, 1962.
Mosconi J. La constitution de la théorie des automates. Thèse d’Etat, Université Paris 1, 1989.
Myhill J. The converse of Moore’s garden-of-eden theorem. Proc. AMS Vol. no. 14: 685–686, 1963.
Peitgen H.-O., Rodenhausen A. and Skordev G. Self-similar Functions Generated by Cellular Automata. Research Report 426, Bremen University, 1998.
Reimen N. Superposable Trellis Automata. LNCS,Vol. no. 629: 472–482, 1992.
Richardson D.Tesselations with local transformations. Journal of Computer and System Sciences,Vol. no. 5: 373–388, 1972.
Rogers H. Theory of Recursive Functions and Effective Computability,MIT Press, 1967.
Rdka Zs. Simulations between Cellular Automata on Cayley Graphs. To appear in Theoretical Computer Science, 1998.
Smith III A. Real-time language recognition by one-dimensional cellular automata. Journal of Computer and System Sciences Vol. no. 6: 233–253, 1972.
Smith III A. Simple computation-universal spaces. Journal of ACM. Vol. no. 18: 339–353, 1971.
Smith III A. Simple Non-trivial Self-Reproducing Machines. Proceedings of the Second Artificial Life Workshop, Santa Fe: 709–725, 1991.
Sutner K. De Bruijn graphs and linear cellular automata. Complex Systems Vol.5 no. 1: 19–30, 1991.
Thatcher J. Universality in the von Neumann cellular model. Tech. Report 03105–30-T, University of Michigan, 1964.
Turing A. On computable numbers, with an application to the Entscheidungsproblem. P. London Math. Soc. Vol. no. 42: 230–265, 1936.
von Neumann J. The General and Logical Theory of Automata. in Collected Works, Vol. 5, Taub. A., Eds, New York: Pergamon Press: 288–328, 1963.
von Neumann J. The Computer and the Brain,Yale University Press, New Haven, 1958.
von Neumann J. Theory of Self-reproducing automata,University of Illinois Press, Chicago, 1966.
von Neumann J. Probabilistic logic and the synthesis of reliable organisms from unreliable components,Shannon and McCarthy Eds, Princeton University Press, Princeton, 1956.
Wagner K. and Wechsung G. Computational Complexity. Reidel, 1986.
Wiener N. Cybernetics, or control and communication in the animal and the machine, M.I.T. Press, New Haven, 1961.
Willson S. Cellular automata can generate fractals. Discrete Applied Mathematics,Vol. no. 8: 91–99, 1984.
Wolfram S. Twenty problems in the theory of cellular automata. Physica Scripta Vol. no. 79: 170–183, 1985.
Wolfram S. Theory and Applications of Cellular Automata,World Scientific, 1986.
Author information
Authors and Affiliations
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 1999 Springer Science+Business Media Dordrecht
About this chapter
Cite this chapter
Delorme, M. (1999). An Introduction to Cellular Automata. In: Delorme, M., Mazoyer, J. (eds) Cellular Automata. Mathematics and Its Applications, vol 460. Springer, Dordrecht. https://doi.org/10.1007/978-94-015-9153-9_1
Download citation
DOI: https://doi.org/10.1007/978-94-015-9153-9_1
Publisher Name: Springer, Dordrecht
Print ISBN: 978-90-481-5143-1
Online ISBN: 978-94-015-9153-9
eBook Packages: Springer Book Archive