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Adaptive Behavior, Vol. 2, No. 3, 219-246 (1994)
DOI: 10.1177/105971239400200301
© 1994 International Society of Adaptive Behavior

Sequential Behavior and Learning in Evolved Dynamical Neural Networks

Brian M. Yamauchi

Case Western Reserve University

Randall D. Beer

Case Western Reserve University

This article explores the use of a real-valued modular genetic algorithm to evolve continuous-time recurrent neural networks capable of sequential behavior and learning. We evolve networks that can generate a fixed sequence of outputs in response to an external trigger occurring at varying intervals of time. We also evolve networks that can learn to generate one of a set of possible sequences based on reinforcement from the environment. Finally, we utilize concepts from dynamical systems theory to understand the operation of some of these evolved networks. A novel feature of our approach is that we assume neither an a priori discretization of states or time nor an a priori learning algorithm that explicitly modifies network parameters during learning. Rather, we merely expose dynamical neural networks to tasks that require sequential behavior and learning and allow the genetic algorithm to evolve network dynamics capable of accomplishing these tasks.

Key Words: neural networks • genetic algorithms • sequential behavior; reinforcement learning


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