Title :
Suppressing chaos with hysteresis in a higher order neural network
Author_Institution :
Sch. of Comput. & Math., Deakin Univ., Clayton, Vic., Australia
fDate :
12/1/1996 12:00:00 AM
Abstract :
Artificial neural networks (ANNs) attempt to mimic various features of a most powerful computational system-the human brain. Since ANNs consist of a large number of parallel arrays of simple processing elements (neurons), they are naturally suited for today´s fast-developing VLSI technology. For instance, a programmable analog neural oscillator with hysteresis appropriate for monolithic integrated circuits. Dynamic systems have many applications; however, stability is often desired. We show analytically that hysteresis at the single neuron level can provide a simple means to preserve stability in an ANN even when the nature of the system is chaotic
Keywords :
chaos; hysteresis; neural nets; stability; VLSI technology; chaos suppression; higher order neural network; hysteresis; neurons; parallel arrays; processing elements; stability; Artificial neural networks; Biological neural networks; Chaos; Circuit stability; Computer networks; Humans; Hysteresis; Neural networks; Neurons; Very large scale integration;
Journal_Title :
Circuits and Systems II: Analog and Digital Signal Processing, IEEE Transactions on