4.7 Article

Normal forms for spiking neural P systems and some of its variants

Journal

INFORMATION SCIENCES
Volume 595, Issue -, Pages 344-363

Publisher

ELSEVIER SCIENCE INC
DOI: 10.1016/j.ins.2022.03.002

Keywords

Membrane computing; Spiking neural P systems; Structural plasticity; Normal forms

Funding

  1. ERDT program of the DOST-SEI, Philippines
  2. University of the Philippines Diliman
  3. National Natural Science Foundation of China [61872309, 61972138, 62102140]
  4. Hunan Provincial Natural Science Foundation of China [2020JJ4215]
  5. Key Research and Development Program of Changsha [kq2004016]

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Spiking Neural P (SN P) systems are membrane computing systems that simulate the behavior of spiking neurons. These systems utilize features such as neuron forgetting and synaptic creation and removal, and they exhibit universality. Our research shows that, for certain parameters such as rule quantity and regular expression type, our results are optimal.
Spiking Neural P (SN P) systems are membrane computing systems that are abstracted from the behavior of spiking neurons, or brain cells. These systems take advantage of various features, such as the ability of neurons to forget, the ability of neurons to create and remove synapses, and many others. Some variants of SN P systems are (1) SN P systems with Structural Plasticity, which include the ability to create and delete synapses, and (2) SN P systems with Rules on Synapses, which associates rules with synapses instead of with neurons. The main results of this work show that for SN P systems, having only one type of regular expression in the entire system is sufficient for universality. Moreover, for the two variants of SN P systems mentioned above, having a maximum of one rule per neuron and one regular expression in the system is sufficient for universality. For normal forms with such parameters, e.g. number of rules per neuron, types of regular expressions in the system, our universality results are optimal. We also show some optimisations on the types of neurons in a system, involving the removal of some unbounded neurons in favour of simpler and bounded neurons.(c) 2022 Published by Elsevier Inc.

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