On the computational complexity of spiking neural P systems
Turlough Neary

TL;DR
This paper proves that standard spiking neural P systems cannot simulate Turing machines efficiently with sub-exponential resources, but introduces a universal system with only 10 neurons that does so in linear time.
Contribution
It establishes lower bounds on the simulation efficiency of standard spiking neural P systems and constructs a minimal universal system with linear-time simulation.
Findings
Standard systems require exponential overheads to simulate Turing machines.
A universal spiking neural P system with 10 neurons achieves linear-time simulation.
The minimal number of neurons for universality is significantly reduced.
Abstract
It is shown that there is no standard spiking neural P system that simulates Turing machines with less than exponential time and space overheads. The spiking neural P systems considered here have a constant number of neurons that is independent of the input length. Following this we construct a universal spiking neural P system with exhaustive use of rules that simulates Turing machines in linear time and has only 10 neurons.
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Taxonomy
TopicsDNA and Biological Computing · Cellular Automata and Applications · Advanced biosensing and bioanalysis techniques
