PVC composite internal process of current-voltage time delay formation and conductivity levels lifetimes origin
D.V. Vlasov

TL;DR
This paper models the internal processes in PVC composites that lead to current-voltage delay formation and conductivity lifetime, proposing a reversible dehydrochlorination mechanism to explain observed electrical phenomena.
Contribution
It introduces a new model linking dehydrochlorination reactions to delay times and conductivity states in PVC composites, enhancing understanding of their switching behavior.
Findings
Reversible dehydrochlorination explains delay times.
Model predicts spontaneous and stimulated conduction transitions.
Aligns observed phenomena with theoretical behavior.
Abstract
In the previously described model of interpreting the numerous results in the switching states of the conduction in the films of PVC composites [1,2] was noted the need to involve hopping mechanism and percolation theory to explain the phenomenon of giant jumps conductivity, just as was done for the interpretation of such jumps for disordered semiconductor films. It was also shown that to explain the totality of spontaneous and stimulated transitions between states of the conduction in PVC composites requires the existence of an internal process that is able to produce a fixed observable current - voltage delay and switching electrical conductivity levels lifetime. In this paper one of the possible relaxation processes that lead to the emergence of the delay time, and the occurrence of spontaneous and stimulated transitions sample conductivity of nanocomposites PVC is presented. In…
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Taxonomy
TopicsAdvanced Memory and Neural Computing · Physical Unclonable Functions (PUFs) and Hardware Security · Neural dynamics and brain function
