Brain produces a low-amplitude electrical signal resulting from the ionic activities that take place in it.
The effects of doping on the electromigration and void formation in molten GST are explored by studying the model of a large and symmetric line-shaped GST cell doped with nitrogen, oxygen and bismuth, using high-amplitude electrical pulse stress.
A detailed understanding of such effects is of paramount importance in controlling scroll-wave turbulence by low-amplitude electrical stimuli; the development of such control methods is the computational analog of low-amplitude defibrillation.
2, 7 Neuromuscular electrical stimulation (NMES) entails the use of a low-amplitude electrical pulse to induce involuntary muscle contractions.
SEA is defined as minute loci within TrPs that produce characteristic low-amplitude electrical activity [ 15, 16].
Previous studies have shown that the MTrP region includes active loci where it is possible to identify low-amplitude electrical activity (i.e., SEA), which was attributed to motor endplate dysfunction termed endplate noise.
Needle electromyography (EMG) studies have demonstrated that MTrPs contain minute loci that produce characteristic low-amplitude electrical activity [ 10, 15, 16] (i.e. active locus), which is described by in the literature as spontaneous electrical activity (SEA).
This paper deals with the problem to regulate the nodal voltage amplitude in electrical power systems.
The increased amplitude of electrical conductivity of the composites increases with the increasing amount of CNTs added.
The results showed that by increasing the incident angle, due to increase of amplitude of electrical oscillations, transverse oscillations shift towards longer wavelengths.
