Rat ventricular cardiomyocytes were seeded on porous alginate scaffolds and subjected to a homogenous fluid flow regime with electrical stimulation.
Electrical impedance tomography revealed homogenous ventilation distribution in prone position during PEEP 20, 30 and 20d.
AF electrical remodelling in these homogenous models led to persistence of spiral waves, and AF fibrotic remodelling to their breakdown into fibrillatory activity.
When compared with low frequency plasma, microwave plasma is found to have better electrical properties such as no electric shock for safety, high discharge current for effective chemical reactions, clean waveform for homogenous plasma, and high power coupling efficiency.
A homogenous VGCNF dispersion does not necessarily imply better electrical properties.
Homogenous biofilms on all anodes were created by electrical circuit alternation and electrostimulation.
A homogenous dispersion of the VGCNF does not imply better electrical properties.
In this situation, electrical properties and pulse response resembled those in homogenous plasma system.
In the homogenous model of normal atria, a single scroll breaks down onto spatio-temporal irregularity (electrical fibrillation) that is self-terminating; while in the AF remodelled atria the fibrillatory activity is persistent.
