Models have been developed to cover the full range of dispersed phase volume fraction, based on tortuosity or effective path between electrodes.
The gold nanoparticles connected through the photochromic molecules can serve as a conducting path between electrodes [10, 11].
Regarding these assumptions three pathways of oxygen exchange are taken into account in the following discussion: a bulk path through the electrode (I), a surface path along the Pt electrode (II) and an alternative surface path along the free YSZ surface (III).
When the ground connection was attached underneath the projection path of the electrode, the droplet deflection disappeared.
The disordered carbon, which covered the surfaces of and voids between the primary particles, acts as a buffer layer for volume expansion, and the RGO, that interconnected the hollow secondary particles, provides a 2D-electronic path to the electrode.
Among these devices, the CNT film serves multiple functions as a hole collector, charge transport path, and transparent electrode.
The presented results show significant differences on the path loss between electrode positions due to the different dielectric properties of tissues.
This almost constant residual ESR is attributed mainly to the silicon electrical path: the nickel electrode has a much lower series resistance which accounts to less than 1 mΩ, while the silicon current path is narrower, as is mainly located near the surface of the silicon walls, and has higher resistivity (about 15 mΩ·m).
Recordings were performed at 30 to 40 sites along the path of one electrode penetration.
Neuronal activity was recorded systematically every 200 µm, dorso-ventrally along the path of an electrode penetration, independently of the presence or absence of responses to the stimuli we used, between 800 1800 and 4200 5200 µm below the surface of the brain.
