Sentence examples for electrode products from inspiring English sources

While platinum is considered relatively stable for these applications, chambers were connected via agar-salt bridges in order to further filter out potentially harmful electrode products.

Real time detection of the electrode products as a function of potential during the electrolysis is desirable for fundamental analyses of the electrode processes.

Agar bridges were used to avoid contact between electrode products and the cells [2].

This work illustrates a novel example of capillary electrophoresis used online with thin-layer electrolysis to separate and detect electrode reaction products.

A coupling technique of thin-layer electrolysis with high-performance capillary electrophoresis/UV vis technique EC/HPCE/UV vis) is developed for online separation and determination of electrode reaction products.

EEG scalp recordings were performed by a 16-channel V-Amp amplifier and ActiCap BP active electrodes (Brain Products GmBH, Germany).

As the electrode enzymes' product mixture begins to change, the reaction would trigger the logic gate unique to shock and, potentially, signal for the release of the appropriate medication.

Radial dispersion in high geometric aspect ratio, thin cylindrical electrolytic cells is analysed with respect to controlling the reconversion of an electrode reaction product at the opposite electrode.

An equation for the selectivity of the primary electrode reaction product is derived as a function of the limiting degree of conversion of substrate and of the kinetic parameter expressing the ratio of the intervening homogenous reaction rate constant and of the rate constant of electrolysis.

In the first kind of mechanism the contaminant in the non-detectable form is the substrate of the enzyme (target analyte) and is converted into a detectable form which in turn can be reduced or oxidized on the surface of an electrode; the product is directly determined by the transducer.

Here the relationship between reactive substances and consumption of electricity is described by (7) W = Q M n F = i × t × M n × F where W is the weight (g) of reacting substance, Q is the electricity through the electrode (the product of current i and time t), M is the molar mass of the reactive substance, F is the Faraday constant and n is the number of transferring electrons.