Sentence examples for voltage deflection from inspiring English sources

Action potential (AP) amplitude was measured from the threshold to the peak of the voltage deflection.

Input resistance was quantified from the steady-state voltage deflection upon injection of small hyperpolarizing currents under current clamp conditions.

The P3 is denoted by a positive voltage deflection typically occurring between 300 600 ms post-stimulus and is a valid indicator of the extent to which a given stimulus bears similarity to the target.

Input resistance (RN) was calculated as the slope of a linear fit of the steady-state voltage deflection evoked by a series of hyperpolarizing current injections from −60 to 0 pA.

Thus, the greater the divergence from that equilibrium potential at the peak of the voltage deflection, the greater the driving force for Ih ions and the greater the effect they exert on the cell's membrane potential.

The first at the peak of the hyperpolarizing voltage deflection that follows an evoked train of six action potentials (figure 1B) and the second at delay of 200 msec after pulse offset.

In contrast, A. ceylanicum L4s recovered from hamsters exhibited robust, sustained EPG activity, consisting of three waveforms: (1) conventional pumps as seen in other nematodes; (2) rapid voltage deflections, associated with irregular contractions of the esophagus and openings of the esophogeal-intestinal valve (termed a 'flutter'); and (3) hybrid waveforms, which we classified as pumps.

Input resistances were approximated by linear regression of voltage deflections.

Both upward and downward voltage deflections were included as peaks, and those with more regular frequencies (i.e. smaller standard deviations of the peak intervals) were selected for data analysis.

Input resistances were measured by the steady state response to a 100 ms pulse of −5 mV in voltage clamp, or using a linear regression of voltage deflections in response to small current steps (between 5 pA and 50 pA), with equivalent results.

Similar to the experimental results described above and shown in Fig. 4B, our finite element model shows that when electrodes are placed close together (Fig. 5A, B), the voltage distribution across the electrodes can cause variable voltage deflections in different cells (Fig. 5A, B).