Sentence examples for a typical frequency from inspiring English sources

Figure 1 shows a typical frequency transient for a generation loss of 1320 MW based on a severe frequency event [12, 13].

Figure 2A shows a typical frequency decrease (mass increase) as a function of time, in response to the addition of PhaR.

In vibrational systems it is readily shown that a typical frequency response function is non-stationary and non-ergodic, so that the Lorentzian and ensemble averages can differ significantly, and this means that the standard proof of the AE requirement breaks down.

In a typical frequency discrimination experiment, listeners are presented, on each trial, with two consecutive tones and are asked to determine which of the two is higher in pitch.

27, 28 REAC works within a typical frequency range of 2.4, 5.8, or 10.5 GHz, selected by the operator for each specific protocol.

For comparison, a typical frequency histogram and microarray plot for a comparison of gene expression between two halves of the same cell (half-vs-half, or split-cell hybridization) are also shown (Fig. 2; see below for further details).

Air and Teflon were investigated as low-loss materials, whilst ethanol was used as a typical, frequency-dependent, polar material to further verify the technique.

The relative dielectric constant decreased with an increase in the applied frequency, and the PZT/BFO multilayer thin films showed a typical frequency-dispersion property.

The relative dielectric constant decreases (ε BNT ′ = 198, ε BNF/NZF ′ = 149, and ε NZF/BNF ′ = 124 at 100 Hz), and the dielectric loss (tanδ) increases (tanδ BNT = 0.16, tanδ BNF/NZF = 0.31, and tanδ NZF/BNF = 0.23 at 100 Hz) than that of the BNF monolayer film throughout the whole test frequency, and the composite films show a typical frequency-dispersion property [26].

The analysis is carried out both considering a typical frequency-domain formulation based on kinetic energy and structural power physical quantities, which is normally used to study vibration and noise problems, and a time-domain formulation also based on kinetic energy and structural power, which is usually implemented to investigate control problems.

Now, they may have an answer: After analyzing recordings of the elk bugling calls, researchers discovered that they actually comprise two parts the high-pitched shrieking that can reach frequencies above 2000 hertz (heard in the video above) and a simultaneous, lower-pitched call around 145 hertz, a more typical frequency for an elk-sized animal.