Sentence examples for high-frequency branch from inspiring English sources

High-frequency branch of the E2.

The broad dip at ~825 cm−1 is associated with overlapping of the high-frequency branch of the plasmon-LO-phonon coupled mode (LPP+) of the n+ layers.

As can be seen, the high-frequency branch of the LOPC modes (LPP+) at carrier concentrations lower than 1017 cm−3 (n0 layer and template) almost coincide with E 1 LO) phonon mode.

The sharp and strong peak at around 437 can1 can be attributed to the high-frequency branch of the E2 (E2(high)) mode of ZnO, which is the strongest, and typical Raman-active branch of the wurtzite crystal structure [31].

Also, the sharpest and the strongest peak at 437 cm −1 can be assigned E 2 (high) due to the high-frequency branch of E 2 mode of ZnO, which is the strongest and characteristic mode of wurtzite crystal structure [50 55].

High-frequency branches ω 1 are independent on the incident angle θ, which indicates localization of surface plasmons.

The sharpest and strongest peak at about 437 cm-1 can be assigned to the high frequency branch of the E2 mode of ZnO, which is the main Raman mode in the wurtzite crystal structure.

Calculated from the spectral dependence of dielectric permittivity LOPC modes for each GaN layer showed high-frequency shift and broadening of LPP+ branch with the increase in carrier concentration.

One peak at lower frequency reflected backbone relaxation and the other at higher frequency reflected branch relaxation.

Amylopectin has a degree of polymerization (DP) on the order of 104 – 105 glucose units per molecule, and contains a relatively high frequency of branch linkages, approximately 5%.

The branches were sorted into "high-frequency baseline" and "low frequency baseline" by their spontaneous activity, measured by the average spontaneous activity from three individual seconds of recording, selected at random, before the first stimulus was delivered.