The phrase "exciting light" is correct and usable in written English.
You can use it to describe a feeling of anticipation or excitement. For example, "I looked ahead to the future with exciting light."
By controlling the helicity of the exciting light, carriers can be selectively excited based on their spin orientation12,14,26.
The latter results may indicate that the enhancement of Raman scattering by (bulk-like) LO phonons occurs via enhanced absorption of the exciting light in NPs, mediated by the plasmon excitation.
In rare instances e.g., when intense irradiation by laser beams is used or when sufficient thermal energy contributes to the electron excitation process the emitted light can be of shorter wavelength than the exciting light (anti-Stokes radiation).
As exciting light in a scanning confocal microscope encounters a cell and its subcellular components, it is refracted and scattered.
The intense scattering of exciting light imposes limits on FRAP, FLIP, and other techniques employing high intensity laser beams.
But he likes the bars and buskers and frankfurter salesmen who feed off Broadway, all of them washed in a chill, exciting light.
His inventiveness, bolstered by Catherine Zuber's beautiful costumes, Derek McLane's clever set, and Howell Binkley's exciting light design, is an elegant fit with Loesser's dashing score.
The helicity of the exciting light was determined by the angle of the quarter-wave plate, which controls the spin orientation of the carriers.
Optically transparent cocatalyst film materials is very desirable for improved photoelectrochemical (PEC) oxygen evolution reaction (OER) over light harvesting photoelectrodes which require the exciting light to irradiate through the cocatalyst side, i.e., front-side illumination.
One of the key problems, occurring with the measurement setup, is investigated in this contribution: the penetration depth of the exciting light and the fluorescence intensity at the melt strand surface was previously unknown.
As explained below, this difference in wavelength is caused by a transformation of the exciting light, to a greater or lesser extent, to nonradiating vibration energy of atoms or ions.
