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Fast-light in a photorefractive crystal for gravitational wave detection H. N. Yum
Fast-light in a photorefractive crystal for gravitational wave detection H. N. Yum

... configuration associated with Fig. 1(b). To understand the behavior of the probe in this case, note brief that the gain in Fig. 1(b) is peaked at ω0±Δω with a deep valley in the middle. As such, the components of the probe spectrum at ω0±Δω get amplified disproportionately, leading to a two peaked s ...
Self-Phase-Modulation of Optical Pulses
Self-Phase-Modulation of Optical Pulses

... maximum phase shift which is proportional to input ...
< 1 2

Dispersion (optics)



In optics, dispersion is the phenomenon in which the phase velocity of a wave depends on its frequency.Media having this common property may be termed dispersive media. Sometimes the term chromatic dispersion is used for specificity.Although the term is used in the field of optics to describe light and other electromagnetic waves, dispersion in the same sense can apply to any sort of wave motion such as acoustic dispersion in the case of sound and seismic waves, in gravity waves (ocean waves), and for telecommunication signals propagating along transmission lines (such as coaxial cable) or optical fiber.In optics, one important and familiar consequence of dispersion is the change in the angle of refraction of different colors of light, as seen in the spectrum produced by a dispersive prism and in chromatic aberration of lenses. Design of compound achromatic lenses, in which chromatic aberration is largely cancelled, uses a quantification of a glass's dispersion given by its Abbe number V, where lower Abbe numbers correspond to greater dispersion over the visible spectrum. In some applications such as telecommunications, the absolute phase of a wave is often not important but only the propagation of wave packets or ""pulses""; in that case one is interested only in variations of group velocity with frequency, so-called group-velocity dispersion (GVD).
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