monochromaticity

Monochromaticity is achieved either with a crystal monochromator or a time of flight spectrometer.

The rock face of the limestone structure contributes to an overall impression of monochromaticity.

Spectral purity is a quantification of the monochromaticity of a given light sample.

Monochrome theory, on pure monochromaticity.

The most monochromatic sources are usually lasers; such high monochromaticity implies long coherence lengths (up to hundreds of meters).

While the ring laser shares with regular (linear) lasers features like extreme monochromaticity and high directivity, it differs in its inclusion of an area.

Modern flash photolysis experiments often use lasers because of their superior intensity, their monochromaticity and their directed beams.

This gives laser light its characteristic coherence, and allows it to maintain the uniform polarization and often monochromaticity established by the optical cavity design.

The Coherence (physics), high monochromaticity, and ability to reach extremely high Power (physics)s are all properties which allow for these specialized applications.

The resulting intensity and monochromaticity of the beam are unprecedented and will allow new experiments to be conducted involving manipulating atoms and imaging molecules.

And although temporal coherence implies monochromaticity, there are even lasers that emit a broad spectrum of light, or emit different wavelengths of light simultaneously.

The first effect is caused by the non perfect monochromaticity of the photon beam -which results in a finite bandwidth- and by the limited resolving power of the analyser.