Combination Lines in the Stimulated Raman Spectrum of Styrene

Bortfeld, D. P.; Geller, M.; Eckhardt, Gisela

doi:10.1063/1.1725395

Cited by 14 publications

(1 citation statement)

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“…A similar theory has been developed by Statz and de Mars (1960) and by Fleck andKidder (1964, 1965) and extended by Bostick and O'Connor (1962) to account for the damping of relaxation oscillations in U3+ : CaF,.…”

Section: V2ravvmentioning

confidence: 88%

Doped-crystal and gas lasers

Goodwin

Heavens

1968

Rep. Prog. Phys.

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2.7. Mode locking , 2.8. Parametric effects in lasers, 3. Properties of resonant cavities . 3.1. Methods of attack . 3.2. Diffraction treatment , 3.3. Diffraction treatment for uniaxial anisotropic media 3.4. Waveguide treatment . 3.5. Modes in systems with output coupling holes 3.6. Modes in systems with gain saturation . 3.7. Unstable resonators . 3.8. Influence of intensity-dependent anomalous dispersion 4.1. The helium-neon system . 4.2. Ion lasers . 4.3. Molecular lasers . 4.4. Other gas lasers . 5. Raman and Brillouin lasers . 5.1. Theory of stimulated Raman scattering 5.2. Raman laser materials . 5.3. Raman shift in polar crystals 6.1. Energy levels in optical solids 6.2. Spontaneous emission in optical solids 6.3. Laser transitions . 7. Losses within solid laser materials 7.1. Loss measurements , 8. Doped-crystal systems. . 8.1. The trivalent rare earths . 8.2. The divalent rare earths . 8.3. The actinides . 8.4. Transition ions , 9. Energy transfer processes . .

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Section: V2ravvmentioning

confidence: 88%