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  1. No Access

    Chapter

    Fundamentals of Raman Amplification in Fibers

    Raman scattering was discovered independently and almost simultaneously in 1928 by groups in India and Russia [1, 2]. If C.V. Raman had not published first we might know Raman scattering as the Landsberg-Mandelst...

    R. H. Stolen in Raman Amplifiers for Telecommunications 1 (2004)

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    Chapter

    Overview of Fiber Nonlinear Optics

    This paper presents an overview and introduction to a series of lectures on fiber nonlinear optics. Specific examples of fiber-grating pulse compression, materials, and second harmonic generation in fibers are...

    R. H. Stolen in Guided Wave Nonlinear Optics (1992)

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    Chapter

    Second Harmonic Generation in Optical Fibers

    Second harmonic generation was not expected to play an important role in fiber nonlinear optics. In contrast to bulk and planar guided-wave nonlinear optics, where so-called χ(2) phenomena such as second harmonic...

    R. H. Stolen in Nonlinear Waves in Solid State Physics (1990)

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    Article

    Materials and Processing Requirements for Efficient Fiber Optic Nonlinear Devices

    Materials and structures for efficient nonlinear devices are discussed in terms of Raman amplification, nonlinear switching, and self-organized gratings.

    R. H. Stolen in MRS Online Proceedings Library (1989)

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    Chapter and Conference Paper

    Generation of 0.41-Picosecond Pulses by the Single-Stage Compression of Frequency Doubled Nd: YAG Laser Pulses

    The technique of optical pulse compression utilizing self-phase modulation (SPM) to chirp the pulse in a single-mode fiber followed by a grating-pair dispersive delay line has been very successful in compressi...

    A. M. Johnson, R. H. Stolen, W. M. Simpson in Ultrafast Phenomena IV (1984)

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    Chapter and Conference Paper

    Procedure for Calculating Optical Pulse Compression from Fiber-Grating Combinations

    An optical pulse can be compressed by a dispersive grating pair after first inducing a frequency chirp in a single-mode optical fiber [1,2]. It is of interest to know how much compression is possible and what ...

    R. H. Stolen, C. V. Shank, W. J. Tomlinson in Ultrafast Phenomena IV (1984)

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    Chapter and Conference Paper

    The Soliton Laser

    The soliton laser, a novel concept in ultrashort-pulse lasers, is a mode-locked laser using pulse compression and solitons in a single-mode fiber to force the laser itself to produce pulses of a well-defined s...

    L. F. Mollenauer, R. H. Stolen in Ultrafast Phenomena IV (1984)

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    Chapter

    Active Fibers

    Optical fibers are usually considered to be passive(3) or linear media. In actual fact, optical fibers can exhibit wavelength conversion and other nonlinear optical effects at powers as low as a few milliwats.

    R. H. Stolen in New Directions in Guided Wave and Coherent Optics (1984)

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    Chapter

    Nonlinear Propagation Effects in Glass Fibers

    Nonlinearities in optical fibers constitute a rich and diverse field of interest for devices, for the limits imposed on fiber transmission, and for the study of nonlinear optics. The basic properties of fiber ...

    R. H. Stolen, P. A. Fleury, H. Gibbs in Coherence and Energy Transfer in Glasses (1984)

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    Chapter

    Fiber Raman Lasers

    Optical fibers can exhibit wavelength conversion and other nonlinear optical effects at powers less than one watt. The reason has little to do with the glass in the fiber core, which is one of the least nonlin...

    R. H. Stolen in Fiber and Integrated Optics (1979)

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    Chapter

    Two Photon and Two-Step Absorption in Glass Optical Waveguide

    We have observed a variety of phenomena in studies of two photon effects in glass optical waveguides. The long interaction lengths in fibers provide great sensitivity to weak effects so that these techniques a...

    R. H. Stolen, C. Lin in Optical Properties of Highly Transparent Solids (1975)