Photorefractive Semiconductors and Quantum-Well Structures

Nolte, David D.; Iwamoto, Satoshi; Kuroda, Kazuyuki

doi:10.1007/0-387-34081-5_11

Cited by 1 publication

(1 citation statement)

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“…For inorganic crystals, the operational wavelength depends on the properties of the respective crystal and its doping and processing 100% internal diffraction effi ciency is never reached in practice due to internal losses. Complete internal diffraction usually refers to over-modulation of the signal (see experimental Section) in transmission geometry at η > 90%; b) interband photorefraction, here SPS at 480/532 nm; c) microcavity enhanced; [ 44 ] λ < 500 nm; k) λ = 1064 nm; [ 37 ] l) SPS, λ = 1064 nm; [ 40 ] m) 25 kHz repetition rate under imaging conditions; [ 48 ] n)…”

Section: Wavelengthmentioning

confidence: 99%

Organic Photorefractive Materials and Applications

2011

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This review describes recent advances and applications in the field of organic photorefractive materials, an interesting area in the field of organic electronics and promising candidate for various aspects of photonic applications. We describe the current state of knowledge about the processes involved in the formation of photorefractive gratings in organic materials and focus on the chemical and photo‐physical aspects of the material structures employed in low glass‐transition temperature amorphous composites and organic photorefractive glasses. State‐of‐the art materials are highlighted and recent demonstrations of photonic applications relying on the reversible holographic nature of the photorefractive materials are discussed.

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Section: Wavelengthmentioning

confidence: 99%