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Organometallic Compounds for Nonlinear Optics—The Search for En‐light‐enment!
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142
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1995
Year
Optical MaterialsEngineeringNonlinear OpticsOrganic ChemistryChemistryPolymersOptical PropertiesNonlinear Optical PhenomenaOptical SwitchingMaterials SciencePhotonicsNon-linear OpticOptoelectronic MaterialsPhotonic MaterialsNonlinear CrystalsOrganometallic PolymerOrganic Material ChemistryOrganometallic CompoundsElectronic MaterialsCrystalsMolecule-based MaterialFunctional Materials
Nonlinear optical phenomena have long been valued, and since the mid‑1980s interest has surged in developing materials for applications such as information processing, optical switching, frequency conversion, and telecommunications, yet no single system satisfies all needs, prompting exploration of organometallic compounds that offer diverse properties. The review aims to update and critically appraise organometallic nonlinear optical systems while providing a concise introduction to nonlinear optics. Chemists are elucidating the factors governing second‑ and third‑order nonlinear activity and tailoring organometallic species to enhance these effects. Corrigendum available at DOI: 10.1002/anie.199508261.
Abstract The importance of nonlinear optical phenomena has been known for some time, however, since the mid‐1980s, there has been an explosion of interest in the search for and development of non‐linear optical materials that possess commercial device applications. To date, the systems have been utilized in information processing, optical switching, optical frequency conversion, and telecommunications, and with the advancing development of optotechnology, burgeoning demands for suitable materials are becoming apparent. Of the many systems studied for example inorganic crystals and semiconductors, organic crystalline monomers, and long‐chain polymers with delocalized π electrons, no one species has proved to be all‐encompassing, with advantages for one application being negated by disadvantages for another. This is likely to remain the case for the foreseeable future with the criteria of the application governing the type of material used. However, chemists are gradually elucidating what actually governs second‐ and third‐order nonlinear activity and thereby, tailoring species to show greater effects. In recent years, organometallic compounds, through their unique characteristics such as diversity of metals, oxidation states, ligands, and geometries, have found success and brought a new dimension to the area. This review attempts, with critical appraisal, to bring the discussion of organometallic nonlinear optical systems up to date, as well as giving a brief but general introduction to the field of nonlinear optics. For corrigendum see DOI: 10.1002/anie.199508261
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