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Active plasmonic and metamaterials and devices

机译:有源等离子和超材料和设备

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This communication focuses on the integration of organic nonlinear optical and gain materials into plasmonic and metamaterial device architectures and most specifically focuses on the integration of organic electro-optic (OEO) materials into such structures. The central focus is on structures that lead to sub-optical wavelength concentration of light (mode confinement) and the interaction of photonic and plasmonic modes. Optical loss and bandwidth limitations are serious issues with such structures and optical loss is evaluated for prototype device architectures associated with the use of silver and gold nanoparticles and membranes supporting plasmonic resonances. Electro-optic activity in organic materials requires that chromophores exhibit finite noncentrosymmetric organization. Because of material conductivity and integration issues, plasmonic and metamaterial device architectures are more challenging than conventional triple stack all-organic device architectures and electro-optic of a given OEO material may be an order of magnitude less in such structures. Because of this, we have turned to a variety of materials processing options for such integration including crystal growth, sequential synthesis/self assembly, and electric field poling of materials deposited from solution or by vapor deposition. Recent demonstration of integration of silicon photonic modulator and lithium niobate modulator structures with metallic plasmonic structures represent a severe challenge for organic electro-optic material plasmonic devices as these devices afford high bandwidth operation and attractive V^L performance. Optical loss remains a challenge for all structures.
机译:此次交流的重点是将有机非线性光学和增益材料集成到等离子体和超材料设备结构中,最具体地说是将有机电光(OEO)材料集成到此类结构中。焦点集中在导致光的亚光学波长集中(模式限制)以及光子和等离子体模式相互作用的结构上。光学损耗和带宽限制是此类结构的严重问题,对于与使用银和金纳米颗粒以及支持等离子体共振的膜相关的原型设备架构,对光学损耗进行了评估。有机材料中的电光活性要求发色团表现出有限的非中心对称组织。由于材料的导电性和集成问题,等离子和超材料器件结构比传统的三层堆叠全有机器件结构更具挑战性,给定的OEO材料的电光在这种结构中可能要小一个数量级。因此,我们已经为实现这种集成选择了多种材料处理选项,包括晶体生长,顺序合成/自组装以及从溶液或气相沉积中沉积材料的电场极化。硅光子调制器和铌酸锂调制器结构与金属等离激元结构的集成的最新证明对有机电光材料等离激元器件提出了严峻的挑战,因为这些器件提供了高带宽操作和诱人的V L性能。光损耗仍然是所有结构的挑战。

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