A Group Theory Approach to Tailored Optical Properties of Metamaterials: An Inverse Problem Methodology
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PIER B
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IEEE Antennas and Wireless Propagation Letters
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IEEE Transactions on Antennas and Propagation
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Journal of Materials Chemistry
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Journal of Materials Chemistry
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Physical Biology
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Optics InfoBase Conference Papers
Dielectric resonators are an effective means to realize isotropic, low-loss optical metamaterials. As proof of this concept, a cubic resonator is analytically designed and then tested in the long-wave infrared. © 2010 Optical Society of America.
Optics Express
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Physical Review A
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Most far-field optical imaging systems rely on a lens and spatially-resolved detection to probe distinct locations on the object. We describe and demonstrate a novel high-speed wide-field approach to imaging that instead measures the complex spatial Fourier transform of the object by detecting its spatially-integrated response to dynamic acousto-optically synthesized structured illumination. Tomographic filtered backprojection is applied to reconstruct the object in two or three dimensions. This technique decouples depth-of-field and working-distance from resolution, in contrast to conventional imaging, and can be used to image biological and synthetic structures in fluoresced or scattered light employing coherent or broadband illumination. We discuss the electronically programmable transfer function of the optical system and its implications for imaging dynamic processes. Finally, we present for the first time two-dimensional high-resolution image reconstructions demonstrating a three-orders-of-magnitude improvement in depth-of-field over conventional lens-based microscopy.
IEEE Antennas and Wireless Propagation Letters
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