Abstract: A color filter using a surface plasmon includes a metal layer; and a transmissive pattern formed in the metal layer, the transmissive pattern comprising a plurality of sub-wavelength holes having a period, wherein a desired color of light is output by selectively transmitting light of a specific wavelength by using the surface plasmon, and the plurality of sub-wavelength holes are arranged in a triangular lattice having a predetermined number of nearest neighboring holes with respect to a central hole.

Abstract: A light emitting diode includes a first grid layer on a substrate and made of a metal material; a p-n semiconductor multiple-layered film on the first grid layer; and a second grid layer on the p-n semiconductor multiple-layered film and made of a metal material, wherein the first grid layer includes a base layer, and a plurality of first grid wires that protrudes from the base layer and are along a first direction, wherein the second grid layer includes a plurality of second grid wires along a second direction, and wherein the p-n semiconductor multiple-layered film includes an active layer, a n type semiconductor layer between the first grid layer and the active layer, and a p type semiconductor layer between the second grid layer and the active layer.

Abstract: Disclosed are a nano patterning method for fabricating a surface plasmon color filter having a transmissive pattern which selectively transmits light of specific wavelengths, and methods for fabricating a surface plasmon color filter and a liquid crystal display (LCD) device using the same. Used are a stamp which provides a partial electrification region, and a template, thiol-terminated nanospheres which can be self-assembled, thereby fabricating nano holes having a two-dimensional period and arranged in a hexagonal lattice. This may be applied onto a large area of a substrate, and may implement simplified processes and reduced fabrication costs.

Abstract: Discussed are methods for fabricating a color filter using a surface plasmon and a liquid crystal display (LCD) device capable of enhancing a transmittance ratio of an LC panel and simplifying entire processes, by forming a transmissive pattern consisting of a plurality of sub-wavelength holes having a period on a metal layer, and by implementing colors by selectively transmitting light of specific wavelengths with using a surface plasmon phenomenon.

Abstract: Discussed are methods for fabricating a color filter using a surface plasmon and a liquid crystal display (LCD) device capable of enhancing a transmittance ratio of an LC panel and simplifying entire processes, by forming a transmissive pattern consisting of a plurality of sub-wavelength holes having a period on a metal layer, and by implementing colors by selectively transmitting light of specific wavelengths with using a surface plasmon phenomenon.

Abstract: A color filter using a surface plasmon includes a metal layer; and a transmissive pattern formed in the metal layer, the transmissive pattern comprising a plurality of sub-wavelength holes having a period, wherein a desired color of light is output by selectively transmitting light of a specific wavelength by using the surface plasmon, and the plurality of sub-wavelength holes are arranged in a triangular lattice having a predetermined number of nearest neighboring holes with respect to a central hole.

Abstract: Discussed are a color filter using a surface plasmon, a liquid crystal display (LCD) device and a method for fabricating the same, capable of enhancing a transmittance rate of an LC panel, by forming a transmissive pattern having a plurality of sub-wavelength holes having a period at a metal layer so that light of a specific wavelength can be selectively transmitted, and capable of simplifying the entire processed.