Abstract:
PROBLEM TO BE SOLVED: To provide a display device capable of realizing high contrast, high-speed response, and low power consumption.SOLUTION: An electrophoretic element 30 comprises: migration particles 32; a porous layer 33 formed by a fibrous structure including non-migration particles with different optical reflection characteristics from that of the migration particles 32 and having a plurality of pores 34; and a partition wall 35 partly adjacent to the porous layer 33 from the opposite side of a display surface and forming spaces (cells 36) for housing the migration particles 32. The proportion of the area of the pores 34 occupied in the unit area of the porous layer 33 is smaller in an adjacent region R1 in which the partition wall 35 is adjacent to the porous layer 33 than in a non-adjacent region R2 in which the partition wall 35 is not adjacent to the porous layer 33.
Abstract:
PROBLEM TO BE SOLVED: To provide a wire grid polarizer where the thickness of a metal filament in the traveling direction of light is large, and a method of manufacturing the wire grid polarizer for easily preparing the wire grid polarizer and preparing the polarizer even when its size exceeds a wafer size. SOLUTION: A plurality of narrow and linear projecting parts 2 are formed on the surface of an optically transparent support body 1 so that they are arranged in parallel with each other at a constant pitch P. Upper metal layers 4 are formed on the top surfaces of the projecting parts 2, side metal layers 5 are formed on the whole side surfaces and sides of the projecting parts 2 while being connected to the upper metal layers 4, and a metal filament 6 is constituted by each upper metal layer 4 and each side metal layer 5. The upper metal layers 4 and the side metal layers 5 are formed by depositing a metal material from an oblique direction by a vapor deposition method or a sputtering method, for example. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a display device which can achieve high contrast, high-speed response, and low power consumption.SOLUTION: An electrophoretic element includes migrating particles, a porous layer formed of fibrous structures including non-migrating particles whose optical reflection characteristics are different from those of the migrating particles, and a pair of electrodes arranged through the porous layer. The porous layer is adjacent to at least one of the pair of electrodes.
Abstract:
PROBLEM TO BE SOLVED: To provide a display device capable of improving contrast and response speed.SOLUTION: A drive substrate 30 and a counter substrate 40 are disposed facing each other via an electrophoretic element 50 and a spacer 60. Electrophoretic particles 52 of the electrophoretic element 50 each include a core and a coating part provided on at least a part of the surface of the core. The coating part includes a polymer material having a charge group. The mean grain size of the electrophoretic particles 52 is 50 nm to 150 nm, a ratio of the coating part to the core part is 16 wt.% to 50 wt.%, and a ratio of the charge group to the coating part is 0.5 wt.% to 3.4 wt.%.
Abstract:
PROBLEM TO BE SOLVED: To provide a color conversion member that suppresses deterioration of a phosphor at low cost, and to provide a display device using the same.SOLUTION: A phosphor sheet 10A is formed by sealing a two-layer structure comprising a red conversion layer 12 including a red phosphor 12a and a green conversion layer 11 including a green phosphor 11a between barrier films 13A and 13B. A barrier film 13C is provided between the red conversion layer 12 and the green conversion layer 11. In the red conversion layer 12, entry of water vapor and the like from the barrier film 13A side is suppressed by two films of the barrier films 13A and 13C. In the green conversion layer 11, entry of water vapor and the like from the barrier film 13B side is suppressed by two films of the barrier films 13B and 13C.
Abstract:
PROBLEM TO BE SOLVED: To provide an optical member for suppressing generation of light loss between phosphor layers to carry out color conversion, and a display using this. SOLUTION: As for the display 1, between a display panel 20 and a light source part 12, sequentially from the light source part 12 side, a diffusion plate 13, the phosphor layer 14, a protective layer 15, a diffusion film 16, a lens film 17, and a reflection type polarizing film 18 are laminated sequentially. The phosphor layer 14 is installed directly on a light-emitting face of the diffusion plate 13, and the protective layer 15 is formed on a surface of this phosphor layer 14. Since the phosphor layer 14 is integrally installed with the diffusion plate 13, a refractive index difference between the phosphor layer 14 and the diffusion plate 13 is smaller than that in the case an air layer is interposed. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a wire grid polarization device exhibiting excellent polarization characteristic, a method of manufacturing the same and a liquid crystal display using the wire grid polarization device and having excellent image display performance. SOLUTION: The method of manufacturing the wire grid polarization device 10 is carried out by making particles incident to a uneven structural surface of a grid structural layer 12 on a transparent substrate 11 having an one-dimensional grating uneven structure from an oblique direction by a drive process to form an Al-Si alloy layer 13 on projecting parts 12a of the uneven structure. The Si content in the Al-Si alloy layer 13 is controlled to 0.05-1.5 wt.%. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method for manufacturing a wire grid polarizing film being manufacturable in a simple process without requiring highly precise specifications for a mold, to provide the wire grid polarizing film manufactured by this manufacturing method, and to provide a liquid crystal display using this wire grid polarizing film. SOLUTION: In this method for manufacturing the wire grid polarizing film, close adhesion force between a surface of a substrate 11 and a metallic thin film 13L is smaller than close adhesion force between a grid structure layer 12 and the metallic thin film 13L on the surface of the substrate 11, the grid structure layer 12 forming a bottom face of a recessed part 12b into a condition in which the surface of the substrate 11 is exposed is formed, then the metallic thin film 13L is formed on a recessed and projecting face of the grid structure layer 12, and then the metallic thin film 13L in the recessed part 12b is peeled off to manufacture the wire grid polarizing film 10 provided with a metallic layer 13 having a wire grid structure on the transparent substrate 11. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a pickup slider capable of performing high-density recording by a simple structure without any deterioration of S/N or an error rate. SOLUTION: The pickup slider includes a light transmission/reception substrate 11 having a light emitting element such as a vertical cavity surface emission laser 111 and a photodetector 112 as a light emitting element, an opening 131a for generating a proximity field light, based on a light emitted from the light emitting element, a probe 13 having an air lubricating surface 134 formed on the surface having the opening 131a, and cores 121 and 122 disposed between the light reception/transmission substrate 11 and a probe 12 as waveguides to guide the light emitted from the light emitting element to the opening of the probe 13 and to guide the light made incident from this opening to the photodetector 112. High-density recording is carried out by using the near-field light oozed from the opening of the probe. As the light emitting element, the light receiving element, the waveguide and the probe are integrated, the transmission loss of a light is limited, the deterioration of S/N or an error rate is small, and a structure is simple. COPYRIGHT: (C)2007,JPO&INPIT