Abstract:
A see-through head or helmet mounted display device (10) comprises a see-through member (18) having a see-through area (22). The see-through member (18) includes a plurality of display segments (20; 20a, 20b) for emitting visible light. The plurality of display segments (20; 20a, 20b) is provided within the see-through area (22) in a mutually spaced manner such that the see-through area (22) includes a see-through zone (24) between each pair of adjacent display segments (20; 20a, 20b). The see-through zone (24) allows visible light to pass through the see-through member (18). The see-through member (18) further includes a plurality of holographic optical elements (26; 26a, 26b) provided within the see-through area (22). Each holographic optical element (26; 26a, 26b) is associated with a respective display segment (20; 20a, 20b). Each display segment (20; 20a, 20b) is located in a focal plane of the associated holographic optical element (26; 26a, 26b) and each holographic optical element (26; 26a, 26b) is adapted to collimate the visible light emitted by the associated display segment (20; 20a, 20b).
Abstract:
The apparatus for selectively transmitting the spectrum of electromagnetic radiation within a predefined wavelength range is provided with a carrier (115), a pinhole diaphragm which is arranged above the carrier (115) and is made of a material that is substantially impermeable to the radiation of interest, wherein the pinhole diaphragm has at least one radiation passage opening with a size for allowing through radiation at a wavelength which is less than or equal to a predefinable upper limit wavelength, and an electrically insulating and optically transparent dielectric layer (103) which is formed on the carrier (115) inside the radiation passage opening and extends, in a manner adjoining the radiation passage opening, between the carrier (115) and at least one section below the pinhole diaphragm. The dielectric layer (103) has a thickness which is less than or equal to half a predefinable lower limit wavelength which is less than the upper limit wavelength.
Abstract:
In one or more embodiments described herein, there is provided an apparatus including a first layer for detecting electromagnetic signalling, and a second layer positioned proximate to the first layer. The first layer includes graphene, and the second layer is configured to undergo plasmonic resonance in response to receiving electromagnetic signalling. This plasmonic resonance that the second layer undergoes thereby sensitizes the graphene of the first layer to detection of particular spectral characteristics of received electromagnetic signalling corresponding to the particular plasmonic resonance of the second layer.
Abstract:
A liquid crystal display device (1) according to an embodiment includes an array substrate (6), a color filter substrate (5), a liquid crystal layer (7), a backlight unit (4), and a controller (12). The array substrate (6) includes a plurality of pixel electrodes corresponding to a plurality of pixels arranged in a matrix. The color filter substrate (5) is opposed to the array substrate (6) and includes color filters corresponding to the plurality of pixels. The liquid crystal layer (7) is provided between the array substrate (6) and the color filter substrate (5). The backlight unit (4) is provided on a back surface side of the array substrate (6). The controller (12) is configured to control an application timing of a liquid crystal driving voltage to the pixel electrodes, and a light emission timing of the backlight unit (4). The plurality of pixels are configured to each have a shape which is elongated in a lateral direction, and configured such that identical colors are arranged in the lateral direction, and different colors are arranged in a vertical direction. Pixels neighboring in the lateral direction of the plurality of pixels have shapes of line-symmetry with respect to a center line of the neighboring pixels, and liquid crystal molecules of the neighboring pixels tilt in directions of the line-symmetry with respect to the center line when the liquid crystal driving voltage is applied to the pixel electrodes corresponding to the neighboring pixels.
Abstract:
This display color filter is provided with: a transparent substrate (1); an ink fixing layer (2) that comprises a synthetic resin and that is formed one at least one surface of the transparent substrate (1); and coloring layers (3, 4, 5) that are formed from coloring ink by means of an inkjet printing method at any given position on the ink fixing layer (2). The coloring ink contains at least 70% of a solvent having a boiling point of at least 150°C, and the solubility of the ink fixing layer (2) with respect to the solvent is 0.5-5%.
Abstract:
Colored radiation-sensitive composition includes (A) a dye multimer, (B) an alkali-soluble resin containing at least one kind of repeating unit selected from a group consisting of a repeating unit represented by the following Formula (b1) and a repeating unit represented by the following Formula (b2), (C) a polymerizable compound, and (D) a photopolymerization initiator. In the formulae, each of R 1 and R 4 independently represents a hydrogen atom, an aryl group, or an alkyl group, and among these, an aryl group is preferable. R 2 represents a hydrogen atom or a methyl group, R 3 represents an alkylene group having 2 or 3 carbon atoms, and m represents an integer from 1 to 15.
Abstract translation:着色放射线敏感性组合物包括(A)一个多聚体染料,(B)含有至少一种重复单元从一组由下述式(b1)表示的重复单元中选出的和的重复单元的碱溶性树脂 由下述式(b2)中,(C)可聚合化合物,和(D)光聚合引发剂来表示。 在式餐饮每个R 1和R 4unabhängig的darstellt的氢原子的芳基,或烷基,和论文中,在芳基是优选的。 R 2表示在具有2或3个碳原子,和1至15°米darstellt整数亚烷基的氢原子或甲基,R 3 darstellt。