91results about How to "Reduce surface reflection" patented technology

A display device 100 has a display unit 110 and a display switching unit 120. The display switching unit 120 is provided with a reflective polarizing plate 121, a liquid crystal panel 122, and a polarizing plate 123 arranged in this order from the side of the display unit 110 to the observation side. By controlling the liquid crystal panel 122, the display switching unit can be switched between a light transmissive state and a light reflective state. The display unit 110 and the display switching unit 120 are optically adhered to each other by an adhesive layer 131. Thus, deterioration of the contrast by boundary reflection can be restrained, and the flatness and the rigidity of the device can be improved.

A thin film transistor for use in an active matrix liquid crystal display includes a substrate, a source and a drain regions, and at least a gate electrode. The substrate includes therein a plurality of intrinsic regions, at least one first doped region and two second doped regions. The first doped region is disposed between the plurality of intrinsic regions. The plurality of intrinsic regions are linked together to form a connection structure via the first doped region, and the two second doped regions are disposed at both ends of the connection structure, respectively. The source and the drain regions are coupled to the two second doped regions disposed at both ends of the connection structure, respectively. The gate electrode is disposed over the plurality of intrinsic regions, such that the periphery of each of the plurality of intrinsic regions and the periphery of a corresponding gate electrode are substantially aligned with each other.

The invention provides a quantum dot liquid crystal display device. A color film substrate (10) of a quantum dot liquid crystal display device comprises a first substrate (11), a quantum dot color filter (12) arranged on the first substrate (11), close to the side of a liquid crystal layer 30, a one-way light guide film (13) arranged on the first substrate (11), far away from the side of the liquid crystal layer 30, and an anti-reflection film (14) arranged on the one-way light guide film (13). The one-way light guide film (13) can prevent light rays from entering the internal of the liquid crystal display device and motivating quantum dots, so as to solve problems of contrast reduction and color cast caused by excitation of natural light on the quantum dots. The anti-reflection film (14) can solve problems of glare of a liquid crystal display panel and reflective images, so as to improve watching comfort level of lookers. Thus, the quantum dot liquid crystal display device has high contrast and low surface reflection, double images and glare dazzling phenomenon do not exist, and watching comfort level is high.

An imaging optical lens includes six lens elements, the six lens elements being, in order from an object side to an image side: a first lens element; a second lens element having an image-side surface being concave in a paraxial region thereof, a third lens element having an object-side surface being convex in a paraxial region thereof, a fourth lens element, a fifth lens element, and a sixth lens element having negative refractive power.

To obtain a monomer having a large torsion force, to obtain a liquid crystal polymer which is excellent in a film-forming property, can easily control a helical pitch of a cholesteric phase, can form a grandjean orientation in a good monodomain state by an orientation treatment in a short time such as few minutes, and can stably fix it in a glass state, and to obtain an optical element having a circular dichroism, represented by the following formula (a), comprising a solidified product of the liquid crystal polymer, which is thin and light, is hard to change the oriented state such as pitch, etc., at a practical temperature, and has excellent durability and storage stability.An optically active monomer represented by(wherein R1 represents a hydrogen atom or a methyl group, and A and B represent an organic group); a side chain type liquid crystal polymer having a structural unit comprising the optically active monomer; and an optical element showing a circular dichroism having a solidified layer of a grandjean oriented cholesteric liquid crystal phase comprising the liquid crystal polymer.

A display device that includes a reflective electrode; a transparent electrode; a partition; an EL layer formed over the partition and the transparent electrode; a semi-transmissive electrode formed over the EL layer; and a coloring layer over the semi-transmissive electrode. A light-emitting region is formed to overlap with the transparent electrode, the EL layer, the semi-transmissive electrode, and the coloring layer. A non-light-emitting region is formed to overlap with the transparent electrode, the partition, the EL layer, and the coloring layer. The non-light-emitting region is formed to surround the light-emitting region. The sum of the optical length of the transparent electrode and the optical length of the EL layer is adjusted to fulfill a condition of a microcavity intensifying light of the color of the coloring layer. The optical length of the partition in the non-light-emitting region is adjusted to weaken external light incident through the coloring layer.

A method for electromagnetic geophysical surveying of rock formations (1) under a sea-floor (3) comprising the following steps: *—towing first and second alternating field (E1, E2) emitting sources (s1, S2) in first and second depths below the sea surface, said first field (E1) having a first phase (Φ1);—said second alternating field (E2) given a second phase (Φ2) different from said first phase (Φ1), said sources (S1, S2) constituting a phased array emitter antenna with directivity for transmitting a major proportion of the combined electromagnetic energy downwards;—said first and second fields (E1, E2) for propagating partly down through the sea-floor (3) and being reflected and / or refracted through said rock formations (1) and partly propagating back through the seafloor (3);—said first and said second fields (E1, E2) for merging to a total field and being measured by electromagnetic receivers (r1, r2, . . . , rn) recording corresponding field registrations (Er1(t), Er2(t), Er3(t), . . . , Ern(t)).