Nec Corporation

Nec Lcd Technologies, Ltd.

Nlt Technologies, Ltd.

Other

Merck Patent Gmbh

Samsung Electronics Co., Ltd.

Softbank Corporation

Metal One Corporation

Gold Charm Limited

Teruaki Suzuki

Masayoshi Suzuki

Shinichi Nishida

Yoshihiko Hirai

Ken Sumiyoshi

Hiroshi Kanoh

Toshiya Ishii

Michiaki Sakamoto

Seiji Suzuki

Yuji Yamamoto

Mamoru Okamoto

Ken-Ichi Takatori

Hiroaki Matsuyama

Kiyomi Kawada

Makoto Watanabe

Hidenori Ikeno

Hideya Murai

Hironori Kikkawa

Yoshikazu Sakaguchi

Takahiko Watanabe

Yuichi Yamaguchi

Sounosuke Takahashi

Fujio Okumura

Shinichi Uehara

Yuki Hirayama

Eriko Fujimaki

Tomohisa Goto

Hideki Itou

Setsuo Kaneko

Takayuki Konno

Hideo Shibahara

Hiroshi Kanou

Tadashi Kishimoto

Yusuke Nogami

Yoichi Sasaki

Taku Kawasaki

Takashi Nose

Hiroaki Tanaka

Naoyasu Ikeda

Shinichi Nakata

Hiroshi Hayama

Daishi Yokoyama

Katsuto Taniguchi

Koichi Yanai

Hirofumi Ihara

Junichi Miyakawa

Hirotaka Yamaguchi

Syuusaku Kido

Ehud Shaviv

Denis Glozman

Kenji Yokota

Julian Burschka

Masatsugu Nishi

Tomomi Nakagawa

Riri Nomoto

Takayuki Nihei

Hoshito Ueyama

Seishi Shibayama

Shin-ichi Nishida

Christian-Hubertus Kuechenthal

The present invention relates to a composition comprising a (meth)acrylate monomer.

(Meth)acrylate composition

A method of manufacturing a composition with improved quantum yield, containing at least these steps: a/ manufacturing a mixture by at least these steps: 1/ providing a semiconducting light emitting nanoparticle, 2/ adding a macromolecular compound comprising at least an anchoring group; 3/ adding an organic additive, and b/ subjecting the mixture from step a/ to irradiation with light of a wavelength in the range of 300 to 600 nm having an intensity in the range of 0.025 to 1 W/cmto obtain the composition; wherein the organic additive is defined by formula (Ia): M-(X—Y), wherein M is a divalent metal ion, X is a hydrocarbon chain, and Y is a functional group.

Composition comprising semiconducting light emitting nanoparticles

The present invention relates to a composition comprising a semiconducting light emitting nanoparticle.

Composition comprising a semiconducting light emitting nanoparticle

The present invention relates to a composition comprising a nanoparticle.

Composition

A joint structure for steel pipes according to the invention includes a pair of steel pipes having male threads formed at end portions thereof, and a coupling having a pair of sets of female threads formed therein so that the male threads of the pair of steel pipes screw in the pair of the sets of female threads, respectively. Distal end surfaces at the end portions of the steel pipes have inner circumferential edges each protruding in a direction of a pipe axis with respect to outer circumferential edges thereof. When the pair of steel pipes are coupled to each other by the coupling and the inner circumferential edges of the distal end surfaces of the pair of steel pipes are brought into contact with each other, a gap is formed between the outer circumferential edges of the distal end surfaces of the pair of steel pipes.

Joint structure for steel pipes and method of manufacturing the same

Communication becomes impossible for many mobile stations when a communication failure occurs in a fixed station while the mobile stations are operating in an infrastructure mode. Provided is a communication system that includes a plurality of mobile stations and at least one of a base station and a wireless LAN access point, wherein the plurality of mobile stations establish communication with each other and form an ad hoc network that realizes a mesh network topology, and at least one mobile station among the plurality of mobile stations establishes communication with at least one of the base station and the wireless LAN access point, and connects another mobile station among the plurality of mobile stations to the at least one of the base station and the wireless LAN access point using a tethering function.

Communication system

A liquid crystal display device includes a first substrate, a second substrate, and a liquid crystal layer sandwiched between the first and second substrates. The first substrate includes first to N-th 1st retardation plates arranged on the first transparent substrate, and the second substrate includes first to N-th 2nd retardation plates arranged on the second transparent substrate. Assuming that a retardation plate among the first to N-th 1st retardation plates has an optical axis arranged at a first angle relative to a reference direction and a retardation plate among the first to N-th 2nd retardation plates, corresponding to the retardation plate among the first to N-th 1st retardation plates, has an optical axis arranged at a second angle relative to the reference direction, the first and second angles are different from each other by about 90 degrees.

Liquid crystal display device and method of fabricating the same

Disclosed is an active matrix liquid crystal display device including: an active matrix liquid crystal display device of a normally black mode which includes an active matrix substrate and an opposed substrate and in which a black matrix is not provided on the opposed substrate, wherein a gap between opaque electrodes which are closely located and whose electric potentials are different from each other in a frame portion around a display area of the active matrix substrate is covered with a constant-potential transparent electrode arranged in an upper layer of the gap.

Normally black mode active matrix liquid crystal display device wherein a part of an edge of a protection transistor provided in a frame portion is covered with a transparent electrode

An active matrix liquid crystal display device of the invention includes a liquid crystal display panel operating in a normally black mode having a first substrate provided with a color filter and a second substrate provided with an active matrix array, wherein the first substrate is provided with a laminated colored layer with three colors, a laminated colored layer with two colors and a colored layer with one color in a frame part surrounding a display area without being provided with a black matrix, and the second substrate is provided with a conductive film formed in a region which is opposed to the laminated colored layer with two colors and the colored layer with one color, between the display area and the laminated colored layer with three colors.

Active matrix type liquid crystal display device and manufacturing process for the same

A lateral electric field type active-matrix addressing liquid crystal display device suppresses the lateral cross talk induced by the coupling capacitances (i.e., the parasitic capacitances) between the drain bus lines and the common bus line corresponding thereto with a simple structure. In each of the pixel electrodes, at least one electrically isolated light-shielding electrode is formed to extend along the drain bus lines that define the pixel electrode near the same drain bus lines. The light-shielding electrode is overlapped with a part of a corresponding one of the pixel electrodes to the pixel region in such a way that an insulating film intervenes between the light-shielding electrode and the part, the part extending along these drain bus lines in the vicinities thereof. The light-shielding electrode may be electrically connected to the corresponding one of the pixel electrodes at a point in the pixel region.

Lateral electric field type active-matrix addressing liquid crystal display device

In order to improve the light transmissivity above the transparent comb-teeth electrodes provided in an in-plane switching mode active matrix liquid crystal display unit, the liquid crystal gaps above the transparent comb-teeth electrodes are made larger than the liquid crystal gaps between the transparent comb-teeth electrodes.

In-plane switching mode active matrix liquid crystal display unit

Disclosed is an active matrix liquid crystal display device including substrates and a liquid crystal layer. The substrate includes: scan signal wiring lines; common signal wiring lines; video signal wiring lines intersecting these wiring lines; and pixels surrounded with the scan signal wiring lines and the video signal wiring lines. Each of pixels includes: a thin film transistor; source electrodes in a layer with the video signal wiring lines; pixel electrodes connected to the source electrodes; and common electrodes connected to the common signal wiring lines. The source electrodes include first parts overlapping the scan signal wiring lines and second parts connecting with the pixel electrodes, which are positioned around central parts between the video signal wiring lines. Molecular axes in the liquid crystal layer rotate under an electric field applied between the pixel electrodes and the common electrodes.

Liquid crystal display device

A light shield member in a LCD unit includes a first shield section that includes a pile of two color filter patterns and separates each effective opening of pixel from an effective opening of the adjacent pixel, and a second shield section that includes a pile of three color filter patterns and shields a TFT area including a TFT and the vicinity thereof.

Method for manufacturing a color filter substrate

Growing community of inventors

Tokyo, Japan

Teruaki Suzuki