Abstract: Substrate material processing equipment includes: a substrate material conveying section receiving a substrate material from a first line and conveying it to a second line; a first substrate material dividing section dividing the substrate material; a substrate material recovery section recovering the substrate material from its start edge formed by division; a substrate material supply section supplying a substrate material to an end edge of the substrate material which is formed by division; a first substrate material joining section joining the end edge of the substrate material to a start edge of the substrate material supplied from the substrate material supply section; a second substrate material dividing section provided between the substrate material supply section and the first substrate material joining section; a third substrate material dividing section provided between the first line and the substrate material recovery section; and a second substrate material joining section joining a start edge

Abstract: A base material processing device includes a first base material conveying section which receives from a first line and conveys a to-be-processed flexible base material, a base material dividing section which divides the flexible base material conveyed by the first base material conveying section, a route changing section which receives the flexible base material from its start edge formed by division by the base material dividing section and changes its conveyance route to a second line, and a second base material conveying section which is provided before the second line and holds and conveys to the second line a to-be-processed flexible base material.

Abstract: A base material processing device includes a first base material conveying section which receives from a first line and conveys a to-be-processed flexible base material, a base material dividing section which divides the flexible base material conveyed by the first base material conveying section, a route changing section which receives the flexible base material from its start edge formed by division by the base material dividing section and changes its conveyance route to a second line, and a second base material conveying section which is provided before the second line and holds and conveys to the second line a to-be-processed flexible base material.

Abstract: Substrate material processing equipment includes: a substrate material conveying section receiving a substrate material from a first line and conveying it to a second line; a first substrate material dividing section dividing the substrate material; a substrate material recovery section recovering the substrate material from its start edge formed by division; a substrate material supply section supplying a substrate material to an end edge of the substrate material which is formed by division; a first substrate material joining section joining the end edge of the substrate material to a start edge of the substrate material supplied from the substrate material supply section; a second substrate material dividing section provided between the substrate material supply section and the first substrate material joining section; a third substrate material dividing section provided between the first line and the substrate material recovery section; and a second substrate material joining section joining a start edge

Abstract: A wiring board formed by mounting an IC chip on a mounting substrate includes a resin substrate and a wiring pattern. The resin substrate includes having a reinforcing material obtained by impregnating glass fibers with a resin and an organic layer provided on a surface of the reinforcing material. The wiring pattern is disposed on a surface of the resin substrate through a coating layer. The IC chip includes a bump electrode for connection with the wiring pattern. The resin substrate includes a fiber exposure portion through which the reinforcing material is exposed, and the IC chip is fixed to the mounting substrate through an ACF adhered to the fiber exposure portion with the connection electrode being connected to the wiring pattern.

Abstract: An active-matrix substrate 30 includes multiple function lines 31, a structure for fixing up the arrangement of the function lines, a first conductive layer 43, a second conductive layer 42, multiple transistors 32 and multiple pixel electrodes 33. Each of the function lines 31 includes: a core 36, at least the surface of which has electrical conductivity; an insulating layer 37 that covers the surface of the core; and a semiconductor layer 38 that covers the insulating layer. Some portions of the first and second conductive layers 43 and 42 overlap with the respective semiconductor layers of the function lines but the others not. The transistors 32 are provided so as to have their channel defined as a region 44 in the semiconductor layer by the first and second conductive layers. The pixel electrodes 33 are electrically connected to the first conductive layer 43.

Abstract: A plasma process apparatus for performing a plasma process on a target substrate 4 includes a process chamber 5 in which the target substrate 4 is installed, a gas inlet 6 for introducing a gas into the process chamber 5, and a plasma discharge production section 15 provided in the process chamber 5. The plasma discharge production section 15 includes a first electrode 2a and a second electrode 2b that is closer to the target substrate 4 than the first electrode 2a is. Only surfaces of the first electrode 2a and the second electrode 2b which can be seen in the normal line direction of the target substrate 4 function as plasma discharge surfaces. Thus, a high quality film is realized even at a low target substrate temperature, and the film formation is performed with high gas dissociation efficiency.

Abstract: An active-matrix substrate 30 includes multiple function lines 31, a structure for fixing up the arrangement of the function lines, a first conductive layer 43, a second conductive layer 42, multiple transistors 32 and multiple pixel electrodes 33. Each of the function lines 31 includes: a core 36, at least the surface of which has electrical conductivity; an insulating layer 37 that covers the surface of the core; and a semiconductor layer 38 that covers the insulating layer. Some portions of the first and second conductive layers 43 and 42 overlap with the respective semiconductor layers of the function lines but the others not. The transistors 32 are provided so as to have their channel defined as a region 44 in the semiconductor layer by the first and second conductive layers. The pixel electrodes 33 are electrically connected to the first conductive layer 43.

Abstract: A plasma processing system includes a processing chamber, a substrate holder provided within the processing chamber for holding a target substrate, a composite electrode provided within the processing chamber so as to oppose the substrate holder and having a plurality of first electrodes and second electrodes for generating plasma, and a gas supply section for supplying a material gas into the processing chamber. The system further includes a plasma region increasing/reducing section for increasing or reducing a plasma region formed in the processing chamber, and a cleaning section for plasma cleaning the inside of the processing chamber by using plasma generated in the plasma region increased or reduced by the plasma region increasing/reducing section. Thus, the quality of a film to be deposited can be improved by eliminating ion impact against the target substrate, and the system cost can be lowered by efficiently removing, with a simple structure, particles produced in the processing chamber.

Abstract: A plasma process apparatus for performing a plasma process on a target substrate 4 includes a process chamber 5 in which the target substrate 4 is installed, a gas inlet 6 for introducing a gas into the process chamber 5, and a plasma discharge production section 15 provided in the process chamber 5. The plasma discharge production section 15 includes a first electrode 2a and a second electrode 2b that is closer to the target substrate 4 than the first electrode 2a is. Only surfaces of the first electrode 2a and the second electrode 2b which can be seen in the normal line direction of the target substrate 4 function as plasma discharge surfaces. Thus, a high quality film is realized even at a low target substrate temperature, and the film formation is performed with high gas dissociation efficiency.

Abstract: The liquid crystal display device of this invention includes: a plurality of pixels including right-eye pixels and left-eye pixels; a display screen constructed of the plurality of pixels; a first substrate including a first display electrode; a second substrate including a second display electrode arranged to oppose the first display electrode; a polarizing layer disposed in at least one of the first substrate and the second substrate; and a reflection film disposed in one of the first substrate and the second substrate, wherein the polarizing layer has first regions arranged to correspond to the right-eye pixels and second regions arranged to correspond to the left-eye pixels, the first regions selectively transmitting first polarized light while the second regions selectively transmitting second polarized light which is different from the first polarized light.

Abstract: The liquid crystal display device of this invention includes: a plurality of pixels including right-eye pixels and left-eye pixels; a display screen constructed of the plurality of pixels; a first substrate including a first display electrode; a second substrate including a second display electrode arranged to oppose the first display electrode; a polarizing layer disposed in at least one of the first substrate and the second substrate; and a reflection film disposed in one of the first substrate and the second substrate, wherein the polarizing layer has first regions arranged to correspond to the right-eye pixels and second regions arranged to correspond to the left-eye pixels, the first regions selectively transmitting first polarized light while the second regions selectively transmitting second polarized light which is different from the first polarized light.

Abstract: A liquid crystal display apparatus which includes: a light-addressed liquid crystal light valve including a photoconductive layer and a liquid crystal layer between a pair of light transmitting substrates, each of the light transmitting substrates having an electrode for applying a voltage across the photoconductive layer and the liquid crystal layer; a writing unit for writing an image of a display medium in the light-addressed liquid crystal light valve with writing light from the display medium through a writing lens; a projecting unit for projecting the image written in the light-addressed liquid crystal light valve by irradiating reading light from a projection light source to the light-addressed liquid crystal light valve; and a controlling unit for controlling at least one of operational characteristics of the light-addressed liquid crystal light valve and a luminance of the writing light in accordance with a luminance of the display medium, is disclosed.

Abstract: The transmission type liquid crystal display device of this invention includes a pair of substrates and a liquid crystal layer interposed therebetween. One of the substrates includes: scanning lines and signal lines crossing each other; switching elements formed at crossings of the scanning lines and the signal lines; an insulating film of a light-transmitting organic material which cover the scanning lines and the signal lines and the switching elements; and pixel electrodes formed on the insulating film. The insulating layer has at least a polarizing property. The other substrate also includes a layer having at least the polarizing property. At least one of the layers having the polarizing property formed on the substrates is arranged inside of the liquid crystal display device.

Abstract: A light-writing-type liquid crystal element which is provided with carrier-blocking layers that are installed on the transparent electrode side and on the light-shielding layer side of a photoconductive layer and that prevents carriers from entering the photoconductive layer. By adjusting the width of a depletion layer that is formed by the carrier-blocking layers and other factors, the energy-band structure of the photoconductive layer is kept asymmetric so that when a voltage is applied onto the photoconductive layer, the area on the writing-light incident-side of the photoconductive layer receives a higher voltage than that of the area on the liquid-crystal-layer side. Consequently, the photosensitivity of the photoconductive layer is improved, and the resolution as well as the contrast of the element can be improved.

Abstract: The light information device of the invention includes a semiconductor having a photoconductive effect or a photovoltaic effect. In the light information device, a photoconductivity and a dark conductivity of the semiconductor are varied by an aging process using an external stimulus, and the photoconductivity and the dark conductivity after the aging process have values which are equal to or lower than 20% of respective initial values thereof before the aging process.

Abstract: A display apparatus includes two substrates having electrodes, respectively, and a liquid crystal layer arranged between the two substrates. One of the two substrates includes a plurality of linear luminous sources ranged in parallel each other, a plurality of linear electrodes ranged in parallel each other and the linear electrodes being crossed with the plurality of linear luminous sources, and a plurality of photoconductive layers provided at crossed positions of the plurality of linear luminous sources and the plurality of linear electrodes, the photoconductive layers serving to perform switching operation in response to light applied from the plurality of linear luminous sources. The liquid crystal has pixels to be driven by a signal applied through the plurality of linear electrodes and the plurality of photoconductive layers.

Abstract: An image display device is arranged to have a liquid crystal light valve, a liquid crystal display panel, a backlighting unit, and a rod lens array. The liquid crystal light valve serves to form an image from the light applied thereto. The liquid crystal display panel serves to form a light pattern to be written to the liquid crystal light valve. The backlighting unit serves to apply light to the panel. The rod lens array is located between the liquid crystal panel and the liquid crystal light valve so that each of the light acceptance angle .theta. (half angle) and the degree of parallelization .alpha. (half angle) of light are not less than tan.sup.-1 {P/(3.sup.1/2.multidot.L)} (P is a pitch and L is a distance between the incident end of light and the pixel of the matrix type liquid crystal display panel) and at least one of the light acceptance angle .theta. (half angle) and the degree of parallelization a of light is 20.degree. or less.

Abstract: A liquid crystal light valve and a various information processors is provided. The processors have the liquid crystal light valve in which information formed in a liquid crystal layer and corresponding to address light can be read as an optical signal and can be directly read as an electric signal.A liquid crystal light valve has a glass substrate, an antireflection film, a transparent electrode, an opposite electrode, an optical waveguide, a photoconductive layer, a light interrupting layer, an orientational film, a spacer and a liquid crystal layer. The optical waveguide is composed of a lower clad layer, a core layer and a clad layer. A light source and a photodetector are connected to both ends of the optical waveguide. For example, the light source is constructed by a laser, a light emitting diode (LED), etc. The light source is connected to the optical waveguide such that a polarized wave can be guided to the optical waveguide.

Abstract: An optical scan type display device is provided to have an excellent display characteristic so that it may achieve a large-screen and high-resolution display. The display device is arranged to have a pair of glass substrates and a liquid crystal material sealed therebetween. On one of the glass substrates, there are formed a plurality of optical waveguides, a plurality of signal wires ranged vertically to the optical waveguides, a plurality of pixel electrodes located on sections defined by the optical waveguides and signal wires, and a plurality of light switching elements located at the crossing spots between the optical waveguides and the signal wires. The pixel electrodes are selectively driven in response to the light signal applied through the signal wires and the light switching elements. The optical waveguides are formed of optical fibers and the surface of the substrate is mirror-finished.