Abstract:
PURPOSE: A touch panel is provided to make a change of a light path of light passing a part touched by a user. CONSTITUTION: The second substrate(12) faces the first substrate. The gap between the first and second substrates is filled with Insulating liquid(33). A line-type contact point(15) makes the insulating liquid to be projected or extended by a predetermined height or in a predetermined direction on the first substrate in an area filled with the insulating liquid. A resistance film(14) is formed on the second substrate to correspond to an arrangement position of the line-type contact point.
Abstract:
A liquid crystal cell assembly includes a first substrate member on which at least first electrodes are formed on each of cell regions which respectively correspond to liquid crystal cells and are arranged to be adjacent to each other, a second substrate member on which at least a second electrode opposing the first electrodes is formed on each cell region to correspond to each cell region of the first substrate member, and frame-like seal members which are arranged between the first substrate member and second substrate member, include common sides each formed by continuously connecting at least two adjacent side, are formed into frames that respectively define the cell regions, and bond the first and second substrate members.
Abstract:
A LIQUID CRYSTAL CELL ASSEMBLY (1) INCLUDES A FIRST SUBSTRATE MEMBER ON WHICH AT LEAST FIRST ELECTRODES ARE FORMED ON EACH OF CELL REGIONS (110) WHICH RESPECTIVELY CORRESPOND TO LIQUID CRYSTAL CELLS AND ARE ARRANGED TO BE ADJACENT TO EACH OTHER, A SECOND SUBSTRATE MEMBER (3) ON WHICH AT LEAST A SECOND ELECTRODE OPPOSING THE FIRST ELECTRODES IS FORMED ON EACH CELL REGION (110) TO CORRESPOND TO EACH CELL REGION (110) OF THE FIRST SUBSTRATE MEMBER, AND FRAME-LIKE SEAL MEMBERS (18) WHICH ARE ARRANGED BETWEEN THE FIRST SUBSTRATE MEMBER AND SECOND SUBSTRATE MEMBER (3), INCLUDE COMMON SIDES (18A) EACH FORMED BY CONTINUOUSLY CONNECTING AT LEAST TWO ADJACENT SIDE, ARE FORMED INTO FRAMES THAT RESPECTIVELY DEFINE THE CELL REGIONS (110), AND BOND THE FIRST AND SECOND SUBSTRATE MEMBERS.
Abstract:
PROBLEM TO BE SOLVED: To provide a resistance film type touch panel by which refraction of transmitted light at the portion deflection-transformed by touch of touch side substrate is made small, making deflection-transformation quantity of touch side substrate small.SOLUTION: The touch panel is provided with: resistance films 13 and 14 arranged on the inner side of a pair of substrates 11 and 12 respectively that are a touch side and the opposite side; a plurality of line-like points of contact 15 which are formed in convex-like form projected in height decided beforehand rather than the film surface of the resistance film 13 along one direction respectively in the plurality of positions of the resistance film 13, that is one of these, electrically contacts with the other-side resistance film 14 by deflection transformation by the touch from the external surface side of the touch side substrate 11, and carries out the electrical connection of the first resistance film 13 and the second resistance film 14 at the touch parts; and a plurality of spacers 17 which are respectively arranged at the plurality of positions which differ from the plurality of line-like points of contact 15 between a pair of substrates 11 and 12, and prescribe gaps between the plurality of line-like points of contact 15 and the parts of the other resistance film 14 which contact with the line-like points of contact 15, into the height decided beforehand.
Abstract:
PROBLEM TO BE SOLVED: To convert each of parallel data of the X coordinate for each X coordinate detection line and parallel data of the Y coordinate for each Y coordinate detection line into serial data and output them. SOLUTION: A substrate 3 having pixel electrodes 5, TFTs 6 for display, scanning lines 14, and signal lines 15 includes: X coordinate detection lines 19 and Y coordinate detection lines 20; TFTs 6a for X coordinate detection; TFTs 6b for Y coordinate detection; output lines 21a and 21b respectively connected to drain electrodes of TFTs 6a and 6b for X coordinate detection and Y coordinate detection; TFTs 6a for X coordinate detection where the gate electrodes are connected to the scanning lines 14 and the source electrodes are connected to the X coordinate detection lines 19; TFTs 6b for Y coordinate detection where the gate electrodes are connected to the scanning lines 14 and the source electrodes are connected to the Y coordinate detection lines 20; an output line 21a connected to the drain electrodes of the TFTs 6a for X coordinate detection; and an output line 21b connected to the drain electrodes of the TFTs 6b for Y coordinate detection. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To increase the number of substrates obtainable from a substrate material, and thereby to reduce the cost of manufacturing a liquid crystal cell. SOLUTION: A first substrate material 2 on which pixel electrodes and terminals are formed in each of a plurality of substrate regions, is bonded to a second substrate material 3 which is segmented into a plurality of second substrate regions 112 and trimming portions 121, arranged correspondingly to regions on the first substrate material excluding the terminal array portion of each substrate region and to the terminal array portions, and on which a counter electrode is formed in each of the second substrate regions 112. The substrates are bonded via a plurality of frame-like sealing material 18 to be assembled into a liquid crystal cell assemblage 1. The plurality of sealing material 18 is formed while being made to correspond to the respective circumferences of the plurality of second substrate regions 112 in such a manner that, in the sides enclosing the screen areas, the sides along a division line c of the second substrate regions directly adjacent to each other without interposing the trimming portion 121 are formed into a common side 18a having a width over both edges of the adjoining second substrate regions. The assemblage 1 is then divided along division lines c, d; and the common side 18a of the frame-like sealing material 18 is divided along the division line c. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To detect a position indicated on a display screen without degrading display characteristics of a display device, and to detect a position in a three-dimensional space as the indicated position. SOLUTION: Microphones 6A-6D are arranged on respective sides of the display screen 31a. When an indicating sound is generated over the display screen 31a, differences in the arrival time of the indicating sound (tAC, tBD, tAD) are obtained between the respective pairs of microphones consisting of the first and third microphones 6A and 6C, the second and fourth microphones 6B and 6D and the first and fourth microphones 6A and 6D. A coordinate position (x, y, z) of the point where a first hyperboloid 101, 102, a second hyperboloid 201, 202 and a third hyperboloid 301, 302 focused on the respective pairs of microphones intersect is computed from the arrival time differences (tAC, tBD, tAD) and is obtained as indicated position information indicative of a position indicated on the display screen 31a. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a resistance film type touch panel for reducing the refraction of transmitted light at portions of a touch side substrate deflected and deformed by touch, by reducing the deflection and deformation amount of the touch side substrate. SOLUTION: The touch panel includes resistance films 13, 14 provided on the inner faces of a pair of substrates 11, 12 on the touch side and on the opposite side thereto, respectively, a plurality of lined contacts 15 formed at a plurality of positions on one resistance film 13 into such protruded shapes that they are protruded along one direction up to a predetermined height from the film surface of the resistance film 13 for electrically contacting the other resistance film 14 with the deflection and deformation of the touch side substrate 11 at its outer face side due to touch to conduct the first resistance film 13 to the second resistance film 14 via a touch portion, and a plurality of spacers 17 arranged at a plurality of positions different from those of the plurality of lined contacts 15 between the pair of substrates 11, 12 for specifying spaces between the plurality of lined contacts 15 and portions of the other resistance film 14 contacting the lined contacts 15 corresponding to the predetermined height. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an electronic appliance for performing image display and touch input and observing a display image regardless of dirt on a touch surface. SOLUTION: The electronic appliance includes an appliance body 1, a display part 7 provided on one of the faces of the appliance body, and a touch input part 13 provided on a face opposite to one where the display part 7 of the appliance body 1 is provided. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a liquid crystal display device which is promoted in narrowing a frame and is also excellent in reliability. SOLUTION: A segment substrate 21 and a common substrate 22 are stuck together via a sealing material 23 of an almost square frame form, and a liquid crystal is enclosed in the inside. In the inner surface of the segment substrate 21, common terminals 28 and almost L-formed terminal side common wiring 30 connected with the common terminals 28 are formed of a low resistance metal such as Al. In this case, the wiring width can be made relatively narrow while maintaining the resistance of the terminal side common wiring 30 small. As a result, the routed area can be reduced. Moreover, being located inside (in the area enclosing the liquid crystal) of the sealing material 23, the terminal side common wiring 30 is resistant to corrosion. Moreover, electrode side common wiring 31 which is connected with common electrodes 26a, 26b made of ITO arranged in the inner surface of the common substrate 22 and is also made of ITO is conductively connected with the terminal side common wiring 30 via a conductive material 32 mixed in the sealing material 23.