Abstract: A diode and its fabrication method are provided. The diode includes a substrate, a buffer layer on a side of the substrate, a first film layer, a second film layer and a third film layer. The first film layer is a polycrystalline silicon film layer; the second film layer is an amorphous silicon film layer; and the third film layer is one of the polycrystalline silicon film layer and the amorphous silicon film layer. The diode at least includes a first portion, a second portion, a third portion, a first electrode, and a second electrode. The first portion is located in the first film layer; the second portion is located in the second film layer; and the third portion is located in the third film layer. The first electrode is electrically connected to the first portion, and the second electrode is electrically connected to the third portion.

Abstract: A fabrication process for soft-matter printed circuit boards is disclosed in which traces of liquid-phase Ga—In eutectic (eGaIn) are patterned with UV laser micromachining (UVLM). The terminals of the elastomer-sealed LM circuit connect to the surface mounted chips through vertically-aligned columns of eGaIn-coated ferromagnetic microspheres that are embedded within an interfacial elastomer layer.

Abstract: Excess radio-frequency (RF) power storage in RF identification (RFID) tags, and related systems and methods are disclosed. The RFID tag is configured to operate with RF power received in wireless RF signals from a RFID tag antenna if received RF power meets or exceeds an operational threshold power for the RFID tag. The RFID tag is also configured to store excess energy derived from excess received RF power in an energy storage device if the received RF power exceeds the operational threshold power for the RFID tag. Thus, when RF power received by the RFID tag is not sufficient for operation, the RFID tag can operate from power provided by previously stored excess energy in the energy storage device.

Abstract: An object is to provide a display device with excellent display characteristics, where a pixel circuit and a driver circuit provided over one substrate are formed using transistors which have different structures corresponding to characteristics of the respective circuits. The driver circuit portion includes a driver circuit transistor in which a gate electrode layer, a source electrode layer, and a drain electrode layer are formed using a metal film, and a channel layer is formed using an oxide semiconductor. The pixel portion includes a pixel transistor in which a gate electrode layer, a source electrode layer, and a drain electrode layer are formed using an oxide conductor, and a semiconductor layer is formed using an oxide semiconductor. The pixel transistor is formed using a light-transmitting material, and thus, a display device with higher aperture ratio can be manufactured.

Abstract: A dual particle electrophoretic display and a method for manufacturing same are disclosed. The display comprises a back substrate and a transparent substrate forming a cavity therebetween. The transparent substrate including one or more cathode electrodes forming a plurality of electronically and selectively addressable pixels; one or more side walls extending from the transparent substrate, the side walls defining corresponding pixel cells, wherein a plurality of electrophoretic particles are contained in each cell and a substantially clear suspension fluid is distributed throughout the cavity by a gap formed between the site walls. A color or shade of the pixels within the display is determined by applying a driving voltage to the pixels of based on a desired level of Gray scale coding.

Abstract: A liquid crystal display device includes a first substrate, a first thin film transistor formed on the first substrate, a pixel electrode and a common electrode formed above the first thin film transistor of the first substrate, a liquid crystal layer formed above the pixel electrode and the common electrode, a second substrate provided above the pixel electrode and the common electrode via the liquid crystal layer, a shield electrode formed on a substantially entire surface of the liquid crystal layer side of the second substrate, a switch device being electrically connected to the shield electrode and the interconnection, wherein the switch device is turned on when a potential of the shield electrode is larger than the specific potential of the interconnection and a difference between the potential of the shield electrode and the specific potential of the interconnection is larger than predetermined potential.

Abstract: Provided is an optical sensor having such a novel structure that even if an intrinsic semiconductor region has a short substantial length in a direction parallel with a forward direction of a photodiode, a light receiving area can be ensured, whereby light detection sensitivity can be improved; and a liquid crystal panel including the optical sensor. The optical sensor includes: a photodiode (26) provided with a semiconductor film (28) having a p-type semiconductor region (28p), an intrinsic semiconductor region (28i), and an n-type semiconductor region (28n); a first gate line (38a) formed above the intrinsic semiconductor region (28i), a negative voltage being applied to the first gate line; and a second gate line (38b) formed above the intrinsic semiconductor region (28i), a positive voltage being applied to the second gate line, wherein a predetermined clearance is formed between the first gate line (38a) and the second gate line (38b), above the intrinsic semiconductor region (28i).

Abstract: A display device includes a substrate, a display region having a pixel switch, and a transparent common electrode, a peripheral region having a gate signal line connected to the pixel switch, and a predetermined connection line, an insulating layer disposed on the gate signal line and the predetermined connection line, a conductive layer, a first semiconductor film disposed between the insulating layer and the conductive layer, and a second semiconductor film disposed between the insulating layer and the conductor layer and separated from the first semiconductor film. The conductor layer is connected to the gate signal line via a pair of diodes. The gate signal line is arranged in the display region and the peripheral region, the predetermined connection line is arranged in the peripheral region, and the transparent common electrode is arranged in the display region. The predetermined connection line is shorter in length than the gate signal line.

Abstract: An object is to provide a display device with excellent display characteristics, where a pixel circuit and a driver circuit provided over one substrate are formed using transistors which have different structures corresponding to characteristics of the respective circuits. The driver circuit portion includes a driver circuit transistor in which a gate electrode layer, a source electrode layer, and a drain electrode layer are formed using a metal film, and a channel layer is formed using an oxide semiconductor. The pixel portion includes a pixel transistor in which a gate electrode layer, a source electrode layer, and a drain electrode layer are formed using an oxide conductor, and a semiconductor layer is formed using an oxide semiconductor. The pixel transistor is formed using a light-transmitting material, and thus, a display device with higher aperture ratio can be manufactured.

Abstract: An electro-optic device includes a first insulating substrate where a pixel electrode and a signal line are arranged on one surface side, a conductive layer formed on another surface of the first insulating substrate, and a conductive tape adhered to the conductive layer along at least one side of the first insulating substrate, where the conductive layer maintains a constant potential via the conductive tape.

Abstract: A display device includes a photosensor (81) in a pixel region (1) of an active matrix substrate (100). The photosensor (81) includes a photodetection element, reset signal wiring that supplies a reset signal RS to the photosensor (81), readout signal wiring that supplies a readout signal RW to the photosensor (81), and a sensor switching element for reading out the potential of the storage node to output wiring as sensor circuit output, the potential of the storage node having changed in accordance with the amount of light received by the photodetection element in a sensing period, the sensing period being from when the reset signal is supplied until when the readout signal is supplied. The potential of wiring having a parasitic capacitance with the storage node is fixed to a predetermined potential V0 at least either one of immediately before the readout signal RW and immediately before the reset signal RS.

Abstract: A display device includes a substrate, a display region having a pixel switch, and a transparent common electrode, a peripheral region having a gate signal line connected to the pixel switch, and a common connection line connected to the transparent common electrode, an insulating layer, a conductive layer, a first semiconductor film disposed between the insulating layer and the conductive layer, and a second semiconductor film disposed between the insulating layer and the conductor layer and separated from the first semiconductor film. The conductor layer is connected to the gate signal line, and the gate signal line is arranged in the display region and the peripheral region. The common connection line is arranged in the peripheral region and is connected to the transparent common electrode in the peripheral region, and the transparent common electrode is arranged in the display region.

Abstract: An active matrix substrate capable of suppressing a change in an off characteristic of the TFT even when current passage time becomes longer is provided. A diode is connected between a video signal line and a conductive plate formed so as to cover a TFT of a pixel formation portion. Current is passed to the diode when a potential of a video signal applied to the video signal line is lower than that of the conductive plate, and the potential of the conductive plate becomes equal to that of the video signal line. No current flows when the potential of the video signal is higher than that of the conductive plate and the potential of the diode remains the same. Consequently, a leak current which flows from the pixel electrode of the pixel formation portion to the video signal line when the TFT is in the off state is suppressed.

Abstract: A pixel array substrate includes a pixel region and a circuit region adjacent to the pixel region. A plurality of display pixel units are disposed in the pixel region and a plurality of dummy pixel units are disposed in the circuit region. Each of the dummy pixel units includes a data line, a scan line, a plurality of switching elements and a plurality of pixel electrodes. The switching elements are electrically connected to the scan line and data line. The pixel electrodes are electrically connected to the switching elements. Particularly, electrostatic currents in the pixel region can be dissipated by the dummy pixel units in the circuit region. The dummy pixel units preserve the continuity of electricity in the pixel array substrate and function as an inner short ring. Therefore, the area of the circuit region on the pixel array substrate is larger.

Abstract: A pixel array substrate includes a pixel region and a circuit region adjacent to the pixel region. A plurality of display pixel units are disposed in the pixel region and a plurality of dummy pixel units are disposed in the circuit region. Each of the dummy pixel units includes a data line, a scan line, a plurality of switching elements and a plurality of pixel electrodes. The switching elements are electrically connected to the scan line and data line. The pixel electrodes are electrically connected to the switching elements. Particularly, electrostatic currents in the pixel region can be dissipated by the dummy pixel units in the circuit region. The dummy pixel units preserve the continuity of electricity in the pixel array substrate and function as an inner short ring. Therefore, the area of the circuit region on the pixel array substrate is larger.

Abstract: A pixel array substrate includes a pixel region and a circuit region adjacent to the pixel region. A plurality of display pixel units are disposed in the pixel region and a plurality of dummy pixel units are disposed in the circuit region. Each of the dummy pixel units includes a data line, a scan line, a plurality of switching elements and a plurality of pixel electrodes. The switching elements are electrically connected to the scan line and data line. The pixel electrodes are electrically connected to the switching elements. Particularly, electrostatic currents in the pixel region can be dissipated by the dummy pixel units in the circuit region. The dummy pixel units preserve the continuity of electricity in the pixel array substrate and function as an inner short ring. Therefore, the area of the circuit region on the pixel array substrate is larger.

Abstract: A display device includes a substrate, a display region having a pixel switch, a pixel electrode which is connected to the pixel switch, and a transparent common electrode formed over the substrate, a peripheral region having a gate signal line which is connected to the pixel switch, and a common connection line which is connected to the transparent common electrode, an insulating layer which is disposed on the gate signal line and the common connection line, a conductive layer which is disposed on the insulating layer and crosses the gate signal line and crosses the common connection line in the peripheral region, a first semiconductor film which is disposed between the insulating layer and the conductive layer, and a second semiconductor film which is disposed between the insulating layer and the conductive layer and is separated from the first semiconductor film.

Abstract: A display device includes a first light-emitting element which includes a second layer having the function of flowing carriers and provided between a first anode and a first layer having the function of emitting light of a first color, and a third layer having the function of emitting light of a second color and provided between the first anode and the second layer; and a second light-emitting element which includes a fifth layer having the function of suppressing a flow of carriers and provided between a second anode and a fourth layer having the function of emitting light of the first color, and a first hole injection layer provided between the second anode and the fifth layer.

Abstract: Provided is a liquid crystal display including: a liquid crystal panel, a plurality of display signal lines disposed in the liquid crystal panel, a plurality of diodes including a first diode and a second diode. The first diode is connected to each of the display signal lines in a reverse direction and the second diode is connected to each of the display signal lines in a forward direction. The liquid crystal display further includes a plurality of first dummy pads and a plurality of second dummy pads disposed on IC chips which are mounted on a film which is connected to the display panel. A first dummy voltage line is connected to the first dummy pads, a second dummy voltage line is connected to the second dummy pads, and the first dummy pads and the second dummy pads are each adapted to receive a driving voltage.

Abstract: A pixel array substrate includes a pixel region and a circuit region adjacent to the pixel region. A plurality of display pixel units are disposed in the pixel region and a plurality of dummy pixel units are disposed in the circuit region. Each of the dummy pixel units includes a data line, a scan line, a plurality of switching elements and a plurality of pixel electrodes. The switching elements are electrically connected to the scan line and data line. The pixel electrodes are electrically connected to the switching elements. Particularly, electrostatic currents in the pixel region can be dissipated by the dummy pixel units in the circuit region. The dummy pixel units preserve the continuity of electricity in the pixel array substrate and function as an inner short ring. Therefore, the area of the circuit region on the pixel array substrate is larger.

Abstract: A display device includes: on an insulating substrate, a first conductive layer in which a first signal line and a second signal line adjacent to the first signal line are formed; an insulating layer which is disposed on the first conductive layer; a second conductive layer which is disposed on the insulating layer and in which a ground wire crossing the first signal line and the second signal line in a plan view is formed; and a semiconductor layer which is disposed between the insulating layer and the second conductive layer and in which a first semiconductor film and a second semiconductor film are formed to be separated from each other. The wiring lengths of the first signal line and the second signal line are different by at least 10 times or more. The first semiconductor film overlaps, in a plan view, a region where the first signal line crosses the ground wire. The second semiconductor film overlaps, in a plan view, a region where the second signal line crosses the ground wire.

Abstract: A display is disclosed. The display includes a plurality of pixels configured to emit light. The display also includes a plurality of pixel control circuits that are each configured to regulate emission of light from a pixel. The pixel control circuits each include one or more two-terminal switching devices that include an organic semiconductor.

Abstract: An active matrix display includes a matrix of pixel elements, an array of column conducting lines, an array of row conducting lines crossing the array of column conducting lines, and an array of enabling lines crossing the array of column conducting lines. A column conducting line is electrically connected to a column of pixel elements. A row conducting line is electrically connected to a row of pixel elements. An enabling line is electrically connected to one or more rows of pixel elements. A pixel element includes a capacitive element, a nonlinear element, and a switching transistor. The nonlinear element is electrically connected the capacitive element. The switching transistor has a gate configured to receive an electric signal from an enabling line and has a semiconductor channel electrically connected to the capacitive element.

Abstract: Disclosed is a LCD device having a structure capable of improving the quality of images is disclosed. The LCD device includes, an image display portion composed of pixels, the image display portion defined by the crossing of gate wires and data wires; a common wire located on the outside of the image display portion; a test wire located adjacent to a part of the common wire; and a wire connection electrode for connecting the common wire with the test wire.

Abstract: The present invention relates to a method for easily manufacturing an illumination device in which a surface mount chip-type LED is used, and a wiring board is formed into a truncated conical or another shape. The method includes, in a flexible strip-like wiring board having a partial ring or a linear shape, providing a through-hole T for filling with solder paste S at a wiring end portion L to be connected with a terminal of an LED, temporarily fixing the LED with bond B onto the wiring board held in a plate-like state, filling the through-hole T with the solder paste S from a back surface of the wiring board, rounding the wiring board mounted with the LED into a truncated conical or cylindrical shape, and reflowing the wiring board in the rounded state to solder the LED.

Abstract: A liquid crystal display device of the present invention includes a two-dimensional sensor array in which optical sensor circuits are two-dimensionally positioned. The respective optical sensor circuits are provided with a photodiode (17), an output AMP and a NetA voltage raising capacitor. The output AMP has a gate electrode, a source electrode and a drain electrode. The gate electrode, the source electrode and the drain electrode are connected to a cathode electrode (NetA) of the photodiode (17), a voltage supply wiring (Vsm) and an optical sensor output wiring (Vom), respectively. The NetA voltage raising capacitor has two electrodes. One of the two electrodes is electrically connected to the NetA, and the other of the two electrodes is electrically connected to a drive wiring (Vrwn) for supplying a drive signal to the NetA voltage raising capacitor. A storage capacitor wiring (Csn) for retaining a pixel potential also serves as the drive wiring (Vrwn).

Abstract: In a photosensor in the pixel region of an active matrix substrate, the potential of a storage node is read out to output wiring as sensor circuit output, the potential of the storage node having changed in accordance with the amount of light received by a photodetection element in a sensing period, the sensing period being from when a reset signal (RS) is supplied until when a readout signal (RW) is supplied. A sensor startup period whose length is greater than or equal to the length of the sensing period is provided after a sensor data unnecessary period in which the sensor circuit output is not necessary, and furthermore before a valid sensor data period in which the sensor circuit output is necessary, and the sensor circuit output is read out in the valid sensor data period from the photosensor to which the reset signal was applied in the sensor startup period.

Abstract: The present invention provides an array substrate and a method for manufacturing the same. The array substrate comprises a substrate and a plurality of gate lines parallel to each other and a plurality of data lines parallel to each other formed on the substrate, the gate lines intersecting the data lines to define a plurality of pixel region arranged in a matrix, each pixel region comprising a thin film transistor, a pixel electrode and a thin film diode. With respect to each pixel region in a row, the pixel electrode is connected with the gate line in the present row through the thin film transistor and is connected with the gate line in a previous row through the thin film diode.

Abstract: A thin film diode array panel comprising: an insulating substrate (110); first and second redundant gate lines (141, 142) made of an opaque conductor and formed on the insulating substrate; first and second floating electrodes (143, 144) made of an opaque conductor, formed on the insulating substrate, and disposed between the first and second redundant gate lines (141, 142); an insulating layer (151, 152) formed on the first and second floating electrodes (143, 144); a first gate line (121) formed on the first redundant gate line (141) and including a first input electrode (123) overlapping the first floating electrode (143) where the insulating layer (151) is interposed between the first input electrode and the first floating electrode; a second gate line (122) formed on the second redundant gate line (142) and including a second input electrode (124) overlapping the second floating electrode (144) where the insulating layer (152) is interposed between the second input electrode (124) and the second floating

Abstract: A transflective diode substrate for a liquid crystal display device, includes: a reflective zone including a diode having a scan electrode, an insulating pattern on the scan electrode and a pixel electrode over the scan electrode, organic patterns around the diode, and a reflection electrode over the organic patterns; and a transmissive zone adjacent to the reflective zone; wherein the pixel electrode is formed in the reflective zone and the transmissive zone.

Abstract: A thin film transistor array panel comprising: an insulating substrate; gate lines formed on the insulating substrate; data lines defining a display region by intersecting the gate lines while being insulated; an electrostatic dispersion line intersecting the gate lines; diodes adhered to the gate lines and to the electrostatic dispersion line; and a repair line for repairing the data lines formed on the insulating substrate outside the display region and intersecting the electrostatic dispersion line while being insulated. According to the present invention, since static electricity flowing along the repair line is not transferred to the data lines, defects of a thin film transistor of the display region may be prevented.

Abstract: A new way of generating electrical power by changing the dielectric properties of liquid crystals by mechanical means is described. Such a method and device take advantage of the nature of the liquid crystal as the dielectric material in a capacitor. A broad range of materials, including various liquid crystalline materials, as well as additional mechanisms (flexoelectric polarization) to fully exploit the potential of this mechanism may be realized. Applications of this technology may be useful in wearable personal electric generators as well as in noise damping materials/devices, which not only absorb and dissipate sound, but use it to generate electric power.

Abstract: A pixel array substrate includes a pixel region and a circuit region adjacent to the pixel region. A plurality of display pixel units are disposed in the pixel region and a plurality of dummy pixel units are disposed in the circuit region. Each of the dummy pixel units includes a data line, a scan line, a plurality of switching elements and a plurality of pixel electrodes. The switching elements are electrically connected to the scan line and data line. The pixel electrodes are electrically connected to the switching elements. Particularly, electrostatic currents in the pixel region can be dissipated by the dummy pixel units in the circuit region. The dummy pixel units preserve the continuity of electricity in the pixel array substrate and function as an inner short ring. Therefore, the area of the circuit region on the pixel array substrate is larger.

Abstract: A backlit flat panel display includes a fluorescent tube positioned for illuminating the display, and a plurality of display illuminating LEDs on the periphery of the display. The fluorescent tube illuminates the display through a first range of brightness above a predetermined transition level and the LEDs illuminate the display through a second range of brightness below the transition level. When the illumination of the display is adjusted through the transition level to account for changes in ambient light, the LEDs and the fluorescent tube are operated together, so that the combined brightness of the illumination provided by the LEDs and the fluorescent tube will provide the desired display brightness; this advantageously compensates for delayed illumination of the fluorescent tube at start up and for persistence in the tube after shutdown.

Abstract: A method for manufacturing a liquid crystal display device is disclosed, comprising the following steps: (a) providing a substrate having a transparent electrode layer and a first metal layer, wherein the transparent electrode layer is sandwiched in between the first metal layer and the substrate; (b) defining a patterned area having a thin film diode area and a pixel area by a first mask; (c) forming a first insulating layer and a second metal layer on the patterned area having the thin film diode area and the pixel area in sequence, wherein the first insulating layer is sandwiched in between the second metal layer and the first metal layer; and (d) defining the thin film diode area and the pixel area by a second mask, and removing the second metal layer, the first insulating layer, and the first metal layer on the pixel area to expose the transparent electrode layer.

Abstract: A liquid crystal display (LCD) including a backlight module, a LCD panel, a front frame, and a light strip is provided. The backlight module includes a back plate and a light guide plate (LGP), wherein the back plate has plural sidewalls and an opening opposite to one of the sidewalls. The LGP is disposed in the back plate and suitable for passing in and out the back plate through the opening. The LGP has a light entering surface, and the opening exposes the light entering surface. The LCD panel is disposed on the back plate, and the front frame is assembled with the back plate to fix the LCD panel. The light strip is disposed on the internal wall of the front frame and between the front frame and the light entering surface of the LGP. The heat generated by the light strip can be conducted to the front frame.

Abstract: Metal-Insulator-Metal (MIM) diodes in back-to-back thin film diode (TFD) liquid crystal display (LCD) device are formed on dual selective lines respectively. A transparent conductive layer on a first substrate comprises a pixel electrode, a first bottom layer, a second bottom layer, a third bottom layer, and a fourth bottom layer. A semiconductor insulator layer with a first contact hole on the first bottom layer and a second contact hole on the third bottom layer covers the first substrate and the transparent conductive layer.

Abstract: A display is disclosed. The display includes a plurality of pixels configured to emit light. The display also includes a plurality of pixel control circuits that are each configured to regulate emission of light from a pixel. The pixel control circuits each include one or more two-terminal switching devices that include an organic semiconductor.

Abstract: One of preferred embodiments of a projection type display apparatus comprises a housing including a first surface inclined at an angle of 45 degrees with respect to an optical axis of the incoming light, a second surface, and a third surface. The second and the third surface each have one edge meeting with each other so that the surfaces are joined perpendicularly with each other and another edge meeting respectively side edges of the first surface so that the surfaces are joined with the first surface. On the first surface is adhered by an adhesive a wire gird polarizer; on the second surface perpendicular to an optical axis of the light that has passed through the wire grid polarizer is adhered by the adhesive a reflection type spatial light modulation element; and on the third surface perpendicular to an optical axis of the light reflected by the wire grid polarizer is adhered by the adhesive a transmission type polarizing plate.

Abstract: A tape carrier package includes: a flexible substrate having an end portion that is formed with two recesses spaced apart from each other; a plurality of conductive leads provided on the flexible substrate in a manner to form a pin-like contact array on the end portion of the flexible substrate between the recesses in the end portion of the flexible substrate; and an integrated circuit provided on the flexible substrate and coupled to the conductive leads. A liquid crystal display panel includes: a panel body having a contact region; a driver printed circuit board; and a plurality of the aforesaid tape carrier packages. The pin-like contact array of the conductive leads on the end portion of the flexible substrate is connected to the contact region of the panel body and the driver printed circuit board.

Abstract: A thin film diode panel comprises a pixel electrode formed on a substrate, the pixel electrode including a stem portion and a plurality of branch portions extended from the stem portion, and a data electrode line formed on the substrate, the data electrode line including a plurality of branch electrodes formed parallel to the plurality of branch portions. The plurality of branch portions may extend in a direction perpendicular to the stem portion and the plurality of branch electrodes may extend in a direction perpendicular to the data electrode line.

Abstract: A method for manufacturing liquid crystal display substrates comprises the steps of: (a) providing a substrate having a transparent electrode layer and a metal layer; (b) forming a patterned photoresist layer through half-tone or diffraction; (c) defining signal line area and thin film diode area, or pixel area and conductive electrode-lines by etching; and (d) forming an oxidized layer on partial surface of the metal layer. The disclosure here provides a patterning process of lithography and etching with one photolithography of one single mask in the manufacturing of liquid crystal display substrates. Furthermore, the method disclosed here can effectively increase the yield of manufacturing, and reduce the cost of manufacturing.

Abstract: An electro-optical device comprises an electro-optical panel in which an electro-optical material is arranged, an illumination device for radiating visible light onto the electro-optical panel, and a metal frame divided into a plurality of frames each being formed of a metal material, and the plurality of divided frames being integrally formed with each other such that the electro-optical panel and the illumination device are supported together.

Abstract: A liquid crystal display is provided, which includes: a pair of first and second signal lines transmitting select pulses having opposite polarity; a third signal line transmitting data voltages; first and second field generating electrodes separated from each other with a gap; and a plurality of diodes connected between the first and the second signal lines and the first and the second field generating electrodes and providing at least two different resistances.

Abstract: A wiring structure includes: a plurality of linear conductors extending generally parallel to one another; a first input terminal for inputting an electrical signal to a first group of linear conductors selected from among the plurality of linear conductors; and a second input terminal for inputting an electrical signal to a second group of linear conductors, different conductors, selected from among the plurality of linear conductors, the second input terminal being adjacent to the first input terminal. A plurality of the linear conductors are present between the first group of linear conductors and the second group of linear conductors.

Abstract: It is an object to provide an user identity authentication system and an user identity authentication method with the Internet and a mobile information communication device. The mobile information communication device includes a liquid crystal device with a built-in image sensor. The image sensor reads individual information of a user, and user's identity is authenticated based on the individual information. A result of the authentication is unicast via the Internet. Alternatively, it is judged whether or not the result of the authentication is required to be unicast in accordance with a degree of requirement preset in the mobile information communication device or a destination terminal of communication, and the result is unicast via the Internet only when needed.

Abstract: An electrooptic device has a first substrate 10 and a second substrate 20 disposed to oppose each other, and liquid crystal 35 provided between the first substrate 10 and the second substrate 20. This electrooptic device has a sealing material 30 surrounding the liquid crystal 35 and wires 16 continuously extending along one side of the first substrate 10 to another side intersecting said one side. The wires 16 each have a first wire layer which is continuously formed in the inside region of the sealing material 30 and the outside region of the sealing material 30 or which is continuously formed in the region overlapping the sealing material 30 and the outside region of the sealing material 30; and a second wire layer 182 which is formed in the inside region of the sealing material 30 or the region overlapping the sealing material 30. Since being not exposed to outside air, the second wire layer 182 is not corroded.

Abstract: TFT array substrates used for liquid crystal display panels are disclosed of which the fabrication processes are simplified and the manufacturing costs are reduced by reducing the number of masks used in fabricating the TFT array substrates. A gate wiring line metal film, a gate insulating film, a semiconductor film, and a contact electrode metal film are formed on a substrate surface. The contact electrode metal film, the semiconductor film, the gate insulating film, and the gate wiring line metal film are sequentially etched, by photolithography, using a first pattern, and the side surfaces of a gate wiring line metal film pattern, which is formed into portions of gate wiring lines and gate electrodes, are oxidized. A transparent conductive film is formed, and part of the transparent conductive film, the contact electrode metal film, and the semiconductor film are sequentially etched, by photolithography, using a second pattern.

Abstract: A bi-directional single-conductor interface is provided, comprising (1) a switching means for applying a voltage level to the interface that is outside a normal voltage operating range for the interface and for removing the applied voltage level at an end of a specified time duration; and (2) a timer initiated by detection of the applied voltage and arranged to include a timing interval following removal of the applied voltage. With the interface of the invention, data is caused to be transmitted via the interface in a first direction during the timing interval of the timer, and in an opposite direction during other times.

Abstract: A liquid crystal display is provided, which includes: a pair of first and second signal lines transmitting select pulses having opposite polarity; a third signal line transmitting data voltages; first and second field generating electrodes separated from each other with a gap; and a plurality of diodes connected between the first and the second signal lines and the first and the second field generating electrodes and providing at least two different resistances.