Abstract: A liquid crystal device includes a first substrate; a second substrate arranged to face the first substrate; a liquid crystal layer disposed between the first substrate and the second substrate, a pixel electrode disposed over the substrate; and a common electrode overlapping the pixel electrode, and the common electrode having curved portions between slits in the common electrode.

Abstract: A liquid crystal device have an element substrate including a scanning line, a data line and a pixel electrode, a cutout is formed on the pixel electrode. A capacitor line for providing a storage capacitor is formed on the element substrate. The capacitor line has a first and second portions. The first portion extends along with the scanning line, and a second line portion overlaps the cutout of the pixel electrode.

Abstract: A processing-coefficient decision unit decides a processing coefficient based on a format of the stream. A target-PTS decision unit multiplies an input PTS value by the processing coefficient, to set this as a target PTS used to determine the continuity of the pictures. A reference-PTS calculation unit sets the target PTS as an initial value of a reference PTS, sequentially adds an increment corresponding to the PTS value per picture, and calculates the reference PTS which is compared with the target PTS. A difference calculation unit calculates a difference between the target PTS and the reference PTS. A threshold determination unit compares an absolute value of the difference with the processing coefficient being a threshold and determines whether the absolute value of the difference is less than the processing coefficient.

Abstract: An electro-optical device includes a scanning line, a data line intersecting with each other, a pixel circuit which is provided corresponding to the intersection thereof, and a wire. The pixel circuit includes a light emitting element, one transistor which controls a current flowing to the light emitting element, and the other transistor of which conduction state is controlled according to a scanning signal which is supplied to the scanning line between a gate node of the one transistor and the data line. The wire is provided between the data line and the one transistor.

Abstract: An electro-optical device includes a first scanning line to which a first signal is supplied, a second scanning line to which a second signal is supplied, the second signal being an inverted signal of the first signal, a data line, a first capacitor having a first end and a second end, a first transistor that is controlled in accordance with the first signal, the first transistor electrically interposed between the data line and the first end of the first capacitor, a second capacitor electrically interposed between the second scanning line and the first end of the first capacitor, an electro-optical element that is controlled in accordance with an electric potential held by the first capacitor.

Abstract: An electro-optical device includes a transparent substrate, a PIN type diode formed in the transparent substrate and receiving light introduced through a light receiving side surface of the transparent substrate, and a reflecting portion provided on a surface side opposite to the light receiving side surface of the transparent substrate and for reflecting light passed through the transparent substrate to the PIN type diode.

Abstract: A liquid crystal device is provided. The liquid crystal device includes: a liquid crystal panel including a pair of substrates which interpose a liquid crystal layer; a plurality of light receiving elements which detect ambient light; and a control unit which controls a display state of an image displayed on the liquid crystal panel based on an intensity of the ambient light detected by a plurality of the light receiving elements, wherein the control unit includes a determination unit determining that the intensity of the ambient light is changed when changed amounts of the intensities of the ambient light detected by equal to or more than half of the light receiving elements exceed a predetermined value.

Abstract: A pixel circuit includes a first light emitting device including a common electrode and a first opposed electrode connected to a first power supply line, and a second light emitting device including the common electrode and a second opposed electrode connected to the second power supply line. A first potential and a second potential are alternately supplied to a first power supply potential supplied to the first power supply line and a second power supply potential supplied to the second power supply line, and thus the first light emitting device and the second light emitting device alternately emit light.

Abstract: An electrooptic device including a plurality of scanning lines; a plurality of m image signal lines; m connecting signal lines provided in a one-to-one correspondence with the m image signal lines; a plurality of data lines blocked by m lines, m data lines in one block being provided in a one-to-one correspondence with the m image signal lines; a scanning-line driving circuit; a block selecting circuit; a sampling switch provided for each of the plurality of data lines; and pixels provided at the intersections of the plurality of scanning lines and the plurality of data lines. Each pixel becomes a gray level corresponding to the data signal sampled to the data line when the scanning line is selected.

Abstract: A liquid crystal device includes a substrate for holding a liquid crystal. The substrate includes switching elements, a first insulating layer which overlies the switching elements and which has contact holes located at positions corresponding to the switching elements, first transparent electrodes which overlie the first insulating layer and which are electrically connected to the switching elements through the contact holes, a second insulating layer overlying the first transparent electrodes, and second transparent electrodes which overlie the second insulating layer and which each have a plurality of slits for generating electric fields between the first and second transparent electrodes, the second transparent electrodes not overlapping the contact holes in plan view.

Abstract: Provided is an electro-optical device including: pixel electrodes provided in intersections of gate lines and data lines; counter electrodes provided to face the pixel electrodes with an electro-optical material interposed therebetween; and storage capacitors each of which one end is connected to each of the pixel electrodes, wherein, if data line signals supplied to the pixel electrodes via the data lines correspond to writing of a positive polarity with respect to the potential of the counter electrodes, the potential of the other end of each of the storage capacitors is changed to a high potential side after the data line signals are written and, if the data line signals correspond to writing of a negative polarity with respect to the potential of the counter electrodes, the potential of the other end of each of the storage capacitors is held at a constant level before and after the data line signals are written.

Abstract: Each of a plurality of encoders calculates a first time by adding an encoding delay time commonly determined between the encoders to a value of an STC counter, and transmits a system stream generated by including the calculated first time to a decoder associated with the encoder in one-to-one correspondence, of a plurality of decoders constituting a decoding system. Each of the decoders calculates a second time by adding the first time to an estimated maximum value commonly determined between the decoders by adding a decoding delay time to a value of stream fluctuation of an output time occurring between the encoders, and outputs the divided image data decoded from the system stream to a synthesizer that synthesizes the image data at the calculated second time.

Abstract: A liquid crystal device, in which a liquid crystal layer is held between a pair of substrates, includes a plurality of pixels and a retardation layer. Each of the plurality of pixels includes a transmissive display area and a reflective display area. The retardation layer is arranged at a position that at least overlaps the reflective display areas and on an inner surface side of the pair of substrates. The retardation layer is formed so as to extend over the reflective display areas of at least two adjacent pixels among the plurality of pixels. The retardation layer has a first end portion and a second end portion. The first end portion is located on one of the two adjacent pixels. The second end portion is opposite the first end portion and located on the other pixel of the two adjacent pixels.

Abstract: A liquid crystal device includes a first substrate; a second substrate arranged to face the first substrate; a liquid crystal layer disposed between the first substrate and the second substrate, a pixel electrode disposed over the substrate; and a common electrode overlapping the pixel electrode,, and the common electrode having curved portions between slits in the common electrode.

Abstract: A liquid crystal device includes a first substrate; a second substrate arranged to face the first substrate; a liquid crystal layer disposed between the first substrate and the second substrate, a pixel electrode disposed over the substrate; and a common electrode overlapping the pixel electrode, and the common electrode having curved portions between slits in the common electrode.

Abstract: An electro-optical device includes: a common line driving circuit; a data line driving circuit; a scanning line driving circuit; and an equalizing circuit which connects/disconnects a plurality of data lines to/from a plurality of common lines and equalizes the data lines with the common lines. The common line driving circuit supplies to the common lines a driving signal having a first or second potential. The data line driving circuit supplies image signals to the data lines at a potential higher than the first potential when the potential of a common electrode is the first potential, and supplies the image signals to the data lines at a potential lower than the second potential when the potential of the common electrode is the second potential. The scanning line driving circuit supplies, to a plurality of scanning lines, control signals for turning on or off a plurality of switching elements.

Abstract: A driving circuit for driving a liquid crystal device that has, a first substrate including a plurality of scanning lines, a plurality of data lines, and a plurality of pixel electrodes and a plurality of common electrodes, a second substrate disposed opposite the first substrate, and liquid crystal, the common electrodes being partitioned every horizontal line, the driving circuit includes: a control circuit that alternately supplies a first voltage and a second voltage being higher than the first voltage to the common electrodes and that sets the common electrodes to a floating state; a scanning line driving circuit that sequentially supplies a selection voltage to the plurality of scanning lines; and a data line driving circuit that alternately supplies a positive image signal having a potential higher than the first voltage and a negative image signal having a potential lower than the second voltage to the plurality of data lines.

Abstract: An electrooptic device includes: a plurality of parallel signal lines provided in a pixel array region in which a plurality of pixels is arrayed; a driving circuit electrically connected to a first end of each of the signal lines outside the pixel array region; and a protection circuit in which a diode device is electrically connected to a second end of the signal line, the diode device dissipating static electricity from the signal line. The resistance of the portion of the signal line from the center of the length to the driving circuit is higher than that of the portion of the signal line from the center to the diode device.

Abstract: To reduce a circuit area of a data line driving circuit. The data line driving circuit includes a plurality of circuit blocks. A circuit block has shift register unit circuits, logical operation unit circuits and a control unit circuit. The control unit circuit specifies the operation period of the corresponding circuit block on the basis of the input and output signals of the shift register unit circuits and supplies a clock signal and an inverted clock signal to the shift register unit circuit.

Abstract: A data-rate adjusting device includes a first processing unit that adjusts a data rate for outputting an input data string by adding a bit string to the data string, the bit string being different from a predetermined bit string having a predetermined number of consecutive bits of an identical value and a second processing unit that outputs, to a data transmitting device, the data string to which the bit string is added.