Abstract: An electro-optical device includes a plurality of sub-pixels each of which has a light transmitting region and a light reflecting region, colored layers being disposed so as to correspond to the plurality of sub-pixels, the colored layers having filter colors of a three primary color system and a filter color of a complementary color system other than the three-primary-color system, transmissive display being performed in the light transmitting region, reflective display being performed in the light reflecting region, and color display being performed in both reflective display and transmissive display.

Abstract: An electro-optical device includes: a substrate; a plurality of wiring lines which is formed on the substrate; and an IC which is mounted on the substrate so as to be electrically connected to the plurality of wiring lines. At least a pair of wiring lines among the plurality of wiring lines include a first conductive layer formed on the substrate and a second conductive layer formed on at least the first conductive layer. The first conductive layer and the second conductive layer have different resistance values. The first conductive layer of one of the pair of wiring lines has a plurality of first resistors each extending toward the other wiring line, and the second conductive layer of the other wiring line has a second resistor extending toward the one wiring line. The plurality of first resistors is connected to the second resistor.

Abstract: A liquid crystal device includes first and second substrates which are arranged so as to face each other with a liquid crystal layer interposed therebetween, and first and second electrodes which are provided on the first substrate facing the liquid crystal layer. The liquid crystal layer is driven by electric fields generated between the first and second electrodes. A reflective display region for reflective display and a transmissive display region for transmissive display are provided in each of a plurality of subpixel regions. A liquid-crystal-layer-thickness-adjusting layer is provided in at least the reflective display region so as to vary the thickness of the liquid crystal layer in the subpixel region. A gap between the first and second electrodes in a main direction of an electric field in the transmissive display region is narrower than a gap between the first and second electrodes in a main direction of an electric field in the reflective display region.

Abstract: A liquid crystal device includes first and second substrates which are arranged to face each other with a liquid crystal layer interposed therebetween, and first and second electrodes which are provided on the first substrate facing the liquid crystal layer. The liquid crystal layer is driven by electric fields generated between the first and second electrodes. A reflective display region for reflective display and a transmissive display region for transmissive display are provided in each of a plurality of subpixel regions. A main direction of an electric field generated between the first and second electrodes in the transmissive display region is different from a main direction of an electric field between the first and second electrodes in the reflective display region.

Abstract: An LED driving circuit for driving a plurality of different LEDs includes: a first power supply circuit that is supplied with an input voltage for generating a plurality of driving voltages and a reference voltage with respect to the input voltage and generates a first output voltage and a second output voltage from the input voltage, on the basis of a first control signal; and a second power supply circuit that is supplied with the first output voltage, the second output voltage, and the reference voltage, selects a voltage for driving the LEDs, on the basis of a second control signal, and outputs them.

Abstract: A method of driving a liquid crystal display device includes a plurality of scanning lines, a plurality of data lines arranged to intersect the plurality of scanning lines, a plurality of pixel electrodes arranged in correspondence with the intersections between the plurality of scanning lines and the plurality of data lines, a plurality of pixel switching elements for supplying the signals of the data lines to the pixel electrodes based on the signals of the scanning lines, and an opposed electrode facing the pixel electrodes. The plurality of scanning lines are supplied with respective timings to apply any one of a selection potential and a non-selection potential to the pixel switching elements, the opposed electrode is inversion-driven between a first potential and a second potential, and at least one of the plurality of scanning lines has the selection potential at a common inversion timing when the opposed electrode is inverted from the first potential to the second potential.

Abstract: An electro-optical device includes: a first optical panel having a pair of substrates with an electro-optical material interposed therebetween; a second optical panel that has a pair of substrates with an electro-optical material interposed therebetween, is disposed so as to overlap the first optical panel in plan view, and is smaller than the first optical panel in plan view; an illumination unit having a light source from which light is emitted and a light guiding member that is disposed between the first and second optical panels so as to make the light emitted from the light source incident on the first and second optical panels; and an optical absorber provided in a region other than a display area of the second optical panel between the first and second optical panels.

Abstract: A liquid crystal device includes: a pair of substrates with liquid crystal interposed therebetween; a first electrode formed on one of the pair of substrates; an insulating layer formed on the first electrode; and a second electrode that is formed on the insulating layer corresponding to a pixel region so as to generate an electric field, the electric field being generated between the first and second electrodes. The first electrode is provided with a plurality of apertures within the pixel region.

Abstract: An electro-optical device includes pixels that are provided to correspond to intersections of a plurality of rows of scanning lines and a plurality of pairs of first and second data lines; a scanning line driving circuit that selects the plurality of rows of scanning lines according to a predetermined sequence; and a data line driving circuit that supplies a data signal having a voltage according to a gray-scale level of each of pixels corresponding to the selected scanning line to the first data line, and supplies an inverted data signal obtained by inverting the data signal on the basis of a predetermined potential to the second data line.

Abstract: An image display device in which one dot is displayed using M (M is an integer larger than 3) sub-pixels having different colors and being disposed adjacent to each other in a vertical direction or horizontal direction, a ratio of a length of the sub-pixel of the one dot in a disposition direction to a length, in a direction orthogonal to the disposition direction being M:3, includes a resolution converter that converts the resolution in the disposition direction of the image data which defines an image to be displayed for every dot to 3/M; a color separating unit that separates the image data converted by the resolution converter into color components corresponding to the M sub-pixels pixels for every dot; and a driving circuit that drives the so as to have a resolution defined by the image data separated by the color separating unit.