Abstract: A display device of active matrix type allows reducing display brightness non-uniformity that is caused by initial variation and fluctuation over time in a driving transistor for emissive elements in pixel circuits. The display device includes pixel circuits, a measurement circuit and a gradation voltage supplying circuit. Each pixel circuit includes the driving transistor and an input circuit. The measurement circuit includes a constant current supplying circuit for generating and supplying one or more constant currents to the input circuit of the pixel circuits in a time division manner. The measurement circuit A/D-converts output voltages of the constant current supplying circuit and calculates data relating to electron mobility and threshold value of the driving transistor. The gradation voltage supplying circuit supplies to the pixel circuits a corrected gradation voltage, which is data corrected on the basis of data calculated from the measurement circuit.

Abstract: There is provided a terminal apparatus configured to communicate with a base station apparatus. The terminal apparatus includes a reception unit configured to receive information for configuring a plurality of subframe sets and a parameter for each of the plurality of subframe sets from the base station apparatus, and a transmission unit configured to report power headroom calculated based on the parameter for a subframe set to which a subframe in which power headroom reporting is performed belongs, to the base station apparatus in the subframe. Thus, the terminal apparatus can efficiently perform a process related to a transmission power.

Abstract: A headlamp (1) includes a semiconductor laser (3); a light-emitting element (7) that emits light in response to laser light emitted from the semiconductor laser (3); a heat-conducting member (13) that receives heat generated by the light-emitting element (7) through a light-emitting-element facing surface (13a); and a gap layer (15) that is disposed between the light-emitting element (7) and the light-emitting-element facing surface (13a) and that conducts the heat generated by the light-emitting element (7) to the light-emitting-element facing surface (13a). The gap layer (15) contains at least an inorganic amorphous material.

Abstract: An active matrix substrate (5) is provided with mounting terminals (DT1), draw-out lines (22r) connecting the mounting terminals (DT1) and data bus lines (D), first common wires (24) connected in common to the plurality of data bus lines (D), and second thin-film transistors (second switching elements) (23a) connected between the draw-out lines (22r) and the first common wires (24). In the mounting terminals (DT1), upper-layer terminal electrodes (34) and lower-layer terminal electrodes (36a, 36b) are connected via terminal contact holes (H2a). The upper-layer terminal electrodes (34) are provided so as to cover at least portions of second thin-film transistors (26a).

Abstract: Provided is an illumination device capable of improved illumination quality. This back-light unit (illumination device) (20) is provided with a light source, and a light guide (23) which guides light from the light source. The light guide (23) includes an incidence surface (light incidence surface (23a)) where light from the light source is incident, an end region (22b) on the light source side, and a light emitting region (22a) arranged on the side opposite of the light source with respect to the end region (22b). Prisms (23e) which reflect the light entering the light guide (23) are provided in the light emitting region of the light guide (23). These prisms (23e) are configured to begin from a position (L1) separated by a predetermined distance (D30) from the light incidence surface (23a) in the end region (22b).

Abstract: Provided is a light emitting device in which with the general color rendering index Ra and the special color rendering index R9 maintained at high numeric values, the light emission efficiency is prevented from being reduced as much as possible, and the high color rendering and the high efficiency are achieved so as to be usable for general lighting usage. The device includes at least one light emitting element 6 emitting a light having a peak emission wavelength in a near-ultraviolet to blue region, and a phosphor layer 5 containing a green phosphor excited by a primary light emitted from the light emitting element 6 and emitting a light having a peak emission wavelength in a green region, a first red phosphor excited by the primary light and emitting a light having a peak emission wavelength in a red region, and a second red phosphor exited by the primary light and emitting a light having a peak emission wavelength different from that of the first red phosphor in the red region.

Abstract: Transmission power for an uplink signal is efficiently set.

Abstract: An semiconductor structure comprises a first quantum well having a first state (E3) with an energy that is greater than an energy of a lower state (E1) by a first energy difference, a quantum well structure (100) adjacent to the first quantum well and having at least a second state (E4) having an energy level which is resonant with the first state (E3) of the first quantum well, a second quantum well having at least a third state (E2) to collect electrons from the second state (E4) of the quantum well structure through a non-radiative mechanism and a fourth state (E5). An energy of the fourth state of the second quantum well is greater than an energy of the third state (E2) by a second energy difference. The structure can absorb two photons, one in the first quantum well by excitation of a carrier from the lower energy state (E1) to the first state (E3) and another in the second quantum well by excitation of a carrier from the third state (E2) to the fourth state (E5).

Abstract: Disclosed is a cross-flow fan where an inner diameter (d) and an outer diameter (D) of a fan blade meet the relationship expressed by 0.55?d/D?0.95. In cross-flow fan, (N) representing number of fan blades, a chord length (L) and outer diameter (D) of fan blades, and (M) representing number of blade wheels meet the relationships expressed by of 0.6?L/(?D/N)?2.8 and 0.15??D/(N×M)?3.77. A plurality of blade wheels are stacked on each other in a manner that a displacement angle (?) is generated within the range of (1.2×360°/(N×M))???(360°/N) between adjacent blade wheels. The displacement angle (?) is set so that the overlapping number of fan blades having an equal installation angle is at most 5% of N×M representing a total number of fan blades. The present invention can provide a cross-flow fan that can succeed in noise reduction, a molding die used to produce the cross-flow fan, and a fluid feeder equipped with the cross-flow fan.

Abstract: An electronic device for indicating a leading picture is described. The electronic device includes memory in communication with a processor and instructions stored in the memory. The electronic device encodes a first picture. The electronic device further determines whether a leading picture is present. The electronic device further generates an explicit leading picture indicator if a leading picture is present. The electronic device further sends the explicit leading picture indicator if a leading picture is present.

Abstract: The present invention provides a liquid crystal display device that is excellent in production efficiency, achieves a high CR, and significantly improves the viewing angle characteristics (reduces the gamma shift), while suppressing an image blur. The present invention provides a liquid crystal display device at least including: an anisotropic collimating backlight; a lower polarizing plate; a liquid crystal panel; an upper polarizing plate; and an anisotropic diffusion element, the anisotropic collimating backlight having a light distribution anisotropy of a specific angle being combined with the anisotropic diffusion element having a diffusion anisotropy of a specific angle.

Abstract: A memory access section 16 writes, in a memory (10), a received image signal, in a case where a current frame is one that is located right before a frame in a scanning signal. On the other hand, the memory access section 16 does not write, in the memory (10), a received image signal, in a case where the current frame is one that is located right before a frame in a pause period. This allows a further reduction in electric power used to write, in the memory (10), an image signal received from outside.

Abstract: In a pixel circuit, during a period during which an organic EL element is not emitting light, transistors are in an “on” state and the organic EL element is reversed-biased by a low-level power-supply potential and a reverse-biasing power-supply potential. A reverse-direction voltage determined by a reverse-direction current that depends on the degree to which degradation of the organic EL element has progressed is thus written to a capacitor. A data voltage is then supplied to the capacitor via another capacitor, bringing the drive voltage of a transistor that controls the current that drives the organic EL element to Vsig+Voledr. This makes it possible to minimize decreases in the emission luminance of an electrooptical element such as an organic EL element due to degradation thereof over time.

Abstract: The present invention provides a television including first to fourth keyword candidate acquiring sections for acquiring a plurality of keyword candidates according to algorisms different from each other; a keyword determining section for causing a display section to display thereon a keyword list including the plurality of keyword candidates thus obtained by the keyword candidate acquiring means, and for determining that a search keyword is to be a keyword candidate selected from the keyword list by an input instruction; and a search scope determining section for causing the display section to display a search scope list of a plurality of search scopes different from each other, and for determining that a search scope to be used for search process with the search keyword is to be a search scope selected from the search scope list by an input instruction.

Abstract: An image forming apparatus includes a main body and a processing apparatus. The processing apparatus includes a first processing unit and a second processing unit. The main body has a manual-feed tray at one lateral face. The first processing unit and the second processing unit are stacked in the vertical direction on the same lateral face side of the main body as the manual-feed tray provided. The second processing unit is slidable in a toward-away direction between a connecting position and a separate position, and has a hollow to insert the manual-feed tray therein at the connecting position.

Abstract: The instant invention provides a method of treating a cancer, selected from the group consisting of breast cancer, melanoma, colorectal cancer, non-small cell lung cancer and ovarian cancer, by administering a combination of a WEE1 inhibitor and a CHK1 inhibitor, wherein the WEE1 inhibitor is MK-1775 or a pharmaceutically acceptable salt thereof, or MK-3652 or a pharmaceutically acceptable salt thereof, and the CHK1 inhibitor is MK-8776 or a pharmaceutically acceptable salt thereof, or SCH900444 or a pharmaceutically acceptable salt thereof.

Abstract: A wireless communication system includes a first channel state measurer and a second channel state measurer. When a second communication device measures a state of a channel between the second communication device and a first communication device using reference signals transmitted from the first communication device, the first channel measurer is configured to measure a state of the channel including an interference due to a signal transmitted from another first communication device. When measuring the state of the channel between the second communication device and the first communication device using the reference signals transmitted from the first communication device, the second channel state measurer measures the state of the channel while suppressing the interference due to the signal transmitted from the another first communication device.

Abstract: The present invention makes possible video expressions with increased feeling of brightness and increased contrast feeling and to be able to prevent the feeling of brightness and the contrast feeling from becoming unnatural during execution of the multi-screen display. This video display device comprises: a control portion (a signal processing portion (1); an area-active-control/luminance-stretch-portion (4)) that controls a displaying portion (8) and a backlight portion (6); and a display instruction detection portion (13a) that detects display instructions of first and second input video signals. The control portion stretches and increases the luminance of the backlight portion (6), and also controls a light emitting portion enhancement processing according to a result of the detection.

Abstract: In at least one operation control TFT (27N, 27P) in a control circuit (27), an impurity of a type that generates an impurity level of a channel region (33c) is included in the channel region (33c) as a threshold adjustment impurity, and the concentration of the threshold adjustment impurity is made higher than the concentration of the threshold adjustment impurity in channel regions (33c) of other TFTs (21, 25, 28) of the same type, thus causing the absolute value of the threshold voltage to be greater than that of the other TFTs (21, 25, 28) of the same type.

Abstract: A liquid crystal display device 10 includes a liquid crystal panel 11, a backlight unit 12, a panel controller 50, and a backlight controller 51. The liquid crystal panel 11 includes red pixels RPX, blue pixels BPX, and green pixels GPX. The backlight unit 12 includes magenta LEDs 17M and green LEDs 17G. The panel controller 50 is for controlling the liquid crystal panel 11 such that one frame display period includes a first red and blue display period, a second red and blue display period, a first green display period, and a second green display period. In the first and the second display periods, the red pixels RPX and the blue pixels BPX are driven. In the first and the second green display periods, the red pixels RPX and the green pixels GPX are driven.