Abstract: A liquid discharge apparatus includes a storage section that stores a liquid between a first surface and a second surface, and a flexible printed substrate for detecting a remaining amount of the liquid in the storage section, in which the flexible printed substrate includes a first wiring portion having an input electrode provided on the first surface, a first detection electrode provided on the second surface, and a second wiring portion having a second detection electrode provided on the second surface and a third detection electrode provided on the second surface, and an area of a first region of the input electrode overlapping the first detection electrode is smaller than an area of a second region of the input electrode overlapping the second detection electrode, and an area of a third region of the input electrode overlapping the third detection electrode is smaller than the area of the second region.

Abstract: A liquid discharge apparatus includes a first storage section that stores a liquid in a space between a first surface and a second surface, a second storage section that stores a liquid in a space between a third surface and a fourth surface, a first flexible printed substrate including a first wiring portion including a first electrode provided on the first surface and a second wiring portion including a second electrode provided on the second surface, and a second flexible printed substrate including a third wiring portion including a third electrode provided on the third surface, the second wiring portion has a first shield electrode that is located between the second electrode and the third wiring portion for shielding the second electrode, and the third wiring portion does not have a shield electrode for shielding the third electrode between the third electrode and the second wiring portion.

Abstract: A command generation device to control a motor includes command input circuitry configured to receive a first command, first intermediate data calculation circuitry configured to calculate first intermediate data based on the first command, delay time setting circuitry configured to determine a delay time based on the first command, second intermediate data calculation circuitry configured to calculate second intermediate data by smoothing the first intermediate data based on the delay time, and command output circuitry configured to calculate, based on the second intermediate data, a second command according to which the motor is controlled. A first time period during which positioning the motor based on the first command is completed when the first intermediate data is smoothed is longer by the delay time than a second time period during which positioning the motor based on the first command is completed when the first intermediate data is not smoothed.

Abstract: A method designs a semiconductor device that includes first and second wirings provided in an uppermost of wiring layers, and a setting part coupled to the first and second wirings and including third and fourth wirings provided in each of the wiring layers, and vias that electrically connect wirings of different wiring layers, wherein each of the third and fourth wirings in each of the wiring layers extends in one of 2 mutually perpendicular directions, and the third and fourth wirings in the wiring layers are arranged and connected so as to turn around using the vias as turn-around points. The method modifies a direction in which the third and fourth wirings extend in one wiring layer specified by layer information, and modifying a connection of the first and second wirings with respect to the third and fourth wirings in a lowermost of the wiring layers.

Abstract: An active matrix substrate includes: a first inorganic insulating film (first insulating layer) provided on a gate insulating film (insulating film); an organic insulating film (second insulating layer) provided on the first inorganic insulating film and having a thermal expansion coefficient different from that of the first inorganic insulating film; and a second inorganic insulating film (third insulating layer) provided in such a manner as to cover the organic insulating film and partially contacting the first inorganic insulating film. A notch is provided above the gate insulating film and in a portion of the second inorganic insulating film where the organic insulating film is not present.

Abstract: A control device for a vehicle open-close member includes an input circuit configured to receive an inputted voltage signal indicating a drive voltage, a power supply voltage and the drive voltage being respectively applied to one terminal and another terminal of an open-close motor of a vehicle open-close member; a short-circuit state judgement unit configured to judge a short circuit as occurring if the drive voltage is out of a predetermined range; and an output circuit configured to output a control signal for decreasing a voltage to be applied to the open-close motor, if the short circuit is judged as occurring.

Abstract: A method designs a semiconductor device that includes first and second wirings provided in an uppermost of wiring layers, and a setting part coupled to the first and second wirings and including third and fourth wirings provided in each of the wiring layers, and vias that electrically connect wirings of different wiring layers, wherein each of the third and fourth wirings in each of the wiring layers extends in one of 2 mutually perpendicular directions, and the third and fourth wirings in the wiring layers are arranged and connected so as to turn around using the vias as turn-around points. The method modifies a direction in which the third and fourth wirings extend in one wiring layer specified by layer information, and modifying a connection of the first and second wirings with respect to the third and fourth wirings in a lowermost of the wiring layers.

Abstract: An active matrix substrate includes: a first inorganic insulating film (first insulating layer) provided on a gate insulating film (insulating film); an organic insulating film (second insulating layer) provided on the first inorganic insulating film and having a thermal expansion coefficient different from that of the first inorganic insulating film; and a second inorganic insulating film (third insulating layer) provided in such a manner as to cover the organic insulating film and partially contacting the first inorganic insulating film. A notch is provided above the gate insulating film and in a portion of the second inorganic insulating film where the organic insulating film is not present.

Abstract: This semiconductor device (100A) includes a plurality of lines (7(m), 14(n)), a thin-film transistor (10) including a semiconductor layer as its active layer, a pixel electrode (3(m)), a protective layer (8) covering the thin-film transistor (10), an auxiliary line (9(m)) arranged on the protective layer (8), and a common electrode (11) which overlaps with at least a portion of the pixel electrode (3(m)) with the protective layer (8) interposed and which is electrically connected to the auxiliary line (9(m)). The auxiliary line (9(m)) is arranged over one line (7(m)). The auxiliary line (9(m)) has a lower electrical resistance than the common electrode (11). When viewed along a normal to a substrate, the auxiliary line (9(m)) runs along the one line (7(m)). And when viewed along a normal to the substrate, the common electrode (11) has an opening area (11u(m)) which overlaps at least partially with the one line (7(m)).