Abstract: A power supply apparatus for a vehicle slide door, including a cable installed between a vehicle body and a slide door and a cable guide for guiding the cable. The cable guide includes a plurality of link members interconnected into a linear configuration. The cable guide includes a first section and a second section. The first section is capable of being bent in a predetermined direction from a generally linear condition. The second section is capable of being bent in an opposite direction opposite to the predetermined direction from a generally linear condition.

Abstract: A mounting fitting (3, 5) is made of a metallic plate material, wherein a first mounting panel (7, 14) to be mounted on a casing (1) is defined on one surface, and a second mounting panel (8, 16) to be mounted on an inner panel (2) is defined on the opposite surface. A reinforcing edge (12, 18) is formed by bending at a peripheral edge portion of the mounting fitting (3, 5) such that an edge end thereof faces in the same direction. The reinforcing edge (12, 18) is continuous along the longitudinal direction thereof without any cut.

Abstract: A display unit has an organic light emitting diode (OLED) 21 provided in correspondence with each of pixels and capable of emitting light by itself, a drive transistor 22 for driving the OLED 21, a twig transistor 23 which is formed so as to have a portion of an electrode of the drive transistor 22 independently formed, and which is used to detect a threshold voltage (Vth) of the drive transistor 22, a compensating capacitor 28 in which the threshold voltage (Vth) detected by the twig transistor 23 is written, a signal capacitor 27 in which a signal voltage to be supplied to the drive transistor 22 is written, a first transistor 24 provided between a data line and the signal capacitor 27, a second transistor 25 provided between the signal capacitor 27 and the compensating capacitor 28, and a third transistor 26 provided between a gate electrode and another electrode of the twig transistor 23.

Abstract: Glass fiber which substantially has the following composition as represented by mol percentage and has a glass transition temperature higher than 300° C. and lower than 400° C.: Li2O+Na2O+K2O: 5 to 35%, P2O5: 20 to 27%, SO3: 3 to 20%, ZnO: 10 to 55%, MgO: 0 to 20%, ZnO+MgO: 10 to 55%, Al2O3: 1 to 5%, and B2O3: 8 to 20%.

Abstract: When a cable support structure according to the present invention is applied to a slide door in a vehicle, a first support member (20) and a second support member (30) support one end portion and another end portion in a cable guide (1) in a state capable of swinging them in a vertical direction approximately perpendicular to a sliding direction (Q) of a slide door (SD). Accordingly, even in the case where an attitude angle of the slide door (SD) with respect to the vertical direction is changed in correspondence to the slide movement, or a vertical position is changed, it is possible to prevent an unreasonable force from being applied to the cable guide (1) on the basis of the above-described attitude or position change.

Abstract: A squaring multiplier for a floating-point number comprises: a pseudo carry generator for generating pseudo information concerning a carry equivalent to predetermined bits for the calculation of a target variable; an MSB look ahead circuit for employing the variable to perform a look ahead operation and establish the location of the MSB (Most Significant Bit) in the calculation results; and combinational circuits for performing the rounding off process and the calculation of the variables by using information concerning a carry, which is generated by the pseudo carry generator and based on the location of the MSB determined by the MSB look ahead circuit.

Abstract: An image display apparatus includes a light emitting element that emits light depending on an injected electric current; a driver that includes at least a first terminal and a second terminal, and controls the light emitting element based on a potential difference, applied between the first terminal and the second terminal, of a level higher than a predetermined threshold; a storage capacitor that serves to retain a potential on the first terminal of the driver; and a controller that changes the potential on the first terminal via the storage capacitor at writing of electric data current corresponding to a display in a black level.

Abstract: A driver for driving a display panel having a light emitting element includes a plurality of control pads, each of which is electrically connected to a control line of the display panel; and a plurality of power source pads, each of which is electrically connected to a power source line of the display panel and is larger in area than the control pad. The control pads and the power source pads are arranged in line and an order of arrangement of the control pads and the power source pads is symmetrical with respect to a direction of pad arrangement.

Abstract: A display device includes a driver circuit that controls so that an electric charge accumulation and a voltage detection/supply start simultaneously for a pixel circuit in a first row in the matrix and a pixel circuit in a second row in a matrix and adjacent to the pixel circuit in the first row in one direction along a column, and that controls so that the electric charge accumulation and the voltage detection/supply end simultaneously for the pixel circuit in the first row and a pixel circuit in a third row and adjacent to the pixel circuit in the first row in another direction along the column.

Abstract: A display includes an electric current controlled light-emitting device that emits light with a luminance depending on an electric current flowing therethrough. The display also includes a transistor that has a gate electrode, a source electrode, and a drain electrode, and controls the electric current based on a data voltage between one of the source and drain electrodes and the gate electrode; and a controller that controls a gate-to-source voltage and a gate-to-drain voltage of the transistor based on a change in the luminance of the electric current controlled light-emitting device while maintaining the transistor element in a saturation region.

Abstract: A common line is eliminated, and one terminal of the capacitor, which has been heretofore connected to the common line, is connected to the scan line of another display cell adjacent to the display cell having the capacitor. A scan line driving circuit supplies to respective scan lines a stepped pulse formed of a voltage V1 and a voltage V2 sufficiently larger than the voltage V1. A data line driving circuit supplies to the respective data lines a voltage not smaller than the voltage V1 and not larger than a voltage V3 (but smaller than the voltage V2) as a data voltage.

Abstract: A cable guide (1) has a plurality of tubular links (11) consecutively connected to one another for pivoting about substantially parallel axes. At least some of the cables to be inserted into a cable guide (1) are flat cables (5) placed one over another so that the width of the flat cables (5) is parallel to the pivotal axes of the links (11) of the cable guide (1).

Abstract: Bases (10) for guiding a movable end (37) of a conductor path (30) have a cross section along a direction normal to a parallel direction to guide rails (12) that is constant over the entire length. Thus, the bases (10) can be obtained by cutting an elongated raw material to a specified length in conformity with a vehicle type, thereby enabling a cost reduction. Further, since the bases (10) are symmetrical with a moving path of the movable end (37) located therebetween, it is sufficient to prepare only one kind of elongated raw material. In this respect as well, costs can be reduced.

Abstract: A method for testing an OLED substrate comprises: the first step of obtaining a first current value passing through a switching element group connected to a selection signal line; the second step of obtaining a second current value passing through a switching element group connected to a data signal line; and the third step of operating a current passing through each switching element including an OLED element from the current value for each pulse signal obtained by each of the steps 1 and 2.

Abstract: An image display apparatus includes a current-controlled light emitting diode emitting light with brightness corresponding to a current flowing therethrough; a wiring structure electrically connected to the current-controlled light emitting diode; and a potential controller controlling a potential of the wiring structure. The image display apparatus also includes a potential change assisting unit controlling electric conductivity between the potential controller and the wiring structure, to change a potential of the wiring structure after a light emitting phase.

Abstract: When a cable support structure according to the present invention is applied to a slide door in a vehicle, a first support member (20) and a second support member (30) support one end portion and another end portion in a cable guide (1) in a state capable of swinging them in a vertical direction approximately perpendicular to a sliding direction (Q) of a slide door (SD). Accordingly, even in the case where an attitude angle of the slide door (SD) with respect to the vertical direction is changed in correspondence to the slide movement, or a vertical position is changed, it is possible to prevent an unreasonable force from being applied to the cable guide (1) on the basis of the above-described attitude or position change.

Abstract: An image display apparatus according to the present invention includes a data line that supplies a voltage determined based on emission brightness, a first switching unit that controls writing of the voltage supplied from the data line, a driver element that controls a current flowing through a current-controlled light emitting element, an organic electro-luminescence element that emits light of brightness corresponding to current applied, a reference-voltage writing unit that supplies a predetermined reference voltage, and a threshold-voltage detecting unit that detects a threshold voltage of the driver element.

Abstract: An image display apparatus includes a current-controlled light emitting; a transistor which controls a first current flowing through the current-controlled light emitting diode, based on a first voltage applied between the gate and the source of the transistor at a light emitting phase; a capacitor arranged between the gate and the source. The image display apparatus also includes a current determining unit which controls a second current flowing between the source and the drain, based on a third voltage applied thereto at the writing phase. The second voltage is written in the capacitor at a writing phase and depends on the second current.

Abstract: A pixel circuit includes a driver element that is supplied with a potential from a data line. The driver element controls a value of current passing through an electric light emitting element. Upon obtaining a threshold voltage, a conductive member connected to the electric light emitting element is made to be a floating state to cause the driver element to become on-state, variations in the potential of the conductive member caused by charges passing through the driver element to flow into the conductive member are detected by a threshold voltage detector to obtain the threshold voltage of the driver element.

Abstract: A wire harness-wiring sliding part has a sliding part (12) and a rail member (11) on which the sliding part (12) is mounted. The rail member (11) has a pair of opposing guide rail portions (11b) longitudinally disposed opposing each other at a predetermined distance. The sliding part (12) has a holding portion (12a), on both its sides, which hold edges of the opposing guide rail portions (11b). The sliding part (12) is longitudinally slidable on the guide rail portions (11b). A wire harness (14), extending from a vehicle body, is wired from a vehicle body provided with the rail member (11) to a sliding door provided with the sliding part (12). A felt material (13) is installed on an inner surface (12b) of each of the holding portions (12a) of the sliding part (12) in a direction orthogonal to a longitudinal direction of the rail member (11). The felt material fills a gap between the inner surface (12b) and a peripheral surface of an end portion of the guide rail portion (11b).