Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A control apparatus for a hybrid vehicle includes an internal combustion engine and a generator motor, a capacitor, and a driving force assisting unit. Further, the control device includes a switching unit that selects an appropriate traveling range from a plurality of traveling ranges including at least a normal traveling range and a charging priority range for preferentially charging the capacitor and switches the range, and a threshold value increasing unit that increases, when the charging priority range is selected by the switching unit, the predetermined determination threshold value as compared to when the normal traveling range is selected by the switching unit.

Abstract: A method for positioning a dicing line includes the steps of: bonding an adhesive tape on a semiconductor layer of a wafer; detecting an image of the wafer by an imaging device on the basis of a light transmitted through the wafer; and determining the dicing line of the wafer on the basis of a position of an image of a marker, which is disposed on the semiconductor layer of the wafer. The image of the marker is obtained by image recognition from the detected image of the wafer.

Abstract: A capacitive sensor for detecting a physical quantity includes a movable electrode and a fixed electrode, and a controlling unit for applying a signal between the movable electrode and the fixed electrode. The controlling unit includes an input terminal, an output terminal, and a time measuring means for measuring a time period. The controlling unit measures the time period, for which a diagnosis instruction signal is input into the input terminal. The controlling unit performs the self-diagnosis, after the instruction signal continues for a predetermined time period.

Abstract: A capacitance type physical quantity sensor includes a sensor chip and a circuit chip. The sensor chip includes: a support substrate; a semiconductor layer; a movable electrode; and a fixed electrode. The sensor chip is stacked on the circuit chip such that the movable electrode and the fixed electrode face the circuit chip. The movable electrode has a thickness in a stacking direction. The sensor chip has a first distance between the movable electrode and the circuit chip and a second distance between the movable electrode and the support substrate. The thickness of the movable electrode is larger than the first distance and the second distance.

Abstract: A physical quantity sensor includes: a circuit chip; and a sensor chip disposed on the circuit chip through an adhesive layer. The sensor chip includes: a support substrate; a movable electrode; and a pair of fixed electrodes facing the movable electrode with a detection distance therebetween. The movable electrode and the fixed electrodes are disposed on the substrate. The adhesive layer includes a non-adhesive region and a conductive member. The non-adhesive region is disposed on a region obtained by projecting the sensor chip to the circuit chip. The conductive member is disposed in the non-adhesive region for electrically connecting between the circuit chip and the substrate.

Abstract: A capacitive sensor for detecting a physical quantity includes a movable electrode and a fixed electrode, and a controlling unit for applying a signal between the movable electrode and the fixed electrode. The controlling unit includes an input terminal, an output terminal, and a time measuring means for measuring a time period. The controlling unit measures the time period, for which a diagnosis instruction signal is input into the input terminal. The controlling unit performs the self-diagnosis, after the instruction signal continues for a predetermined time period.

Abstract: In a capacitance type acceleration sensor comprising a movable portion which is equipped with movable electrodes, a poise portion and spring portions formed on a semiconductor substrate and is displaced under application of acceleration, and fixed portions each of which is equipped with fixed electrodes having detection faces confronting the detection faces of the movable electrodes, the movable portion is forcedly displaced by applying a predetermined driving voltage between the movable portion and each of the fixed portions, whereby foreign material hidden in a hollow portion between the movable portion and the semiconductor substrate below the movable portion is exposed and removed by a suction unit.

Abstract: A method of inspecting a semiconductor dynamic quantity includes varying a potential applied to a peripheral fixed portion while applying predetermined potentials to fixed electrodes and to movable electrodes to vary the potential difference between the movable electrodes and the support substrate and to displace the movable electrodes in a direction perpendicular to the surface of the substrate.

Abstract: A capacitance type physical quantity sensor includes a sensor chip and a circuit chip. The sensor chip includes: a support substrate; a semiconductor layer; a movable electrode; and a fixed electrode. The sensor chip is stacked on the circuit chip such that the movable electrode and the fixed electrode face the circuit chip. The movable electrode has a thickness in a stacking direction. The sensor chip has a first distance between the movable electrode and the circuit chip and a second distance between the movable electrode and the support substrate. The thickness of the movable electrode is larger than the first distance and the second distance.

Abstract: A method for positioning a dicing line includes the steps of: bonding an adhesive tape on a semiconductor layer of a wafer; detecting an image of the wafer by an imaging device on the basis of a light transmitted through the wafer; and determining the dicing line of the wafer on the basis of a position of an image of a marker, which is disposed on the semiconductor layer of the wafer. The image of the marker is obtained by image recognition from the detected image of the wafer.

Abstract: A sensor chip (100) includes comb-toothed movable electrodes (24) displaceable in a Y-direction, and comb-toothed stationary electrodes (30, 31, 40, 41) arranged to confront those movable electrodes (24), on one face side of a semiconductor substrate (10). The sensor chip (100) detects acceleration on the basis of a capacity change accompanying an acceleration application in the Y-direction between the movable electrodes (24) and the stationary electrodes (30, 31, 41, 42). The stationary electrodes (30, 31, 41, 42) are individually disposed to confront each other on one and other sides of the direction taken along the Y-direction in the individual movable electrodes (24). The individual electrode pads (25a, 30a, 31a, 40a, 41a) and the circuit chip (200) are electrically connected by bump electrodes (300) so that one face of the substrate (10) confronts the circuit chip (200).

Abstract: A method of inspecting a semiconductor dynamic quantity includes varying a potential applied to a peripheral fixed portion while applying predetermined potentials to fixed electrodes and to movable electrodes to vary the potential difference between the movable electrodes and the support substrate and to displace the movable electrodes in a direction perpendicular to the surface of the substrate.

Abstract: A physical quantity sensor includes: a circuit chip; and a sensor chip disposed on the circuit chip through an adhesive layer. The sensor chip includes: a support substrate; a movable electrode; and a pair of fixed electrodes facing the movable electrode with a detection distance therebetween. The movable electrode and the fixed electrodes are disposed on the substrate. The adhesive layer includes a non-adhesive region and a conductive member. The non-adhesive region is disposed on a region obtained by projecting the sensor chip to the circuit chip. The conductive member is disposed in the non-adhesive region for electrically connecting between the circuit chip and the substrate.