Abstract: According to one embodiment, a semiconductor storage device includes a plurality of electrode films on a substrate, spaced from one another in a first direction. A charge storage film is provided on a side face the electrode films via a first insulating film. A semiconductor film is provided on a side face of the charge storage film via a second insulating film. The charge storage film includes a plurality of insulator regions contacting the first insulating film, a plurality of semiconductor or conductor regions provided between the insulator regions and another insulator region.

Abstract: A display control device includes an operation information acquisition unit and a cursor coordinate controller. The cursor coordinate controller is configured to, in a state in which a cursor is set to a predetermined selection item, when operation information is acquired from the operation information acquisition unit, and when, based on a position of the cursor on a display surface of a display device, the selection item is included in a search area that is set in a direction corresponding to an operation direction included in the operation information on the display surface, select the selection item at a position closest to a reference point of the cursor in the direction corresponding to the operation direction as the selection item to be a movement destination of the cursor.

Abstract: Display control systems, methods, and programs obtain an indicated location indicated by a pointer, based on an output from a pointing device, and display, on a display, a user interface screen that displays icons at predetermined locations and displays the pointer indicating the indicated location. The systems methods, and programs draw, when the indicated location is present in a draw-in region including one of the icons, the indicated location into the icon. The systems methods, and programs set, when a first icon and a second icon for performing operations related to a same function are arranged side by side on the display, a first draw-in region including the first icon and a second draw-in region including the second icon such that the first draw-in region and the second draw-in region are present in a region between the first icon and the second icon and adjacent to each other.

Abstract: A voltage detector includes a comparison unit which is equipped with a plurality of comparators and which is configured to compare a threshold voltage and determination voltages corresponding to each comparator and output a first result of High or Low for each comparator and configured to compare an input voltage and the determination voltages and output a second result of High or Low for each comparator, and a determination unit configured to determine based on the first result and the second result whether or not the input voltage is less than or equal to the threshold voltage.

Abstract: Operation systems, methods, and programs display a first display screen and a second display screen. Each of the first display screen and the second display screen include a plurality of control images to be selected to control an object. The systems, methods, and programs receive a signal to move a moving point in the display area. Based on the received signal, the systems, methods, and programs determine an amount of movement of the moving point in the display area with respect to an amount of operation in the operation area, and change the amount of movement with respect to the amount of operation when a distance between the plurality of control images on the first display screen is different from a distance between the plurality of control images on the second display screen due to switching from the first display screen to the second display screen.

Abstract: A display control device includes an operation information acquisition unit and a cursor coordinate controller. The cursor coordinate controller is configured to, in a state in which a cursor is set to a predetermined selection item, when operation information is acquired from the operation information acquisition unit, and when, based on a position of the cursor on a display surface of a display device, the selection item is included in a search area that is set in a direction corresponding to an operation direction included in the operation information on the display surface, select the selection item at a position closest to a reference point of the cursor in the direction corresponding to the operation direction as the selection item to be a movement destination of the cursor.

Abstract: Display control systems, methods, and programs obtain an indicated location indicated by a pointer, based on an output from a pointing device, and display, on a display, a user interface screen that displays icons at predetermined locations and displays the pointer indicating the indicated location. The systems methods, and programs draw, when the indicated location is present in a draw-in region including one of the icons, the indicated location into the icon. The systems methods, and programs set, when a first icon and a second icon for performing operations related to a same function are arranged side by side on the display, a first draw-in region including the first icon and a second draw-in region including the second icon such that the first draw-in region and the second draw-in region are present in a region between the first icon and the second icon and adjacent to each other.

Abstract: A temperature detection circuit and a temperature measurement circuit capable of detecting and measuring temperatures precisely are disclosed. The temperature detection circuit includes n temperature detectors (n is an integer of 2 or more), each of the temperature detectors being configured to output a detection signal of high level when a temperature of an object reaches a first value, and a temperature determination part configured to determine whether or not the temperature of the object has reached a second value based on a count of high-level detection signals.

Abstract: A voltage detector includes a comparison unit which is equipped with a plurality of comparators and which is configured to compare a threshold voltage and determination voltages corresponding to each comparator and output a first result of High or Low for each comparator and configured to compare an input voltage and the determination voltages and output a second result of High or Low for each comparator, and a determination unit configured to determine based on the first result and the second result whether or not the input voltage is less than or equal to the threshold voltage.

Abstract: A temperature detection circuit and a temperature measurement circuit capable of detecting and measuring temperatures precisely are disclosed. The temperature detection circuit includes n temperature detectors (n is an integer of 2 or more), each of the temperature detectors being configured to output a detection signal of high level when a temperature of an object reaches a first value, and a temperature determination part configured to determine whether or not the temperature of the object has reached a second value based on a count of high-level detection signals.

Abstract: An instruction receiving system includes: an arrangement determination portion configured to determine an arrangement of a display region on a display portion; a display controlling portion configured to display a user interface screen on the display region; a pointer display portion configured to display a pointer on the display portion based on an output value of a pointing device, wherein when the arrangement is changed, the pointer display portion determines a range of the display portion based on the arrangement thus changed, the range of the display portion corresponding to a range of the output value of the pointing device.

Abstract: An output transistor coupled between an input terminal where an input voltage is input and an output terminal where an output voltage is output; an error amplifier configured to generate a first error signal and a second error signal based on a voltage in accordance with the output voltage and a reference voltage, and to output the first error signal to a gate terminal of the output transistor; an anti-overshoot circuit coupled to the output terminal and controlled by the second error signal; an output transistor control part configured to add a control signal based on a first current in accordance with an AC component of the output voltage to the first error signal; and a sensitivity adjustment part configured to decrease the first current based on the second error signal when the output voltage is higher than a certain voltage.

Abstract: An output transistor coupled between an input terminal where an input voltage is input and an output terminal where an output voltage is output; an error amplifier configured to generate a first error signal and a second error signal based on a voltage in accordance with the output voltage and a reference voltage, and to output the first error signal to a gate terminal of the output transistor; an anti-overshoot circuit coupled to the output terminal and controlled by the second error signal; an output transistor control part configured to add a control signal based on a first current in accordance with an AC component of the output voltage to the first error signal; and a sensitivity adjustment part configured to decrease the first current based on the second error signal when the output voltage is higher than a certain voltage.

Abstract: A distance from a stopped position of a vehicle to a target parking position is determined as a set distance. The vehicle is then moved by gradually lowering a requisite braking force that includes an oscillating braking force. It is thus possible to run the engine-powered vehicle at an extremely low speed, regardless of whether a motor is provided.

Abstract: An initial value ?0 of a vehicle deflection angle ? and an initial value L0 of a distance L are set, a normalized coefficient R is determined from the ratio of the vehicle deflection angle ? or the distance L to the initial value ?0 or the initial value L0 when vehicle stop control is started, and the target speed VREF of a body speed VL is determined by that coefficient R. Since the body speed V of the vehicle VL is very low when the vehicle VL arrives at a target parking position, the vehicle VL can be stopped precisely at the target parking position.

Abstract: A driving support apparatus, which supports a driving operation of a vehicle by an operator by capturing a view around the vehicle and by displaying the captured view on at least a display device provided inside a cabin of the vehicle, and includes: a target spot setting device for setting a target spot that is a position to which the operator attempts to direct the vehicle; a distance measuring device for measuring a distance between the vehicle and the target spot; a speed measuring device for measuring a traveling speed of the vehicle; and a speed controlling device for controlling the traveling speed of the vehicle so as not to exceed a speed predetermined in accordance with the distance between the vehicle and the target spot.

Abstract: A signal processing device includes an upper amplitude value estimating portion estimating an upper amplitude value based on a peak value of the detection signal and a predetermined median value of a preset range, a lower amplitude value estimating portion estimating a lower amplitude value based on the median value and a bottom value of the detection signal, an offset adjustment signal generating portion generating an offset adjustment signal for offset-adjusting the detection signal in a case where either one of the upper amplitude value or the lower amplitude value is set as a reference value and the other one of the upper and lower amplitude values becomes greater than a set value, an offset adjustment portion offset-adjusting the detection signal based on the offset adjustment signal, and a binarization portion binarizing an output signal from the offset adjustment portion based on a threshold value estimated from the detection signal.

Abstract: An initial value ?0 of a vehicle deflection angle ? and an initial value L0 of a distance L are set, a normalized coefficient R is determined from the ratio of the vehicle deflection angle ? or the distance L to the initial value ?0 or the initial value L0 when vehicle stop control is started, and the target speed VREF of a body speed VL is determined by that coefficient R. Since the body speed V of the vehicle VL is very low when the vehicle VL arrives at a target parking position, the vehicle VL can be stopped precisely at the target parking position.

Abstract: A target vehicle path is corrected in accordance with the environment surrounding a vehicle during parking assist or U-turn assist. To achieve the target vehicle path, target wheel speeds are set for respective wheels so as to generate a speed difference an inside wheel and an outside wheel of a turn. The target wheel speed is achieved by controlling braking force and driving force of each wheel. Thus, it is possible for the vehicle to turn with a smaller turning radius than that generated by a normal steering angle, and to cause the vehicle to move accurately along the target vehicle path that avoids any obstacles that are present.

Abstract: In a parking assist control apparatus for assisting a driver with parking a vehicle, when a brake control ECU detects that a door is open based on a detection signal from a door open/close sensor during parking assist control, the brake control ECU determines whether the open door is a door other than the driver side door. If the open door is a door other than the driver side door, the vehicle is automatically stopped, thus enabling occupant safety to be ensured.