Abstract: To enhance the degree of design freedom of an outermost conductor layer in an electronic component embedded substrate. An electronic component embedded substrate includes conductor layers, insulating layers each of which is positioned between adjacent two of the conductor layers, and an electronic component embedded in the insulating layer. The conductor layer is positioned in the uppermost layer and includes a plurality of terminal electrodes exposed to one surface side. The insulating layers are each made of a core material obtained by impregnating a core with a resin material, while the insulating layers are made of a resin material not containing a core. Since the insulating layer is made of a resin material not containing a core, the diameter of a via conductor formed in the insulating layer can be reduced. Thus, even when the plurality of terminal electrodes are formed in the conductor layer with a small pitch, the routing distance of wires can be reduced.

Abstract: According to one embodiment, an anomaly sign detection system comprising one or more computers configured to: calculate a correction value for correcting at least one actual process value from the at least one actual process value and at least one reference process value; determine whether each of plurality of actual process values is correlated with the at least one reference process value or not, based on correction-necessity coefficient of determination; use the correction value for correcting at least one actual process value determined to be correlated with the at least one reference process value among the plurality of actual process values; generate learning input data including at least one corrected process value as the at least one actual process value corrected by the correction value; and perform machine learning by inputting the learning input data to anomaly sign detection model.

Abstract: According to one embodiment, an anomaly detection apparatus includes a processing circuit. The processing circuit is configured to: acquire measured values from sensors installed in a system, a first function, a first threshold, and a second function to output a second threshold; generate the predicted values based on the measured value and the first function; detect that a deviation between the measured values and the predicted values exceeds the first threshold; calculate the feature quantities based on the measured values; and determine whether a number of consecutive times is equal to or larger than the second threshold to detect an anomaly or a sign of the anomaly.

Abstract: An on-vehicle display device 1 displays a video around a vehicle and travel information of the vehicle on a single display unit 20. The on-vehicle display device 1 includes video display enable/disable input units 11, 12, 13, and 14 inputting display enable/disable of the video around the vehicle, display modification units 30 and 40 modifying the display size of each of a video display section and a travel information display section on the basis of the input video display enable/disable, and an input prediction unit 30 predicting input of display enable/disable of the video around the vehicle. Even when video display disable is input from a video display enable/disable input unit, if the input prediction unit 30 predicts input of video display enable, the display modification units 30 and 40 do not modify the display size of each of the video display section and the travel information display section.

Abstract: A vehicle display apparatus includes a display section, an estimation section, and a controller. The display section has a screen and displays an image on the screen so that a user views a design in the image at a position away from the screen by a predetermined distance in a direction perpendicular to the screen. The estimation section estimates whether a movement of a line of sight of the user to the screen from a region outside the screen occurs. The controller gradually increases the distance, when the estimation section estimates that the movement occurs.

Abstract: A liquid crystal display device includes a panel, a heater, and a temperature detector. The panel includes substrates, electrodes and liquid crystal. The electrodes and the liquid crystal are disposed between the substrates. The heater has a transparent heating member, and the heating member emits heat by being supplied with electricity. At least a part of the heating member of the heater is located to overlap with a display area of the panel in a thickness direction of the substrates. A temperature detecting portion of the temperature detector and the heating member of the heater are located adjacent to each other.

Abstract: A liquid crystal display device includes a panel, a heater, and a temperature detector. The panel includes substrates, electrodes and liquid crystal. The electrodes and the liquid crystal are disposed between the substrates. The heater has a transparent heating member, and the heating member emits heat by being supplied with electricity. At least a part of the heating member of the heater is located to overlap with a display area of the panel in a thickness direction of the substrates. A temperature detecting portion of the temperature detector and the heating member of the heater are located adjacent to each other.

Abstract: An on-vehicle display device 1 displays a video around a vehicle and travel information of the vehicle on a single display unit 20. The on-vehicle display device 1 includes video display enable/disable input units 11, 12, 13, and 14 inputting display enable/disable of the video around the vehicle, display modification units 30 and 40 modifying the display size of each of a video display section and a travel information display section on the basis of the input video display enable/disable, and an input prediction unit 30 predicting input of display enable/disable of the video around the vehicle. Even when video display disable is input from a video display enable/disable input unit, if the input prediction unit 30 predicts input of video display enable, the display modification units 30 and 40 do not modify the display size of each of the video display section and the travel information display section.

Abstract: A liquid crystal display device includes a panel, a heater, and a temperature detector. The panel includes substrates electrodes and liquid crystal. The electrodes and the liquid crystal are disposed between the substrates. The heater has a transparent heating member, and the heating member emits heat by being supplied with electricity. At least a part of the heating member of the heater is located to overlap with a display area of the panel in a thickness direction of the substrates. A temperature detecting portion of the temperature detector and the heating member of the heater are located adjacent to each other.

Abstract: A vehicle information display system includes a head-up display for reflecting an image on a windshield of a vehicle and displaying the image so that a driver recognizes the image as a virtual image. Information is collected for being displayed by the head-up display. A circumstance of the vehicle, a circumstance of surrounding of the vehicle, or a circumstance of the driver is detected. The collected information is classified in accordance with a detection result. Then, display contents of the head-up display are controlled in accordance with a classification result.

Abstract: To provide a circuit device freed from constrains of a mounting direction. The circuit device according to the present invention includes: a conductive pattern for forming a die pad, a first bonding pad, and a second bonding pad; and a semiconductor element (TR) attached to the conductive pattern. The circuit device further includes: a sealing resin for covering the semiconductor element (TR) and the conductive pattern with a rear surface of the conductive pattern being exposed; and a coating resin for covering the rear surface of the conductive pattern exposed from the sealing resin. The rear surface of the conductive pattern is exposed from openings of the coating resin, and the openings are arranged with rotational symmetry about a central point of the circuit device.

Abstract: To provide a circuit device freed from constrains of a mounting direction. The circuit device according to the present invention includes: a conductive pattern for forming a die pad, a first bonding pad, and a second bonding pad; and a semiconductor element (TR) attached to the conductive pattern. The circuit device further includes: a sealing resin for covering the semiconductor element (TR) and the conductive pattern with a rear surface of the conductive pattern being exposed; and a coating resin for covering the rear surface of the conductive pattern exposed from the sealing resin. The rear surface of the conductive pattern is exposed from openings of the coating resin, and the openings are arranged with rotational symmetry about a central point of the circuit device.

Abstract: A vehicle information display system includes a head-up display for reflecting an image on a windshield of a vehicle and displaying the image so that a driver recognizes the image as a virtual image. Information is collected for being displayed by the head-up display. A circumstance of the vehicle, a circumstance of surrounding of the vehicle, or a circumstance of the driver is detected. The collected information is classified in accordance with a detection result. Then, display contents of the head-up display are controlled in accordance with a classification result.

Abstract: The object of the present invention is to provide a composite apparatus in which a meter for a vehicle and an obstacle alarm device for a vehicle share a constituting means common to the meter and the obstacle alarm device. The meter and the obstacle alarm device share a buzzer-driving circuit (40) of and a buzzer (50).

Abstract: An indicating instrument includes a generally straight illumination lamp or cold cathode fluorescent lamp and a light conducting plate which are disposed on the back of a dial plate. The dial plate has plurality of trans-illuminous gauge or meter patterns. The cold cathode fluorescent lamp is disposed longitudinally at an upper side of the light conducting plate to guide the light of the lamp to the trans-illuminous gauge or meter patterns.