Abstract: An automobile includes a traffic information acquisition device that acquires traveling vehicle information, and traffic information from a traffic information management center that manages traffic obstacle information on an obstacle on a road, a display device that displays surroundings map information of a subject vehicle together with a mark showing a current position of the subject vehicle, and a control device. The control device reflects a decorative image based on surroundings traffic obstacle information in the surroundings map information and displays the decorative image on the display device, and associates, with the decorative image, an involved vehicle number image on an involved vehicle number, and displays the involved vehicle number image on the display device. The involved vehicle number is the number of vehicles in the traveling vehicle information involved in the traffic information related to the decorative image.

Abstract: An automobile includes a traffic information acquisition device that acquires traveling vehicle information, and traffic information from a traffic information management center that manages traffic obstacle information on an obstacle on a road, a display device that displays surroundings map information of a subject vehicle together with a mark showing a current position of the subject vehicle, and a control device. The control device reflects a decorative image based on surroundings traffic obstacle information in the surroundings map information and displays the decorative image on the display device, and associates, with the decorative image, an involved vehicle number image on an involved vehicle number, and displays the involved vehicle number image on the display device. The involved vehicle number is the number of vehicles in the traveling vehicle information involved in the traffic information related to the decorative image.

Abstract: A vehicle includes a traffic obstruction information acquisition device configured to acquire traffic obstruction information, a vehicle information acquisition device configured to acquire vehicle information related to a second vehicle located between a position of the vehicle and a location on the traveling route where a traffic obstruction has occurred, a notification device configured to give, to a driver of the vehicle, a notification by a first notification method and a notification by a second notification method, and a control device configured to notify the driver of the traffic obstruction information by the first notification method when a predetermined condition that brings difficulty for the driver in recognition of the traffic obstruction is not satisfied based on the vehicle information, and notify the driver of the traffic obstruction information by the second notification method when the predetermined condition is satisfied based on the vehicle information.

Abstract: A vehicle includes an image capturing device configured to capture an image in a vehicle traveling direction, a display device, and a controller configured to carry out an analysis of the image captured by the image capturing device and display an indicator based on the analysis on the display device. The controller is configured to display a first object that approaches a host vehicle on the display device in a mode different from a mode for a second object that does not approach the host vehicle within the image captured by the image capturing device.

Abstract: A test system configured to perform an electrical-characteristic test on a device under test, includes: a mount on which the device under test is to be mounted; a conveyance mechanism configured to convey the mount; a test head including a measurement circuit for performing the electrical-characteristic test; a probe configured to connect an electrode of the device under test to the measurement circuit; a lifting and lowering mechanism configured to move the mount along a first direction such that the electrode and the probe are in contact or spaced apart; and an alignment mechanism provided at the test head, the alignment mechanism being configured to move the probe on a plane crossing the first direction so as to align the probe with the electrode on the plane.

Abstract: An inspection device comprises a stage for placing a device under test thereon, a dynamic characteristics test probe, a static characteristics test probe, and a control device configured to perform positional control by moving at least one of the stage, the dynamic characteristics test probe, and the static characteristics test probe. The control device performs the positional control such that the dynamic characteristics test probe is set to a dynamic characteristics test state in which the dynamic characteristics test probe is brought into contact with the electrode when the dynamic characteristics test is performed, and performs the positional control such that the static characteristics test probe is set to a static characteristics test state in which the static characteristics test probe is brought into contact with the electrode while the dynamic characteristics test probe is separated from the electrode when the static characteristics test is performed.

Abstract: A test system configured to perform an electrical-characteristic test on a device under test, includes: a mount on which the device under test is to be mounted; a conveyance mechanism configured to convey the mount; a test head including a measurement circuit for performing the electrical-characteristic test; a probe configured to connect an electrode of the device under test to the measurement circuit; a lifting and lowering mechanism configured to move the mount along a first direction such that the electrode and the probe are in contact or spaced apart; and an alignment mechanism provided at the test head, the alignment mechanism being configured to move the probe on a plane crossing the first direction so as to align the probe with the electrode on the plane.

Abstract: In an inspection system for a device to be tested, a stage, on which a device to be tested and a diode are loaded, is moved to a static characteristic test station and a dynamic characteristic test station. A method for operating an inspection system for a device to be tested includes a process of carrying in and loading the stage, on which the device to be tested and the diode are loaded, a process of carrying in and fixing the device to be tested to a test station, a process of bringing a probe into contact with the diode, a process of switching a position of the diode, a process of performing a measurement with respect to the device to be tested, a process of carrying out the device to be tested from the stage, and a process of classifying the device to be tested.

Abstract: An inspection device comprises a stage for placing a device under test thereon, a dynamic characteristics test probe, a static characteristics test probe, and a control device configured to perform positional control by moving at least one of the stage, the dynamic characteristics test probe, and the static characteristics test probe. The control device performs the positional control such that the dynamic characteristics test probe is set to a dynamic characteristics test state in which the dynamic characteristics test probe is brought into contact with the electrode when the dynamic characteristics test is performed, and performs the positional control such that the static characteristics test probe is set to a static characteristics test state in which the static characteristics test probe is brought into contact with the electrode while the dynamic characteristics test probe is separated from the electrode when the static characteristics test is performed.

Abstract: In an inspection system for a device to be tested, a stage, on which a device to be tested and a diode are loaded, is moved to a static characteristic test station and a dynamic characteristic test station. A method for operating an inspection system for a device to be tested includes a process of carrying in and loading the stage, on which the device to be tested and the diode are loaded, a process of carrying in and fixing the device to be tested to a test station, a process of bringing a probe into contact with the diode, a process of switching a position of the diode, a process of performing a measurement with respect to the device to be tested, a process of carrying out the device to be tested from the stage, and a process of classifying the device to be tested.

Abstract: An input/output module is configured to achieve at least one of a function of acquiring a measurement signal from a measurement target and a function of outputting data. The input/output module includes a casing, a rotational connector disposed on the casing, the rotational connector including an arc-shaped notch, the rotational connector being configured to interlock with a connection mechanism of a base to serve as a rotation point so that the input/output module is rotatable to get connected to the base and a latch-shaped fixer configured to fit into a groove formed in at least one of an upper inner surface and a lower inner surface when the input/output module is pushed into a slot having the upper inner surface and the lower inner surface to get connected.

Abstract: An interpolation circuit includes: a plurality of holding circuits configured to each hold a corresponding input data input chronologically; and a generating circuit configured to generate interpolation data by giving weights, based on an interpolation code, to input data that are chronologically adjacent to each other and are held by the plurality of holding circuits and combining the weighted data together.

Abstract: An electronic circuit includes: a weighting circuit configured to generate a first current by weighting and combining a first input signal and a second input signal in accordance with a modifiable coefficient and to generate a second current by weighting and combining a first inverted signal and a second inverted signal in accordance with the coefficient, the first inverted signal being an inverted signal of the first input signal, the second inverted signal being an inverted signal of the second input signal; and a decision circuit configured to decide on an output signal by comparing the first current with the second current.

Abstract: In a phase adjustment circuit, a first phase adjuster has a plurality of parallel-connected first inverters that receives an input signal to be phase-adjusted, wherein a first inverter to be activated is selected by a first control signal. A second phase adjuster has a plurality of parallel-connected second inverters that receives the input signal with a predetermined delay time, wherein a second inverter to be activated is selected by a second control signal. An output circuit receives output signals of the first and second phase adjusters and outputs a signal whose phase is adjusted within a range of the delay time. The second phase adjuster further includes transistors connected to the second inverters. During the delay time, these transistors block a current path between the first and second phase adjusters, under the control of the input signal.

Abstract: An interpolation circuit includes: a plurality of holding circuits configured to each hold a corresponding input data input chronologically; and a generating circuit configured to generate interpolation data by giving weights, based on an interpolation code, to input data that are chronologically adjacent to each other and are held by the plurality of holding circuits and combining the weighted data together.

Abstract: An electronic circuit includes: a weighting circuit configured to generate a first current by weighting and combining a first input signal and a second input signal in accordance with a modifiable coefficient and to generate a second current by weighting and combining a first inverted signal and a second inverted signal in accordance with the coefficient, the first inverted signal being an inverted signal of the first input signal, the second inverted signal being an inverted signal of the second input signal; and a decision circuit configured to decide on an output signal by comparing the first current with the second current.

Abstract: In a phase adjustment circuit, a first phase adjuster has a plurality of parallel-connected first inverters that receives an input signal to be phase-adjusted, wherein a first inverter to be activated is selected by a first control signal. A second phase adjuster has a plurality of parallel-connected second inverters that receives the input signal with a predetermined delay time, wherein a second inverter to be activated is selected by a second control signal. An output circuit receives output signals of the first and second phase adjusters and outputs a signal whose phase is adjusted within a range of the delay time. The second phase adjuster further includes transistors connected to the second inverters. During the delay time, these transistors block a current path between the first and second phase adjusters, under the control of the input signal.

Abstract: An input/output module is configured to achieve at least one of a function of acquiring a measurement signal from a measurement target and a function of outputting data. The input/output module includes a casing, a rotational connector disposed on the casing, the rotational connector including an arc-shaped notch, the rotational connector being configured to interlock with a connection mechanism of a base to serve as a rotation point so that the input/output module is rotatable to get connected to the base and a latch-shaped fixer configured to fit into a groove formed in at least one of an upper inner surface and a lower inner surface when the input/output module is pushed into a slot having the upper inner surface and the lower inner surface to get connected.

Abstract: An equalizer circuit includes: a plurality of amplifiers that convert a voltage signal into a current; a plurality of capacitive loads that are charged and discharged in accordance with respective outputs of the plurality of amplifiers; a charge discharge circuit provided for each of the plurality of capacitive loads to charge or discharge one of the plurality of capacitive loads; and a reset circuit provided for each of the capacitive loads to initialize the charge stored in the one of the plurality of capacitive loads, wherein a current according to the voltage signal is integrated in different periods for each of the plurality of capacitive loads and the capacitive load is discharged through the current in a first period and the capacitive load is charged through the current in a second period following the first period.

Abstract: A panel instrument to be mounted in a panel board, including: a main body having an outside dimension applicable to a first and a second panel instrument size standards; a display provided on one end of the main body and having an area that occupies a part of a front face of the panel board and is applicable to the first panel instrument size standard; a front panel mounted on a front face of the display; and a rear panel for holding the display with the front panel, wherein the rear panel has: first mounting holes that are provided on one diagonal line of the rear panel and correspond to a mounting hole standard applicable to the second panel instrument size standard; and second mounting holes that are provided on the other diagonal line and correspond to a mounting hole standard applicable to a third panel instrument size standard.