Abstract: The driving judgment apparatus according to this disclosure includes a running data acquisition unit for acquiring the running data of a vehicle running on a predetermined course by manual driving of a driver after the vehicle that can run by self-driving or manual driving performs a model running on the course by self-driving; and an item judgment unit for judging the propriety of the driver's driving for each item based on evaluation reference data and at least one of the difference between the running data acquired by the running data acquisition unit and model running data and the running data acquired by the running data acquisition unit.

Abstract: A shielded electric wire includes one metal pipe and one electric wire having a conductor and an insulator. An outer diameter of the conductor at 25° C. is set as a, a coefficient of linear expansion of the conductor is set as ?a, and a temperature difference between a maximum temperature and 25° C. is set as ?t, an outer diameter a? of the conductor after thermal expansion is a?=a+?a×a×?t, and when a wall thickness of the insulator at 25° C. is set as b and a coefficient of linear expansion of the insulator is set as ?b, an insulator wall thickness b? after thermal expansion is b?=b+?b×b×?t, and an inner diameter c of the one metal pipe is set to satisfy c?a?+2b?.

Abstract: A magnetic resonance imaging apparatus according to an embodiment includes processing circuitry configured, on a basis of one or both of (A) a parameter related to applying one of inversion and flip pulses and (B) an intensity of a slice selecting gradient magnetic field applied together with the one of the pulses in relation to selecting a slice to which the one of the pulses is applied, to determine one or both of (A) a parameter related to applying the other of the inversion and (B) flip pulses; and an intensity of the slice selecting gradient magnetic field applied together with the other of the pulses in relation to selecting a slice to which the other of the pulses is applied.

Abstract: A VR training system includes: training terminals that generates simulation images for simulation training in common VR space and provides the simulation images to trainees individually associated with the training terminals; and a tracking sensor that detects motion of the trainees in real space. Each of the training terminals calculates a position and a posture of a self avatar in VR space based on a detection result of the tracking sensor, acquires position information on a position and a posture of another avatar in the VR space from another training terminal, and generates the another avatar in the VR space based on the acquired position information.

Abstract: A simulator includes a control stick including a first rotatable control shaft and a second rotatable control shaft; a first reaction force generator including a spring that generates a reaction force to an operation of the first control shaft; a second reaction force generator including a spring that generates a reaction force to an operation of the second control shaft; a motor that displaces the spring to change a neutral position of the first control shaft; and a motor that displaces the spring to change a neutral position of the second control shaft. An output shaft of the motor is located below the first reaction force generator, and an output shaft of the motor is located above the second reaction force generator.

Abstract: An aircraft VR training system includes: training terminals that generates simulation images for performing simulation training in common VR space and provides the simulation images to trainees individually associated with the training terminals; and a setting terminal including setting information necessary for generating the simulation images. The setting terminal transmits the setting information to the training terminals. The training terminals set the setting information received from the setting terminal, and transmit setting completion notification of the setting information to the setting terminal. After the setting terminal receives the completion notification from all the training terminals, the setting terminal causes the training terminals to start simulation training.

Abstract: A VR training system includes: a training terminal that generates a simulation image for simulation training in VR space and includes an avatar of a trainee linked to action of the trainee in real space and a controller with which the trainee performs an omission action. When an omission action is performed with the controller in a series of actions in the simulation training, the training terminal omits a predetermined action of the avatar and updates the simulation image from a state before the predetermined action to a state after the predetermined action.

Abstract: An electric wire includes a flat stranded conductor having a flat shape in cross sectional view and configured by a plurality of conductive wires each having a wire diameter of 1.2 mm or less and which are stranded to each other, and a flat covering portion that is an insulator and covers the flat stranded conductor. The flat covering portion has a uniform elongation of 43.5% or more.

Abstract: A magnetic resonance imaging apparatus according to an embodiment includes processing circuitry. The processing circuitry sets a pulse sequence to collect plural echo signals by application of a refocusing pulse more than once after application of an excitation pulse once, and collects data on plural slices that are parallel to each other by executing the pulse sequence more than once. The processing circuitry sets the pulse sequence such that a slice thickness for the refocusing pulse becomes larger than a slice thickness for the excitation pulse, and collects the data on the plural slices by executing the pulse sequence without consecutively collecting data on adjacent ones of the plural slices.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: There are provided a conductor for busbar electric wire, and a busbar electric wire configured by a conductive plate material having a substantially rectangular cross-sectional shape, the conductor including: an opening formed on one side in a width direction orthogonal to a longitudinal direction of the plate material, the width direction corresponding to a planar direction of the plate material.

Abstract: An electric wire includes a flat stranded conductor having a flat shape in cross sectional view and configured by a plurality of conductive wires each having a wire diameter of 1.2 mm or less and which are stranded to each other, and a flat covering portion that is an insulator and covers the flat stranded conductor. The flat covering portion has a uniform elongation of 43.5% or more.

Abstract: In an anti-vibration apparatus having a bracket where an anti-vibration apparatus body in which a first mounting member and the second mounting member are connected by a body rubber elastic body is horizontally mounted to the bracket by fitting parts disposed on two sides of a width direction of the second mounting member in the anti-vibration apparatus body to fitting grooves disposed on opposite inner surfaces on two sides of a width direction of the bracket, a locking hole is provided on a deep wall part located on a deep side in a mounting direction of the second mounting member in the bracket, and a locking part is disposed at a tip portion in the mounting direction of the second mounting member to the bracket, and prevents return in a direction opposite to the mounting direction by inserting and locking the locking part to the locking hole.

Abstract: A vibration damping device including a vibration-damping device main unit inserted into a mounting space of a bracket from a lateral side and securely supported by the bracket. The bracket includes engaging pieces on respective opposed inside faces of the mounting space, and engaging action of the engaging pieces with respect to respective detent engaging faces formed on a fixture member of the vibration-damping device main unit prevents the vibration-damping device main unit from becoming dislodged from the mounting space of the bracket. Opposed walls of the mounting space are each penetrated by an aperture window, and inspection flat surfaces are separately provided to an outside surface of each engaging piece visible from an outside through the aperture window and a corresponding external side surface of the bracket that is off the aperture window. The inspection flat surfaces are parallel to each other.

Abstract: A nitride semiconductor element includes: an n-side nitride semiconductor layer; an active layer located on the n-side nitride semiconductor layer, the active layer comprising a plurality of well layers formed of a nitride semiconductor and a plurality of barrier layers formed of a nitride semiconductor; and a p-side nitride semiconductor layer located on the active layer. The plurality of well layers includes, in order from the n-side nitride semiconductor layer side: one or more first intermediate layers containing Al, Ga, and N, a second intermediate layer containing Ga and N, and a light emitting layer containing Ga and N and adapted to emit ultraviolet light.

Abstract: A bending-resistant communication cable includes a parallel two-core shielded wire that includes a drain wire in a gap between two-core communication wires and is formed by collectively covering the two-core communication wires and the drain wire by an external conductor. Each of the drain wires in a plurality of parallel two-core shielded wire is arranged to face inside of the bending-resistant communication cable. Further, a twist pitch of the plurality of two-core shielded wires is 20 mm or more and less than 100 mm.

Abstract: A routing structure of a shielded electric wire, the shielded electric wire including an electric wire and a resin tube is routed in a state of being bent, the resin tube including a shield layer, an inner-side resin and an outer-side resin, the shield layer being interposed between the inner-side resin and the outer-side resin, is provided. A tensile strength of the inner-side resin and the outer-side resin is greater than a bending stress to be generated when the shielded electric wire is bent with a minimum bend radius in the routing structure. The shield layer has a shield resistance equal to or smaller than 103.8 m?/m and a shield density equal to or greater than 50%, the shield density being a ratio of an area of a surface of the electric wire covered by the shield layer to an area of the surface of the electric wire.

Abstract: A method of manufacturing a nitride semiconductor light emitting element includes: growing an n-side nitride semiconductor layer; growing an active layer on the n-side nitride semiconductor layer; and growing a p-side nitride semiconductor layer on the active layer, which includes: growing a first p-side nitride semiconductor layer, growing a second p-side nitride semiconductor layer, growing a third p-side nitride semiconductor layer, and growing a fourth p-side nitride semiconductor layer, while varying flow rates of an Al source gas, a Ga source gas, an N source gas, and a Mg source gas.

Abstract: A multiplexer includes: a first filter connected between a common terminal and a first terminal; and a second filter connected between the common terminal and a second terminal, a passband of the second filter being higher than a passband of the first filter, the second filter including series resonators connected in series and parallel resonators connected in parallel between the common terminal and the second terminal, each of the parallel resonators including a pair of comb-shaped electrodes including electrode fingers and a pair of reflectors sandwiching the pair of comb-shaped electrodes therebetween and including grating bars, PR1>PD1 where PR1 represents an average pitch of the grating bars of a parallel resonator closest to the common terminal among the parallel resonators and PD1 represents an average pitch of the electrode fingers of the parallel resonator closest to the common terminal.