Abstract: In an undercover structure according to the present invention, a first cover part that is a lowermost part of an undercover has a first rear end positioned ahead of a front wheel axle. Further, a curved part with a predetermined curvature is formed at the first rear end of the first cover part in a side view. This generates a strong negative pressure in a region ahead of the front wheel axle 21. Accordingly, the flow rate of air flowing to each wheelhouse 23 decreases (the flow rate of the airflow between a road and a vehicle generated along the bottom surface of the first cover part 15a of the undercover 15 increases). This causes an attraction force that attracts the vehicle to a road surface to act on a vehicle body of the vehicle, thereby making traveling stability more excellent.

Abstract: A method for manufacturing a molded product of the present disclosure includes a deposition step of depositing a mixture including a fiber and starch in air, a humidification step of applying water to the mixture, and a molding step of heating and pressurizing the mixture applied with water to obtain a molded product. The starch has a gelatinized and then pulverized particle diameter d50 of 0.30 mm or more and 1.0 mm or less, which is the average particle diameter of the finely pulverized product determined by a prescribed measuring method.

Abstract: The connector includes a first insulator including a first retaining surface and a protrusion portion formed on and protruding from the first retaining surface, and a second insulator including a second retaining surface opposed to the first retaining surface and a recess portion formed in the second retaining surface and corresponding to the protrusion portion, the first insulator and the second insulator are connected to each other with the sheet type conductive member and the electric wire being held between the first retaining surface and the second retaining surface, and at least part of the protrusion portion is housed in the recess portion, whereby the conductor portion of the electric wire is electrically connected to the flexible conductor of the sheet type conductive member in the recess portion.

Abstract: A measuring device 1 includes a DUT scanning mechanism 56 that is provided in the OTA chamber 50, includes a biaxial positioner which can be rotationally driven by drive motors 56f and 56g, and rotates a DUT 100 to sequentially face all preset directions of a spherical coordinate system; an integrated control device 10 that measures the DUT 100 at each measurement position corresponding to each of the all directions; and a rotation speed management control unit 18b that controls a rotation speed of the drive motors 56f and 56g at a rotation speed which shortens a time required for the movement in a case where the biaxial positioner is moved at a unit step angle from a measurement position where the measurement is completed to a measurement position where next measurement is performed during the DUT 100 is measured.

Abstract: In an integrated control device 10 of the measurement device 1, a reception sensitivity test control unit 18 repeatedly performs a reception sensitivity test of measuring a throughput of a signal under measurement transmitted from a DUT 100 which has received a test signal while changing an output level of the test signal non-linearly for each of a first orientation (PSa) regulated by a predetermined step interval of a spherical coordinate system and a second orientation (PSb) regulated by a step interval finer than the predetermined step interval, and a peak power measurement control unit 19 sets, as a peak power candidate, reception power within a range of a power width (?Pw) from the maximum reception power of reception power measured for each first orientation, measures the reception power for each second orientation with respect to the peak power candidate, and determines the peak power based on a measurement result.

Abstract: There is provided a mobile terminal test apparatus capable of efficiently performing a test by collectively processing control messages. There is included a control unit 6 that switches, as a mode for transmitting a control message to a mobile terminal 10, between an Automatic mode in which by a setting of a parameter by a user, the control message is transmitted to the mobile terminal 10 when it becomes necessary to transmit the control message to the mobile terminal 10, and a Manual mode in which change information on the parameter by the setting of the parameter by the user is held, and the control message corresponding to the held change information is transmitted to the mobile terminal 10 when a parameter application instruction is given by the user.

Abstract: To provide a mobile terminal test device capable of performing a test with high efficiency by automatically setting a Band filter. A mobile terminal test device includes a simulated base station unit 2 that performs 5G NR communication with a mobile terminal 10 in accordance with the 5G NR standard, a scenario processing unit 3 that reads a stored scenario and causes the simulated base station unit 2 to transmit notification information or execute a communication sequence with the mobile terminal 10, based on the scenario, and a control unit 6 that, when being connected to the mobile terminal 10, sets, as a Band filter, a band set as a communicable frequency band and transmits the set band to the mobile terminal 10.

Abstract: To provide a mobile terminal test device capable of efficiently performing a test by facilitating switching of parameter settings when switching a simulated base station. The mobile terminal test device includes a control unit 6 that, when a test is performed by simulating a plurality of base stations, retains a parameter common to the plurality of simulated base stations and a parameter individual for each of the plurality of simulated base stations, as the parameters for simulating the base stations, and sets the parameter common to the simulated base stations as it is, and switches and sets the parameter individual for each of the simulated base stations.

Abstract: There is provided a mobile terminal test apparatus capable of easily assigning and setting a frequency of each CC in the same frequency band of carrier aggregation. An operation unit 4 that accepts an operation input from a user, a display unit 5 that displays an image, and a control unit 6 that sets a contiguousness relationship of the plurality of component carriers and sets a predetermined premise parameter of the component carrier, and then automatically sets the parameter of the component carrier defined by a predetermined communication standard, by designating a type of the contiguousness relationship and a predetermined designation parameter are included.

Abstract: To provide a mobile terminal test device capable of performing a test with high efficiency by automatically setting a Band filter. A mobile terminal test device includes a simulated base station unit 2 that performs 5G NR communication with a mobile terminal 10 in accordance with the 5G NR standard, a scenario processing unit 3 that reads a stored scenario and causes the simulated base station unit 2 to transmit notification information or execute a communication sequence with the mobile terminal 10, based on the scenario, and a control unit 6 that, when being connected to the mobile terminal 10, sets, as a Band filter, a band set as a communicable frequency band and transmits the set band to the mobile terminal 10.

Abstract: A heat sink includes a base plate; a cover overlapping the base plate; fins, each having a plate-like shape projecting from the base plate in a direction perpendicular to the base plate, located between the base plate and the cover; one or a plurality of first fin groups composed of a plurality of the fins arranged with a gap therebetween in a first direction; and one or a plurality of second fin groups composed of a plurality of the fins arranged with a gap therebetween in the first direction, and adjacent to the first fin group with a gap therebetween in a second direction. Positions in the first direction of the fins belonging to the second fin group are displaced with respect to positions in the first direction of the fins belonging to the first fin group. Each of the fines has an S-shape.

Abstract: A heat sink includes a base plate; a cover overlapping the base plate; fins, each having a plate-like shape projecting from the base plate in a direction perpendicular to the base plate, located between the base plate and the cover; one or a plurality of first fin groups composed of a plurality of the fins arranged with a gap therebetween in a first direction; and one or a plurality of second fin groups composed of a plurality of the fins arranged with a gap therebetween in the first direction, and adjacent to the first fin group with a gap therebetween in a second direction. Positions in the first direction of the fins belonging to the second fin group are displaced with respect to positions in the first direction of the fins belonging to the first fin group. Each of the fines has an S-shape.

Abstract: In the measurement device 1, a reception sensitivity test control unit 18 ends throughput measurement of a CC using a throughput measurement unit 18b in a case where an end determination unit 18c1 determines that any of a plurality of CCs has reached a measurement end condition, and calculates a total status obtained by integrating a determination result for each CC using a total status calculation unit 18c2 by performing each “PASS” or “FAIL” determination for a remaining CC. Since an output level variable setting unit 18d performs a process of setting a next output level for the CC that has not reached the measurement end condition based on the total status, a control is performed to continue a reception sensitivity test until all CCs reach a measurement end condition.

Abstract: Provided is, for example, an exhaust gas-purifying three-way catalyst which is suppressed in particle growth due to sintering of a catalytically active component on a carrier in exposure to a high temperature and thus is enhanced in purification performance, and a method for producing the same, as well as an integral structure type exhaust gas-purifying catalyst using the same. The exhaust gas-purifying three-way catalyst of the present invention includes a composite particle which contains a base material particle having a pore size of 100 to 650 nm as measured by a mercury intrusion method and a catalytically active particle of a platinum group element supported on the base material particle, in which a content proportion of the catalytically active particle is 0.001 to 30% by mass in total in terms of metal of the platinum group element, based on a total amount of the composite particle.

Abstract: Provided are a mobile terminal test apparatus, a mobile terminal test system, and a control method for the mobile terminal test apparatus, which can reduce burdens on a user for setting parameters according to a specification of a test. A setting screen is displayed with a first operation image 21 for selecting a specification of a test and a second operation image 22 in which parameter operation images 22a to 22e for setting parameters for executing the test according to the specification selected by an operation with respect to the first operation image 21 are arranged based on parameter hierarchies. With an operation of changing one parameter with respect to the parameter operation images 22a to 22e, lower parameter operation images whose parameter hierarchies are lower than the parameter operation image are updated according to the specification selected by the operation with respect to the first operation image 21.

Abstract: In the measurement device 1, a reception sensitivity test control unit 18 ends throughput measurement of a CC using a throughput measurement unit 18b in a case where an end determination unit 18c1 determines that any of a plurality of CCs has reached a measurement end condition, and calculates a total status obtained by integrating a determination result for each CC using a total status calculation unit 18c2 by performing each “PASS” or “FAIL” determination for a remaining CC. Since an output level variable setting unit 18d performs a process of setting a next output level for the CC that has not reached the measurement end condition based on the total status, a control is performed to continue a reception sensitivity test until all CCs reach a measurement end condition.

Abstract: In an integrated control device 10 of the measurement device 1, a reception sensitivity test control unit 18 repeatedly performs a reception sensitivity test of measuring a throughput of a signal under measurement transmitted from a DUT 100 which has received a test signal while changing an output level of the test signal non-linearly for each of a first orientation (PSa) regulated by a predetermined step interval of a spherical coordinate system and a second orientation (PSb) regulated by a step interval finer than the predetermined step interval, and a peak power measurement control unit 19 sets, as a peak power candidate, reception power within a range of a power width (?Pw) from the maximum reception power of reception power measured for each first orientation, measures the reception power for each second orientation with respect to the peak power candidate, and determines the peak power based on a measurement result.

Abstract: Provided are a mobile terminal test apparatus, a mobile terminal test system, and a control method for the mobile terminal test apparatus, which can reduce burdens on a user for setting parameters according to a specification of a test. A setting screen is displayed with a first operation image 21 for selecting a specification of a test and a second operation image 22 in which parameter operation images 22a to 22e for setting parameters for executing the test according to the specification selected by an operation with respect to the first operation image 21 are arranged based on parameter hierarchies. With an operation of changing one parameter with respect to the parameter operation images 22a to 22e, lower parameter operation images whose parameter hierarchies are lower than the parameter operation image are updated according to the specification selected by the operation with respect to the first operation image 21.

Abstract: A measuring device 1 includes an integrated control device 10 that performs control to measure a specific measurement item by performing a measurement operation, a predetermined number of times, of transmitting a test signal and receiving a signal under measurement transmitted from a DUT 100 at a measurement position where the DUT 100, which is rotated by a DUT scanning mechanism 56 in an OTA chamber 50, faces a desired orientation; a disconnection detection unit 18a that detects disconnection of call connection at the measurement position; a reconnection control unit 18b that performs reconnection of the call connection in a case where the disconnection of the call connection is detected; and a measurement return control unit 18c that returns to measurement at a subsequent measurement position from a measurement position where the disconnection of the call connection is detected after reconnection.

Abstract: A measuring device 1 performs control to perform a reception sensitivity test of measuring a throughput of a signal under measurement, and repeating the measurement while changing an output level of a test signal at each measurement position corresponding to a plurality of orientations. The integrated control device 10 that performs the control includes a measurement situation display control unit 18d that displays a measurement progress display screen having a first display area for displaying a result of the reception sensitivity test up to the measurement position where the reception sensitivity test is completed, and a second display area for displaying a progress situation of the measurement of the reception sensitivity test at the measurement position at which the reception sensitivity test is started.