Abstract: A reference core position calculation device 100 that calculates a reference core position of an elevator shaft in which an elevator is to be installed includes a measurement unit 101 and a calculation unit 112. The measurement unit 101 measures a dimension of each portion of the elevator shaft. The calculation unit 112 calculates portion dimension values of the elevator shaft based on the reference core position and the dimension of each portion measured by the measurement unit 101. When the reference core position is a first reference core position, the calculation unit 112 determines whether portion dimension values of the elevator shaft calculated based on the first reference core position satisfy a predetermined specification.

Abstract: An injection molding condition generation system improves the quality of injection molding. The injection molding condition generation system acquires a material property value of a resin material and an injection molding condition using the first resin material based on a target value of a quality parameter related to a quality of a molded article, the first material property value, and a predetermined relational expression. The predetermined relational expression indicates a relation among the material property value of the resin material, a plurality of injection molding conditions input to an injection molding machine, and a quality parameter related to the quality of the molded article molded by the injection molding machine based on the material property value and the injection molding conditions, and is generated based on data accumulated in the memory in association with the material property value of the resin material, the injection molding conditions, and the quality parameter.

Abstract: A control device includes a first controller, a second controller and a storage. The first controller performs safety control for a drive device. The second controller performs standard control for the drive device. The storage is accessible by both the first and second controllers and includes a first storage area and a second storage area. The first storage area stores data involved with the safety control, and the second storage area stores data involved with the standard control. The first controller accesses both the first storage area and the second storage area, and the second controller accesses the second storage area but is restricted from accessing the first storage area.

Abstract: An information processing device that executes an arithmetic process includes a first processing circuit and a second processing circuit. The first processing circuit executes the arithmetic process N times consecutively. The second processing circuit executes the arithmetic process N times consecutively. N is an integer of 2 or more. The first processing circuit and the second processing circuit continue to operate according to a match between at least one result among the results of the N arithmetic processes executed by the first processing circuit and at least one result among the results of the N arithmetic processes executed by the second processing circuit. As a result, it is possible to suppress an increase in cost required for hardware and to suppress a temporary stop due to a temporary failure.

Abstract: A control device includes a first controller, a second controller and a storage. The first controller performs safety control for a drive device. The second controller performs standard control for the drive device. The storage is accessible by both the first and second controllers and includes a first storage area and a second storage area. The first storage area stores data involved with the safety control, and the second storage area stores data involved with the standard control. The first controller accesses both the first storage area and the second storage area, and the second controller accesses the second storage area but is restricted from accessing the first storage area.

Abstract: The present invention provides an information processing device, a recording medium, and a support system. With respect to a second program having a call instruction that designates an actual argument and calls a first program defined by using a dummy argument, a display means included in a support device associates the content of the first program defined by using the dummy argument according to a user operation with the call instruction in the second program and displays the associated result. In this case, the display means reflects the actual argument designated in the call instruction to the dummy argument in the first program, and displays the reflected result.

Abstract: The present invention achieves high speed safe response performance. A safety controller (100) includes a first voltage monitoring circuit (12) and a second voltage monitoring circuit (22). The first voltage monitoring circuit (12) is an AD converter which operates upon receiving electric power from a second electric power source (21) and which transmits, to a second MPU (20), a signal that gives notification of occurrence of an anomaly in a first voltage value. The second voltage monitoring circuit (22) is an AD converter which operates upon receiving electric power from a first electric power source (11) and which transmits, to a first MPU (10), a signal that gives notification of occurrence of an anomaly in a second voltage value.

Abstract: A braided shield includes at least one electrical wire; and a plurality of shield members that covers an outer circumferential surface of the electrical wire and is formed by interweaving into a cylindrical shape. The shield members each include a strip-shaped non-conductor film and a strip-shaped conductor member that is shorter than a width of the non-conductor film in a width direction. In a planar view of the shield member, the conductor member is stacked on the non-conductor film along the longitudinal direction thereof such that the non-conductor area and the conductor area are formed separately along the width direction of the non-conductor film.

Abstract: The present invention achieves high speed safe response performance. A safety controller (100) includes a first voltage monitoring circuit (12) and a second voltage monitoring circuit (22). The first voltage monitoring circuit (12) is an AD converter which operates upon receiving electric power from a second electric power source (21) and which transmits, to a second MPU (20), a signal that gives notification of occurrence of an anomaly in a first voltage value. The second voltage monitoring circuit (22) is an AD converter which operates upon receiving electric power from a first electric power source (11) and which transmits, to a first MPU (10), a signal that gives notification of occurrence of an anomaly in a second voltage value.

Abstract: In a resin vehicle body grounding structure, a positive terminal of a battery is connected to positive terminals of a first load and a second load, a negative terminal of the battery is connected to a first grounding structure element, a negative terminal of the first load is connected to the first grounding structure element, a positive terminal of an alternator is connected to the positive terminal of the second load, the negative terminal ? thereof is connected to a second grounding structure element, and the negative terminal of the second load is connected to the second grounding structure element.

Abstract: A control system and a functional unit are capable of freely setting a place at which an operation for executing an access process is performed independently of an installation place of a controller. A CPU unit capable of communicating with a storage unit, and a plurality of functional units communicatively connected to the CPU unit are included. The functional unit includes an input unit including a switch that receives a user operation. The input unit generates a command for executing an access process when an input portion receives execution of the access process for accessing the storage unit from an IO unit. A designated IO unit executes the access process.

Abstract: A communication electric wire (1) includes a twisted pair wire (10) having a pair of conductor core wires (11) spirally bundled together and a protection layer (20) formed from resin and cylindrically covering an outer circumference of the twisted pair wire (10). The twisted pair wire (10) contacts an inner face of the protection layer (20) to eliminate its relative movement with respect to the protection layer (20) in the direction orthogonal to the axial line of the communication electric wire (1). The protection layer (20) is configured to have a specific ratio of 1 or more. The specific ratio is a ratio (c/D) of a thickness (c) of a portion where the protection layer (20) having the smallest thickness in a cross section orthogonal to the axial line of the communication electric wire (1) to a distance (D) between centers of the pair of the conductor core wires (11).

Abstract: In a resin vehicle body grounding structure, a positive terminal of a battery is connected to positive terminals of a first load and a second load, a negative terminal of the battery is connected to a first grounding structure element, a negative terminal of the first load is connected to the first grounding structure element, a positive terminal of an alternator is connected to the positive terminal of the second load, the negative terminal ? thereof is connected to a second grounding structure element, and the negative terminal of the second load is connected to the second grounding structure element.

Abstract: In a resin vehicle body grounding structure, a positive terminal of a battery is connected to positive terminals of a first load and a second load, a negative terminal of the battery is connected to a first grounding structure element, a negative terminal of the first load is connected to the first grounding structure element, a positive terminal of an alternator is connected to the positive terminal of the second load, the negative terminal ? thereof is connected to a second grounding structure element, and the negative terminal of the second load is connected to the second grounding structure element.

Abstract: As a noise-reducing shielded cable according to the present invention, provided is a shielded cable having an inverter (10), a motor (30), a cable (20) connecting the inverter and the motor with each other, a shield layer (40) covering the cable, and two ground wires (50) grounding both ends of the shield layer.

Abstract: In a resin vehicle body grounding structure, a positive terminal of a battery is connected to positive terminals of a first load and a second load, a negative terminal of the battery is connected to a first grounding structure element, a negative terminal of the first load is connected to the first grounding structure element, a positive terminal of an alternator is connected to the positive terminal of the second load, the negative terminal ? thereof is connected to a second grounding structure element, and the negative terminal of the second load is connected to the second grounding structure element.

Abstract: As a noise-reducing shielded cable according to the present invention, provided is a shielded cable having an inverter (10), a motor (30), a cable (20) connecting the inverter and the motor with each other, a shield layer (40) covering the cable, and two ground wires (50) grounding both ends of the shield layer.

Abstract: A shielded electric wire wrapped with metal foil includes coated conductive wires and a drain wire provided along the length of the coated conductive wires and grounded at the ends of the coated conductive wires and a metal foil member wrapped around the coated conductive wires and the drain wire forming a shielding layer covering the periphery of the coated conductive wires and the drain wire, wherein foil electrically connected parts, which are electrically connected to the drain wire, are provided at both ends or positions near both the ends of the coated conductive wires.

Abstract: A shielded electric wire that assumes a horizontally long cross sectional wire profile and includes a flat shielded electric wire that has a plurality of sheathed core wires whose core centers are positioned side by side at grade. The shielded electric wire has an electromagnetic shield layer that encloses all of the positioned sheathed core wires, and a pair of additional electromagnetic shield layers laid solely along a pair of mutually-opposed long sides in line with a direction in which the sheathed core wires are arranged in a wire cross section.

Abstract: A high voltage testing device for testing a coaxial cable including a central conductor and a shield conductor surround a periphery of the central conductor with an insulating material and applying a high voltage between the central conductor and the shield conductor of the coaxial cable, includes a cable connecting part that respectively connects two electrodes of an output of a tester which outputs a high voltage to the central conductor and the shield conductor of the coaxial cable. The cable connecting part includes a core wire short-circuiting part which electrically short-circuits between one end and the other end in the longitudinal direction of the central conductor of the coaxial cable and a shield wire short-circuiting part which electrically short-circuits between one end and the other end in the longitudinal direction of the shield conductor of the coaxial cable.