Abstract: A magnetic detector comprises a first magnetic sensor configured to measure a first magnetic field component, a second magnetic sensor configured to measure a possible magnetic field component, a processor, and a memory configured to store a program. The program comprises closest proximity detection processing of detecting a timing at which the magnetic body passes a closest proximity position, closest proximity position component acquisition processing of acquiring the first magnetic field component measured at the timing and the possible magnetic field component, predetermined position component acquisition processing of acquiring the first magnetic field component when the magnetic body is at a predetermined position, distance estimation processing of estimating a third direction distance, and magnetic moment amount estimation processing of estimating a magnitude of the magnetic moment.

Abstract: A processing apparatus includes a processor configured to: receive a change request for a change to a quiet mode in an image forming apparatus that is operating in a normal mode and to which a printing instruction has been issued; and display the change request for the change to the quiet mode on an operation screen of the image forming apparatus.

Abstract: An electrically driven vehicle includes at least one wheel driven by a motor, a vehicle body including a floor panel, a battery pack arranged on the lower side of the floor panel and configured to supply power to the motor, at least one wire harness extending in a front-rear direction of the electrically driven vehicle between the floor panel and the battery pack, and a harness cover extending in the front-rear direction of the electrically driven vehicle along the at least one wire harness and interposed between the at least one wire harness and the battery pack.

Abstract: The present invention provides a separation membrane that is suitable for separating an acid gas from a gas mixture containing the acid gas and has a high acid gas permeability. A separation membrane (10) of the present invention includes: a separation functional layer (1); a porous support member (3) supporting the separation functional layer (1); and an intermediate layer (2) disposed between the separation functional layer (1) and the porous support member (3), and including a matrix (4) and nanoparticles (5) dispersed in the matrix (4).

Abstract: An optical interferometric range sensor includes a light source that emits light with a changing wavelength, a light splitter that splits the light emitted from the light source into a plurality of beams to be incident on a plurality of spots, an interferometer that generates, for each of the plurality of beams of the split light incident on a corresponding spot of the plurality of spots, interference light based on measurement light and reference light, a light receiver that receives the interference light to convert the interference light to an electric signal, a processor that calculates a distance from a sensor head to a measurement target based on the electric signal, an identifier that identifies the sensor head based on a beat signal generated by the interferometer, and a light adjuster that adjusts an amount of light to be incident on the measurement target based on the sensor head.

Abstract: A vehicle structure with an anchor unit includes a rear floor panel, a pair of first anchor members, and a reinforcement member. A rear seat is disposed above the rear floor panel. The pair of first anchor members are disposed on the rear floor panel and attached to a child seat. The reinforcement member connects the pair of first anchor members to the rear floor panel. In addition, the reinforcement member connects the pair of first anchor members.

Abstract: An optical interferometric range sensor includes a light source that emits light, interferometers that each generate interference light, a light receiver that receives the interference light to convert the interference light to an electric signal, and a processor that calculates a distance to a measurement target based on the electric signal resulting from the conversion. The light received by each of the optical couplers in the stages is split based on a first split ratio for a corresponding interferometer and a second split ratio for an optical coupler in a subsequent stage subsequent to a stage including the optical coupler receiving the light. The first split ratio and the second split ratio are set at least based on the first split ratio of the optical coupler receiving the light and a product of a first split ratio and a second split ratio of the optical coupler in the subsequent stage.

Abstract: An optical interferometric range sensor includes a light source that emits light with a changing wavelength, an interferometer that receives the light emitted from the light source and generates interference light based on measurement light emitted from a sensor head to a measurement target and reflected from the measurement target and reference light traveling on an optical path at least partially different from an optical path of the measurement light, a light receiver that receives the interference light from the interferometer to convert the interference light to an electric signal, a processor that calculates a distance from the sensor head to the measurement target based on the electric signal resulting from conversion performed by the light receiver, an identifier that identifies the sensor head based on a beat signal generated by the interferometer, and a setter that sets a measurement condition corresponding to the sensor head identified by the identifier.

Abstract: A conversion unit converts a first electrical signal to a first distance value indicating a distance from an interferometer to a measurement target. An inclination value calculation unit calculates an inclination value based on the first distance value. A first distance value correction unit corrects the first distance value based on the inclination value. A second distance value correction unit calculates a second distance value indicating a distance from the optical interference range sensor to the measurement target based on the first distance value that has been corrected by the first distance value correction unit. If the number of times that the first electrical signal is detected is smaller than a second threshold, the first distance value correction unit corrects the first distance value based on an inclination value that precedes the inclination value associated with the first distance value in a storage unit.

Abstract: The present invention provides a resin composition for an adhesive, being useful as a component of an adhesive having a favorable adhesion property to glass and giving favorable appearance after adhesion. The resin composition for an adhesive contains a polyhydroxyurethane resin. This polyhydroxyurethane resin contains a structural unit formed by polymerizing a compound (A) having at least two five-membered cyclic carbonate structures and a compound (B) having at least two primary amino groups, the polyurethane resin contains a urethane bond, a hydroxy group, and a secondary amino group in the structural unit. Further, this polyhydroxyurethane resin has an amine number of 1 to 50 mgKOH/g and has a hydroxyl number of 10 to 230 mgKOH/g.

Abstract: The present invention provides a resin composition for an adhesive, being useful as a component of an adhesive having a favorable adhesion property to glass and giving favorable appearance after adhesion. The resin composition for an adhesive contains a polyhydroxyurethane resin. This polyhydroxyurethane resin contains a structural unit formed by polymerizing a compound (A) having at least two five-membered cyclic carbonate structures and a compound (B) having at least two primary amino groups, the polyurethane resin contains a urethane bond, a hydroxy group, and a secondary amino group in the structural unit. Further, this polyhydroxyurethane resin has an amine number of 1 to 50 mgKOH/g and has a hydroxyl number of 10 to 230 mgKOH/g.

Abstract: A vehicle body rear portion includes a floor tunnel, a unit protection cover, and a rear floor panel. The floor tunnel is arranged at a middle in a vehicle width direction of a front floor panel. The unit protection cover covers an upper portion of a protection target unit which is arranged at a rearward position of the floor tunnel. The rear floor panel is arranged at a rearward position of the protection target unit. The unit protection cover and the rear floor panel include a reinforcement structure portion that extends in a vehicle body rearward direction from a tunnel ridge line at right and left upper portions of the floor tunnel.

Abstract: A vehicle body includes: a vehicle body floor having a battery housing portion; a pair of left and right side sills; a front cross member disposed in front of the battery housing portion; a rear cross member disposed behind the battery housing portion; and a battery cover that covers a battery from above. A widened portion of which a height in a vertical direction increases with respect to a center region of the front cross member in a vehicle width direction and of which a front-rear width expands to a vehicle rear side with respect to a front-rear width of the center region of the front cross member in the vehicle width direction is provided on an end portion of the front cross member on an outer side in the vehicle width direction. The battery cover is made of a metal and includes an outer connecting portion connected to the widened portion on an outer side in the vehicle width direction.

Abstract: A vehicle body lower structure includes a front cross member, a rear side frame, a floor panel, and a front floor frame. The front cross member is disposed in front of a battery in a vehicle. The rear side frame is connected to an end portion of the front cross member on an outward side in a vehicle width direction. The front floor frame forms a closed cross section together with the floor panel and is coupled to the end portion of the front cross member on the outward side in the vehicle width direction.

Abstract: A rear portion of a vehicle body includes a front floor panel, a rear floor panel, a pair of left and right side sills, and a front cross plate. The rear floor panel has a higher upper surface height than the front floor panel. The front cross plate connects a rear portion of the front floor panel and a front wall of the rear floor panel, and an outer end portion in a vehicle width direction is coupled to the left and right side sills. The front wall of the rear floor panel has a plurality of bent corner portions having a side view shape bent in a substantially L shape. At least one of the bent corner portions constitutes a closed cross section extending along the vehicle width direction together with the front cross plate in a vertical height range of the left and right side sills.

Abstract: A wavelength-swept light source projects a light beam. An interferometer includes a splitting unit that splits the light beam projected from the wavelength-swept light source into light beams radiated toward a plurality of spots on a measurement target. Each of the interference beam is generated by interference between a measurement beam radiated toward the measurement target and reflected at the measurement beam, and a reference beam passing through an optical path that is at least partially different from an optical path of the measurement beam. A light-receiving unit receives the interference beams from the interferometer. A processor calculates distance to the measurement target by associating a detected peak of the interference beams with one of the spots. The optical path length difference between the measurement target and the reference beam is made different among the light beams split in correspondence with the plurality of spots.

Abstract: A light source projects a light beam while continuously varying a wavelength thereof. An interferometers generates an interference beam by interference between a measurement beam reflected at a measurement target as a result of a supplied light beam and a reference beam passing through an optical path that is at least partially different from an optical path of the measurement beam. A stages of optical couplers connected in series, each of the stages of optical couplers that receives the light beam from the light source, splits the received light beam into a beam proceeding to a corresponding interferometer and a beam proceeding to a downstream side, and supplies the split light beams. A suppressing unit suppresses a supply of a light beam from the downstream side to the upstream side. A processing unit calculates distance to the measurement target based on frequencies of an interference beams generated by the interferometers.

Abstract: A light source projects a light beam. An interferometer includes a splitting unit that splits the light beam. The interferometer generates interference beams with the respective split light beams. Each of the interference beam is generated by interference between a measurement beam radiated toward the measurement target and reflected at the measurement beam and a reference beam passing through an optical path. A light-receiving unit receives the interference beams. A processor calculates a distance to the measurement target by associating at least one detected peak with at least one of the spots in accordance with a mirror surface mode or a rough surface mode. The optical path length difference is made different among the split light beams. In the mirror surface mode, the processor uses a distance calculated based on a peak corresponding to a spot for which the optical path length difference is shortest.

Abstract: An optical interference range sensor includes a wavelength-swept light source, an optical coupler, an interferometer, a light-receiving unit, a processor, and a reflection point that reflects a light beam that is split and proceeds to a fourth port of the optical coupler, of a light beam projected from the wavelength-swept light source and input to a first port of the optical coupler. One or more of an optical path length, denoted by L1, from the third port of the optical coupler to the reference surface, an optical path length, denoted by L2, from the fourth port of the optical coupler to the reflection point, an optical path length, denoted by LH, from the reference surface to a leading end of a sensor head configured to radiate the measurement beam toward the measurement target, and a measurement range, denoted by R, for the measurement target may be set such that the expression L1?L2>(LH+R)*2 or L1?L2<LH*2 is satisfied.

Abstract: A first light source outputs measurement light having a wavelength in infrared range. A second light source outputs guide light having a wavelength in visible range. A fiber coupler includes a first port into which the measurement light is input, a second port into which the guide light is input, and a third port outputting combined light formed by combining the measurement light and the guide light with each other. A measurement unit emits the combined light to a measurement object and receives return light reflected therefrom. A processing unit obtains information relating to a distance, a speed, or an oscillation of the measurement object, based on an interference signal of the return light and the reference light. The fiber coupler is formed by a single mode fiber that has a cutoff wavelength that is shorter than that of the measurement light and longer than that of the guide light.