MITSUBISHI HEAVY INDUSTRIES MACHINERY SYSTEMS, LTD.

A panel structure manufacturing device includes a shaping device that shapes the surface of a thermoplastic resin into a relief shape and forms a plate-like core member; a heating device that selectively heats the surface of the core member; and a pressurizing device that pressurizes a heated spot of the core member that the heating device has heated and a plate-like face plate, and fuses together the core member and the face plate.

In a device for detecting a paper splice part of a cardboard sheet and a device for producing a cardboard sheet, the device for detecting a paper splice part of a cardboard sheet, which detects a sheet paper splice part of a cardboard sheet that has a first sheet, a corrugated second sheet, and a third sheet bonded together, comprises: a sheet paper splice detection unit that detects the sheet paper splice part on the basis of the shape of the sheet and that is placed between a position at which sheets are spliced and a position at which the sheets are bonded in a sheet carrying direction; a marking device that marks the sheet paper splice part on the downstream side of the sheet paper splice detection unit in the sheet carrying direction; and a mark detection device that detects the mark on the downstream side of the marking device in the sheet carrying direction.

An accelerating cavity includes: a housing that is conductive, has a tubular shape, and is formed by joining a plurality of part members parted by a planar parting surface along a central axis; a plurality of cells that are arranged in the housing along an axial direction of the central axis of the housing, and are connected to each other by a communicating portion that allows charged particles to pass through; and a protrusion that is disposed at a position surrounding the communicating portion of each of the cells in the housing, protrudes toward an inner side of the cell in the axial direction, and has a shape becoming larger in a radial direction with respect to the central axis from a tip end portion toward a base end portion in the axial direction.

Provided is a superconducting cryo module that can be made more compact. A superconducting cryo module according to the present disclosure comprises: a superconducting accelerating cavity that has a cell part accelerating electrons, a beam pipe part extending from the cell part to an electron incidence side, and an extraction part of the electrons which were accelerated by the cell part; and an electron gun that is located in the interior of the beam pipe part of the superconducting accelerating cavity, is located on the same axis as a beam axis BA of the superconducting accelerating cavity, and emits electrons into the cell part.

A data processing algorithm evaluation device includes: a data storage unit configured to store therein a plurality of pieces of optical ranging data detected from a vehicle; a data generating unit configured to acquire and interpret target data, upon receiving an input of disturbance information representing disturbance for the target data, from the plurality of pieces of optical ranging data stored in the data storage unit, and to generate composite data in which the target data is reflected with the disturbance, by editing the target data on the basis of the interpretation; and a data processing unit configured to evaluate performance of a data processing algorithm for determining situation of the vehicle, on the basis of the generated composite data.

A cutting waste removing device, installed in a box making machine for manufacturing corrugated cardboard boxes from a corrugated cardboard sheet, to remove cutting waste generated in a cutting process performed by a paper discharging unit of the box making machine, is provided with an air blowing device which is disposed along a travel region in a device width direction, through which cut processed portions of the corrugated cardboard sheet and the cutting waste travel, and which ejects air toward the cutting waste in such a way as to include a vertically downward directional component in a prescribed ejection mode, and a control device for performing intermittent on-off control of the operation of the air blowing device, wherein the control device controls the air blowing device to be on only at a timing at which the cutting waste passes through an air ejection region of the air blowing device.

A support device includes: two support arms movably supported along an axial direction; a driver causing the support arms to approach and separate; and two chucks rotatably mounted on tip portions of the support arms for supporting a paper roll. The chucks include: a main body having an outer diameter decreasing toward a tip portion, and guide parts along the axial direction provided on an outer circumference; and a support members including a receiving part movably supported by the guide parts and for contacting an end of the paper roll, and a support part for contacting an inner circumference of the paper roll. A movement unit includes a movement member for contacting the support members and moves the support members to the tip portion side by the movement member. A force applying device applies force in such a direction that the support members and the movement member approach each other.

A base paper roll supply device includes: a first stand rotatably supporting a rear-liner base paper roll and a rear-liner replacement base paper roll; a second stand rotatably supporting a core base paper roll and a core replacement base paper roll; and a third stand rotatably supporting a front-liner base paper roll and a front-liner replacement base paper roll. The first stand, the second stand, and the third stand are arranged in order along a supply direction in which the rear liner, the core, and the front liner are supplied. At the first stand, the rear-liner replacement base paper roll is arranged at an upstream side in the supply direction with respect to the rear-liner base paper roll, and at the third stand, the front-liner replacement base paper roll is arranged at a downstream side in the supply direction with respect to the front-liner base paper roll.

A slitter device includes an upper rotary shaft and a lower rotary shaft that are supported so as to be able to rotate. An upper slitter head that is supported by the upper rotary shaft so as to be able to rotate therewith. A lower slitter head that is supported by the lower rotary shaft so as to be able to rotate therewith and that is disposed on one side of the upper slitter head in the axial direction of the lower rotary shaft. An upper movement device that can move the upper slitter head in the axial direction of the upper rotary shaft. A lower movement device can move the lower slitter head in the axial direction of the lower rotary shaft. A control device that controls movement of the upper movement device and the lower movement device.

A defect detecting device is provided for a corrugated cardboard sheet having one surface formed with a recessed portion of a first score in a thickness direction and another surface formed with a recessed portion of a second score having a smaller depth in the thickness direction. The device includes: a measurement device configured to measure a distance from an arrangement position to a front end of the sheet and a distance from the arrangement position to the recessed portion of the first score or the second score to acquire a measured distance; and a determination device configured to perform comparison of the measured distance with a threshold value in a determination region that is predetermined and preset from the front end toward a back end of the corrugated cardboard sheet to determine a front/rear surface defect or a front/back side defect of the sheet.