Abstract: A money depositing and dispensing machine 1 includes: a storage compartment 100 provided with a first front opening 101; a stowage compartment 200 disposed on a lower side of the storage compartment 100; a storage portion 12 stored in the storage compartment 100 and storing paper sheets; and a conveying unit 13 stored in the storage compartment 100 and for conveying the paper sheets stored in the storage portion 12 to the stowage compartment 200. The conveying unit 13 is configured to be slidable in a direction of the first front opening 101 provided in the storage compartment 100. The stowage compartment 200 stows the paper sheets conveyed by the conveying unit 13.

Abstract: The present invention provides a separation material including porous polymer particles that comprise at least one of styrene and divinylbenzene as a monomer unit at a proportion of 90% by mass or more based on the total amount of the monomers; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the coating amount provided by the coating layer is 1 to 15 mg/m2 per unit specific surface area of the porous polymer particles.

Abstract: The present invention provides a separation material that comprises porous polymer particles comprising a styrene-based monomer as a monomer unit; and a coating layer comprising a macromolecule having hydroxyl groups, which covers at least a portion of the surface of the porous polymer particles, and the separation material has a 5% compressive deformation modulus of 100 to 1,000 MPa, and has a mode diameter in the pore size distribution of 0.1 to 0.5 ?m.

Abstract: The present invention provides a separation material comprising porous polymer particles that comprise a styrene-based monomer as a monomer unit; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the rupture strength is 10 mN or higher.

Abstract: Disclosed is a separation material comprising hydrophobic polymer particles and a coating layer covering at least a portion of a surface of the hydrophobic polymer particles, wherein the coating layer comprises a hydrophilic polymer having hydroxy groups, and the hydrophilic polymer has a group represented by —NH—R-L or an epoxy group, wherein R represents a hydrocarbon group and L represents a carboxy group or an amino group.

Abstract: In a paper sheet storing apparatus housed in a paper sheet handling apparatus, a storage part stores paper sheets. An ejection port ejects a paper sheet of the paper sheets stored in the storage part. A first roller is arranged near the ejection port, and is rotated in a predetermined direction by transmission of rotation caused by drive of a drive shaft so as to send out the paper sheet from the ejection port. A driven shaft is rotated in the predetermined direction following the rotation of the first roller. A second roller is arranged in a position farther from the ejection port than a first roller, and is rotated in the predetermined direction by transmission of rotation of the driven shaft so as to sequentially feed, to the first roller, the paper sheets from a paper sheet positioned in a lowest layer among the paper sheets.

Abstract: Disclosed is a separation material comprising: a porous polymer particle containing a crosslinked polymer containing a structural unit derived from a crosslinkable monomer having an aromatic group and two or more vinyl groups bonded to the aromatic group; and a coating layer coating at least part of the surface of the porous polymer. The coating layer contains a first graft chain that is a polymer having a hydroxyl group bonded to the crosslinked polymer, and a second graft chain that is a polymer having a hydroxyl group, bonded to the first graft chain, and being different from the first graft chain.

Abstract: In a paper sheet storing apparatus housed in a paper sheet handling apparatus, a storage part stores paper sheets. An ejection port ejects a paper sheet of the paper sheets stored in the storage part. A first roller is arranged near the ejection port, and is rotated in a predetermined direction by transmission of rotation caused by drive of a drive shaft so as to send out the paper sheet from the ejection port. A driven shaft is rotated in the predetermined direction following the rotation of the first roller. A second roller is arranged in a position farther from the ejection port than a first roller, and is rotated in the predetermined direction by transmission of rotation of the driven shaft so as to sequentially feed, to the first roller, the paper sheets from a paper sheet positioned in a lowest layer among the paper sheets.

Abstract: A sheet storage device includes: an accommodation unit that accommodates a sheet in a manner stacking on a certain surface; a sheet sliding unit that is positioned on a first end side of a sheet accommodated in the accommodation unit and sequentially slides a sheet from a sheet positioned in a lowermost layer; and a supporting unit that is positioned on a second end side opposite to the first end side of a sheet accommodated in the accommodation unit and supports an area around the second end of the sheet in a manner separating from the certain surface by being pressed by a weight of the sheet and an own weight.

Abstract: The present invention provides a separation material including porous polymer particles that comprise at least one of styrene and divinylbenzene as a monomer unit at a proportion of 90% by mass or more based on the total amount of the monomers; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the coating amount provided by the coating layer is 1 to 15 mg/m2 per unit specific surface area of the porous polymer particles.

Abstract: The present invention provides a separation material that comprises porous polymer particles comprising a styrene-based monomer as a monomer unit; and a coating layer comprising a macromolecule having hydroxyl groups, which covers at least a portion of the surface of the porous polymer particles, and the separation material has a 5% compressive deformation modulus of 100 to 1,000 MPa, and has a mode diameter in the pore size distribution of 0.1 to 0.5 ?m.

Abstract: The present invention provides a separation material comprising porous polymer particles that comprise a styrene-based monomer as a monomer unit; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the rupture strength is 10 mN or higher.

Abstract: In a system, a carrier includes one or more contact members that come into contact with a paper sheet bundle in which one or more paper sheets are stacked, to push the paper sheet bundle, and the paper sheet bundle is conveyed by the carrier along a conveying path. Suppressing unit that suppresses the paper sheet constituting the paper sheet bundle from passing through a gap existing between a constituent member and the contact members to enter on an inner side of the carrier, the constituent member forming a space of the conveying path, the paper sheet bundle pushed by the carrier coming into contact with the constituent member.

Abstract: In a system, a carrier includes one or more contact members that come into contact with a paper sheet bundle in which one or more paper sheets are stacked, to push the paper sheet bundle, and the paper sheet bundle is conveyed by the carrier along a conveying path. Suppressing unit that suppresses the paper sheet constituting the paper sheet bundle from passing through a gap existing between a constituent member and the contact members to enter on an inner side of the carrier, the constituent member forming a space of the conveying path, the paper sheet bundle pushed by the carrier coming into contact with the constituent member.

Abstract: A wiring structure having a wiring-terminal-connection adhesive that includes a curing agent capable of generating a free radical upon heating, a radically polymerizable substance and silicone particles.

Abstract: This invention provides a wiring-terminal-connecting adhesive comprising a curing agent capable of generating a free radical upon heating, a radically polymerizable substance and silicone particles, and a wiring-terminal-connecting method and a wiring structure which make use of such an adhesive.

Abstract: This invention provides a wiring-terminal-connecting adhesive comprising a curing agent capable of generating a free radical upon heating, a radically polymerizable substance and silicone particles, and a wiring-terminal-connecting method and a wiring structure which make use of such an adhesive.

Abstract: This invention provides a wiring-terminal-connecting adhesive comprising a curing agent capable of generating a free radical upon heating, a radically polymerizable substance and silicone particles, and a wiring-terminal-connecting method and a wiring structure which make use of such an adhesive.

Abstract: A wiring structure having a wiring-terminal-connection adhesive that includes a curing agent capable of generating a free radical upon heating, a radically polymerizable substance and silicone particles.

Abstract: The configuration comprises a carrier equipping an ejection plate on the front for ejecting the bundled-paper sheet material P and equipping a plurality of cutout parts, which are open in their top parts, at a predetermined interval on both the left and right sides; and a drive transmission unit being equipped by a plurality of drive rollers, each of which comprises a plurality of bosses in a predetermined interval on a single circumference around the rotation center thereof, in a predetermined interval on both the left and right sides of the bundled-paper sheet material transport path, wherein a drive force is transmitted by allowing bosses of each drive roller, which rotates by receiving a drive force from a drive source, engage in the respective cutout parts of the carrier sequentially, thereby allowing the carrier travel in the front and back directions of the bundle transport path.