Abstract:
The present invention provides a commodity carrying-out apparatus of an automatic vending machine capable of reliably carrying out a commodity one by one without causing falling down or clinging of the commodities, and efficiently housing even commodities having no definite shape. According to the present invention, the commodities in the commodity column can be supported by the commodity supporting members, and therefore even when the commodity carried out of the commodity column falls down or is changed in its posture, the following commodity does not fall down due to the carried-out commodity. Since the commodity supporting members each exist between the commodities, clinging of the commodities to each other does not occur. As a result, the commodities can be reliably carried out one by one. Even the commodities having no definite shape, which cannot be self-sustained in a vertical orientation, can be housed in the vertical orientation by being supported respectively by the commodity supporting members.
Abstract:
A reverse vending machine includes a transport device for lifting an object in the reverse vending machine. The transport device includes a conveyor device for lifting the object from a lower level position to a higher level position in the reverse vending machine, and an object supporting device. The object supporting device is arranged substantially parallel to the conveyor device and arranged in such a way as to allow the object to be held between the conveyor device and the object supporting device during the lifting of the object.
Abstract:
A device for inhibiting rotational motion of an article to be processed comprises a pressure plate assembly including a generally ring-shaped guide assembly. The guide assembly has and at least two guide pins extending from a first side in a transverse direction. The guide assembly further includes at least two resilient devices positioned over a respective one of the at least two guide pins and a container guide having an aperture for receiving an open end of a container moving in a first direction and for aligning the open end with a processing device. The container guide is positioned adjacent to the first side of the pressure plate assembly. At least two resilient devices are configured to be compressed in response to movement of the container guide in a first direction and are configured to decompress in response to movement of the container guide in a second, generally opposite direction.
Abstract:
A product management system (100) including a first panel (102) with a first continuous track (106) including a queuing section, a product engagement section and a return section, and a first series of magnetic sources (115) disposed circumferentially along the first continuous track (106). A first series of lugs (116) are movably dispersed around the first continuous track (106) configured to react to the first series of magnetic sources in order to increase or decrease a velocity of each lug (116) of the first series of lugs along the first continuous track (116) and a product engagement member (118) attached to each lug configured and adapted to actuate to engage a product.
Abstract:
A method of changing article pitch. The method can comprise receiving a series of articles arranged at a first pitch, engaging the articles of the series of articles sequentially with a gripper wheel, moving the articles along a path of travel with the gripper wheel, and moving the articles relative to one another from the first pitch to a second pitch during the moving the articles along the path of travel with the gripper wheel.
Abstract:
A machine and method for packaging tobacco sachets, comprising a plurality of linearly arranged, multi-functional, vertically moveable chambers having fluid sealing means on lower portions thereof, conveyor means disposed below the plurality of multi-functional, vertically moveable chambers, and a lidding apparatus disposed downstream of and in communication with the plurality of vertically moveable chambers through the conveyor means.
Abstract:
The invention relates to a conveyor belt for transporting food products having a packaging composed of a magnetizable material, in particular cans, along a transport direction, wherein the conveyor belt comprises a belt body and a transport belt that runs around the belt body in the operation of the conveyor belt and that has an upper run and a lower run. The belt body is provided with a magnet arrangement that generates a magnetic field that acts in the direction of the upper run of the transport belt and that has a higher value at the belt entry side than at the belt exit side.
Abstract:
Provided is a print system including: a moving body supporting a can body and moving; an annular moving route that is an annular-shaped moving route, along which the moving body moves, including at least one of a linear moving route extending from an upper side toward a lower side and is formed linearly, and a linear moving route extending from the lower side toward the upper side and is formed linearly; and an image forming unit performing image formation onto the can body supported by the moving body.
Abstract:
A transfer arrangement for transfer of packaging containers from a first conveyor arrangement to a second conveyor arrangement, wherein the transfer arrangement comprises at least one gripper arranged to engage the packaging containers frictionally.
Abstract:
An article moving device of the present invention includes a plurality of roller members, a base member which has a bottom plate section and a peripheral wall section and accommodates the plurality of roller members, and a plate-shaped cover member which is detachably attached to the peripheral wall section so as to cover an opening section surrounded by the peripheral wall section, wherein the base member is formed of a material having a flexural modulus of 2500 MPa to 4000 MPa, a first parameter of 7.00 to 18.00, as calculated by the formula: flexural modulus (MPa)×yield stress in tension (MPa)×thickness (mm)/density (g/cm3)/100000, and a second parameter of 2.00 to 10.00, as calculated by the formula: first parameter×nominal tensile strain at break (%)/100.