Abstract:
A system is disclosed for loading a plurality of items into a plurality of containers. The system may include a plurality of pucks, each puck adapted to retain an item. A puck delivery sub-system may include a puck-infeed conveyor to move each of the pucks along an in-feed conveyor path, and a transition apparatus operable to facilitate the transition of the pucks to a continuous puck unloading conveyor. The puck un-loading conveyor may have a releasable engagement mechanism such that when each of the pucks is engaged with said puck unloading conveyor, each of said pucks is fixed in a relative longitudinal position relative to the puck unloading conveyor. An item transfer apparatus may transfer an item from each puck when engaged with the puck un-loading conveyor, to a corresponding container.
Abstract:
A carrier puck is provided which can be adjusted quickly with minimal efforts, such as by using a slider, screw or other mechanical means, to allow a wide range of article shapes and sizes to be accommodated on the processing line. The carrier puck comprises a base piece, at least two substantially identical holding pieces piled in two or more stacks, a means for securing each of the stacks of holding pieces, and a means for adjusting the distance between the stacks. The two or more stacks of holding pieces enclose a void therebetween for accommodating a container. The distance between the stacks can be adjusted quickly with minimal efforts to accommodate containers of different sizes, shapes and contours.
Abstract:
An automated order-picking system (10) having an integrated sorting function for conveying article units (42) in accordance with a pre-determined sequence towards a workstation, comprising: at least one storage rack (12, 14) having a plurality of storage locations (62) for receiving load supports, on which or in which article units (42) are stored, preferably by one sort only, wherein the storage rack (12, 14) is divided into rack regions (RR), wherein each of the rack region (RR) comprises a plurality of rack planes (RP) which respectively comprise a plurality of storage locations (62) being arranged side-by-side, one endlessly rotating central conveyor (28), particularly a conveyor belt, being arranged along a longitudinal side (LS) of the storage rack (12, 14) and preferably between two storage racks (12, 14), and which is divided into a plurality of windows (46), a number of vertical elevators (VE) being arranged one behind the other along the longitudinal side (LS) of the storage rack (12, 14), and which respectively comprise one load suspension device for receiving and delivering of at least one of the storage units, wherein each of the vertical elevators (VE) is coupled to the central conveyor (28) at a handing-over level (HL), and a superordinated control device (36) controlling the vertical elevators (VE) such that the vertical elevators (VE) retrieve the storage units provided within the storage rack (12, 14), transport them to the handing-over level (HL), and deliver at a pre-determined time one or more article units (42), which are stored in or on the retrieved storage units, towards the central conveyor belt (28) so that all of the article units (42), which are required for the processing of a picking order at the workstation, are located on the central conveyor (28) in accordance with the pre-determined sequence, after the central conveyor (28) has passed all of the vertical elevators (VE).
Abstract:
A machine for inspecting a container having a vertical axis has an inspection station including an inspection device for carrying out an inspection on a transparent container relative to a vertical inspection axis. The bottle is delivered to the inspection station by a conveyor, which includes structure for engaging the sidewall of the bottle. The invention is an object to be inspected by such an inspection machine, which includes a container like adaptor having a vertical axis, and configured for handling by the conveyor structure so that when the container like adaptor engages the structure, the conveyor will deliver the container like adaptor to the inspection station. The container like adaptor has a horizontal top surface and a vertical axis, and a magnet is mounted in the top surface having a centering axis coincident with the vertical axis of the container like adaptor. The object to be inspected additionally includes a transparent bottle located on top of the magnet having metallic material in the bottom portion thereof so that the magnet will operate on the metallic material to locate the axis of the transparent bottle coincident with the centering axis of the magnet.
Abstract:
A machine for inspecting a container having a vertical axis has an inspection station including an inspection device for carrying out an inspection on a transparent container relative to a vertical inspection axis. The bottle is delivered to the inspection station by a conveyor, which includes structure for engaging the sidewall of the bottle. The invention is an object to be inspected by such an inspection machine, which includes a container like adaptor having a vertical axis, and configured for handling by the conveyor structure so that when the container like adaptor engages the structure, the conveyor will deliver the container like adaptor to the inspection station. The container like adaptor has a horizontal top surface and a vertical axis, and a magnet is mounted in the top surface having a centering axis coincident with the vertical axis of the container like adaptor. The object to be inspected additionally includes a transparent bottle located on top of the magnet having metallic material in the bottom portion thereof so that the magnet will operate on the metallic material to locate the axis of the transparent bottle coincident with the centering axis of the magnet.
Abstract:
An automated storage system for storing and picking articles delivered on incoming load carriers such as pallets comprises a device (depalletizer) for separating the article packing units, a tray storage facility (130) for storing the packing units (15) on trays (10), a take-off conveying system (42, 45, 135) for removing and feeding the packing units (15) in sequence for loading onto order load carriers, and a loading station (140) for loading the packing units (15) in a defined loading sequence onto order load carriers (20) for dispatch e.g. by lorry. The invention enables fully mechanized and automated storage and picking of the articles.
Abstract:
The passage of a container along a conveyor is lubricated by applying to the container or conveyor a lubricating coating that is thermally cured at less than 200° C. or radiation-cured. The mixture can be applied in relatively low amounts and with relatively low or no water content, to provide thin, substantially non-dripping, renewable lubricating films. In contrast to dilute aqueous lubricants, the lubricants of the invention provide dry lubrication of the conveyors and containers, a cleaner conveyor line and reduced lubricant usage, thereby reducing waste, cleanup and disposal problems.
Abstract:
A machine for loading a load carrier (20) such as a pallet with packing units (cardboard boxes, collis etc.), which form a load stack (21) on the load carrier, is presented. The machine includes handling and support mechanism (52–57), that allows a packing unit (15) to be loaded. The handling and support mechanism supports the load from below throughout the operation of loading from a feed device (51) onto the load stack. By virtue of the handling and support mechanism, the packing unit may be deposited at any selectable spatial position on the load stack. It is therefore possible to form an optimized load stack on the load carrier in which the packing units are always supported from below, with the result that the loading is not dependent upon the material quality of the packaging of the packing unit.
Abstract:
A transfer apparatus includes a shuttle depending from an overhead support with a pair of arms for receiving and shifting a specimen carrier from one conveyor to a second conveyor of a dual-conveyor track. The shuttle is operable to retain a specimen carrier along either the first or second conveyor and to release a specimen carrier along either the first or second conveyor. Sensors are located to detect the presence of a specimen carrier at each of the retention locations, and to confirm the release of a specimen carrier from the shuttle along each of the conveyors. A drive motor for moving the shuttle between the retention and release positions is electrically connected to a command module with a processor, for receiving instructions as to the position of the shuttle. The sensors are also connected to the processor to transmit detection data to the processor. A queue is positioned upstream of the shuttle and is electrically connected to the processor. The queue includes retractable shafts, sensors and scanners for selectively retaining, detecting and scanning identification data from a specimen carrier on either conveyor upstream of the shuttle, and transmitting the information to the processor.
Abstract:
A conveyor track drive includes a housing with a first continuous loop conveyor having a portion extending through the housing within a generally horizontal drive plane. The conveyor includes a first segment extending through the housing in the drive plane, then wraps around a portion of a drive sprocket, extends back upstream and around a portion of an idler sprocket and then includes a second segment transversely adjacent the first segment within the drive plane. A guide plate on the housing is positioned over the drive plane with a slot located to guide a specimen carrier from the first segment to the second segment at the point where the two segments are adjacent one another. A motor in the housing drives the drive sprocket to move the conveyor.