Abstract: An ice delivery system includes an ice bin with an ice maker thereon. An auger dispenses ice from the bin and agitators within the bin prevent blockage. The agitation may follow a pattern depending on the location of the agitators with some about the periphery less employed than those adjacent the auger. An ice gate receives ice and flowing air to direct the ice pneumatically to a multistation diverter. The flow through the diverter is vertically downwardly. Tubes from the diverter convey ice to remote dispensing stations. The dispensing stations have prechambers with drains and lockable gates to advantageously receive ice for delivery into the remote station bins or block the ice storage area to allow cleaning. Conduit couplings are configured to connect tubing without creating an area of ice blockage or allowing the buildup of contamination. Germicidal lights or ozone may be used in the ice bin to avoid contamination.

Abstract: An ice delivery system includes an ice bin with an ice maker thereon. An auger dispenses ice from the bin and agitators within the bin prevent blockage. The agitation may follow a pattern depending on the location of the agitators with some about the periphery less employed than those adjacent the auger. An ice gate receives ice and flowing air to direct the ice pneumatically to a multistation diverter. The flow through the diverter is vertically downwardly. Tubes from the diverter convey ice to remote dispensing stations. The dispensing stations have prechambers with drains and lockable gates to advantageously receive ice for delivery into the remote station bins or block the ice storage area to allow cleaning. Conduit couplings are configured to connect tubing without creating an area of ice blockage or allowing the buildup of contamination. Germicidal lights or ozone may be used in the ice bin to avoid contamination.

Abstract: An ice delivery system includes an ice bin with an ice maker thereon. An auger dispenses ice from the bin and agitators within the bin prevent blockage. The agitation may follow a pattern depending on the location of the agitators with some about the periphery less employed than those adjacent the auger. An ice gate receives ice and flowing air to direct the ice pneumatically to a multistation diverter. The flow through the diverter is vertically downwardly. Tubes from the diverter convey ice to remote dispensing stations. The dispensing stations have prechambers with drains and lockable gates to advantageously receive ice for delivery into the remote station bins or block the ice storage area to allow cleaning. Conduit couplings are configured to connect tubing without creating an area of ice blockage or allowing the buildup of contamination. Germicidal lights or ozone may be used in the ice bin to avoid contamination.

Abstract: In apparatus for conveying batches of ice lumps from a storage hopper to remotely located ice dispensers, ice lumps from the storage hopper are delivered into the main conduits through corresponding main valves and connecting conduits extending between each main valve and the storage hopper. Metering valves meter batches of ice lumps of predetermined size into the main conduits. Conveying air from an air blower is supplied to the main conduits through the main valves for conveying the batches of ice lumps. In use, batches of ice lumps are intermittently delivered into the main conduit, and the batches of ice lumps and conveying air are alternately supplied to the main conduit.

Abstract: In apparatus for conveying batches of ice lumps from a storage hopper to remotely located ice dispensers, ice lumps from the storage hopper are delivered into the main conduits through corresponding main valves and connecting conduits extending between each main valve and the storage hopper. Metering valves meter batches of ice lumps of predetermined size into the main conduits. Conveying air from an air blower is supplied to the main conduits through the main valves for conveying the batches of ice lumps. In use, batches of ice lumps are intermittently delivered into the main conduit, and the batches of ice lumps and conveying air are alternately supplied to the main conduit.

Abstract: In order to automatically position a magnetic disk relative to a disk drive, the drive includes a pivotable backer that provides positive seating of a central hub (on the disk) upon a drive spindle of a disk drive motor. A shuttle removes a cartridge containing the disk from a magazine and inserts the cartridge into a door offset from the spindle and commonly pivotable with the backer. The backer and door are differentially cammed so that the backer overtravels the door in a substantially continuous motion linked to the insertion movement. A hub seater depending from the backer penetrates an opening in the door to force the hub against the spindle as the door moves the disk into position relative to the drive. The backer then retreats to an offset position in which the hub seater breaks contact with the disk hub before the drive motor is started, thereby inserting the disk securely and seating the hub in one continuous motion without prolonging frictional contact as the disk begins to rotate.