Abstract: A method includes providing a container having a folding side wall, the folding side wall in an open position defining a side access port having a predetermined side access port frame of reference. The folding side wall is positioned in the open position. Content/items are ordinated from a first arrangement of the content/items to a second arrangement of the content/items, different than the first arrangement of the content/items and disposed within the container with the second arrangement of the content/items ordinated with respect to the predetermined side access port frame of reference and an access direction to the content/items through the side access port.

Abstract: The refillable container includes a semi-rigid outer shell that defines an interior void and includes a detachable pour spout. The container may be refilled with a plurality of collapsible inserts. Instead of rigid beverage bottles and other flowable substance containers, the collapsible inserts may be transported from a manufacturing to a filling facility in a collapsed state, and do not have to include semi-rigid materials thereby minimizing disposal requirements. A tilt-pouring embodiment, a helical track embodiment, a helical axle embodiment and an air-bladder embodiment of refillable containers having common components permit dispensing of products from the containers to achieve virtually zero waste of the products.

Abstract: The system (30) includes a product engager (32), a transporter (34) and a patterned depositor (36) for engaging products (38) and transporting the products (38) from the product engager (32) to the patterned depositor (36), such as between a product bagging machine (56) that forms and fills a bag (24), a conveyor that transports the bags as the products (38) and delivers them to a case packing machine as the patterned depositor (36). The product engager (32) and the patterned depositor (36) include first and second drivers (46, 48) and the transporter (34) includes an adjustable-length buffer (50) to compensate for any temporary difference between a first product delivery rate of the product engager (32) and a rate of movement of the products (38) passing from the product engager (32) along the transporter (34) to the patterned depositor (36).

Abstract: The refillable container (20) includes a semi-rigid outer shell (22) that defines an interior void (24) and includes a detachable pour spout (26). The container (20) may be refilled with a plurality of collapsible inserts (32). Instead of rigid beverage bottles and other flowable substance containers, the collapsible inserts (32) may be transported from a manufacturing to a filling facility in a collapsed state (76), and do not have to include semi-rigid materials thereby minimizing disposal requirements. A tilt-pouring embodiment (20), a helical track embodiment (100), a helical axle embodiment (240) and an air-bladder embodiment (300) of refillable containers having common components permit dispensing of products from the containers (20, 100, 240, 300) to achieve virtually zero waste of the products.

Abstract: The system (30) includes a product engager (32), a transporter (34) and a patterned depositor (36) for engaging products (38) and transporting the products (38) from the product engager (32) to the patterned depositor (36), such as between a product bagging machine (56) that forms and fills a bag (24), a conveyor that transports the bags as the products (38) and delivers them to a case packing machine as the patterned depositor (36). The product engager (32) and the patterned depositor (36) include first and second drivers (46, 48) and the transporter (34) includes an adjustable-length buffer (50) to compensate for any temporary difference between a first product delivery rate of the product engager (32) and a rate of movement of the products (38) passing from the product engager (32) along the transporter (34) to the patterned depositor (36).

Abstract: A method for expanding the operating domain of a boiling water nuclear reactor that permits safe operation of the reactor at low core flows is described. The operating domain is characterized by a map of the reactor thermal power and core flow. In an exemplary embodiment, the method for expanding the operating domain of a boiling water nuclear reactor permits operation of the reactor between about 120 percent of rated thermal power and about 85 percent of rated core flow to about 100 percent of rated thermal power and about 55 percent of rated core flow. The method includes determining an elevated load line characteristic that improves reactor performance, performing safety evaluations at the elevated load line to determine compliance with safety design parameters, and performing operational evaluations at the elevated load line. The method also includes defining a set of operating conditions for the reactor in an upper operating domain characterized by the elevated load line.