A centrifugal dewatering conveyor system for removing liquid from a conveyed product comprises a modular conveyor belt designed to follow a path that includes both straight portions and helical portions. The modular conveyor belt comprises a plurality of hingedly connected modules having side walls and capable of shifting laterally relative to each other and curling up about the hinge rods to form the helical portions. In the helical portions, a centrifugal force imparted on conveyed product forces water through openings in the conveyor belt.

A conveyor installation (100) includes conveyor sections (111), at least one switch (1111) for switching between the conveyor sections (111), a multiplicity of transportation units (110), which extend along the conveyor sections (111), a radio system (101) for spatially tracking the transportation units (110), and a control unit for controlling the conveyor system. (100), the radio system (101) including radio modules (1013) each assigned to a transportation unit (110) and at least one stationary radio device (1011), which are configured for exchanging radio signals, and a processing unit (109), wherein the processing unit (109) is configured to process the radio signals from the radio signals, and the current position of the transportation units (110) along the conveyor sections (111).

A conveyor installation (100) includes conveyor sections (111), at least one switch (1111) for switching between the conveyor sections (111), a multiplicity of transportation units (110), which extend along the conveyor sections (111), a radio system (101) for spatially tracking the transportation units (110), and a control unit for controlling the conveyor system. (100), the radio system (101) including radio modules (1013) each assigned to a transportation unit (110) and at least one stationary radio device (1011), which are configured for exchanging radio signals, and a processing unit (109), wherein the processing unit (109) is configured to process the radio signals from the radio signals, and the current position of the transportation units (110) along the conveyor sections (111).

Some elevator buckets 1, 11, 21, 31, 41 have aperture orifices 2, 3, 4, 12, 22; 42, 43, 44, 52. Traditionally, these aperture orifices are formed by drilling a solid bucket wall but by provided aperture features 12, 13, 52 in a moulded bucket with some already moulded aperture orifices then some markers or pre-cursors for aperture orifices are provided and provision of elevator buckets is more efficient with aperture orifices.

A transport bag (10) for a suspended conveyor system, particularly a rail-guided conveyor system or a transport chain conveyor system, has a conveyor member, particularly a carriage (20) of a rail-guided (41) conveyor system or a conveyor chain link of a transport chain conveyor system, and a transport bag (10) having a receiving region for receiving one or a plurality of units of goods (91). The transport bag is attached, via a suspension means (17), in a suspended manner to a carrying means (23) of the conveyor member. The transport bag has two frame brackets (15, 16) which are pivotally connected to the suspension means. The two frame brackets (15, 16) are substantially 2-fold rotationally symmetrical to one another, but not mirror symmetrical to one another.

A transport bag (10) for a suspended conveyor system, particularly a rail-guided conveyor system or a transport chain conveyor system, has a conveyor member, particularly a carriage (20) of a rail-guided (41) conveyor system or a conveyor chain link of a transport chain conveyor system, and a transport bag (10) having a receiving region for receiving one or a plurality of units of goods (91). The transport bag is attached, via a suspension means (17), in a suspended manner to a carrying means (23) of the conveyor member. The transport bag has two frame brackets (15, 16) which are pivotally connected to the suspension means. The two frame brackets (15, 16) are substantially 2-fold rotationally symmetrical to one another, but not mirror symmetrical to one another.

Provided is a foundry sand supply device capable of collecting foundry sand at an arbitrary timing. The foundry sand supply device includes a bucket collecting the foundry sand, a bucket drive unit rotatably supporting the bucket and driving the bucket, and a moving unit moving the bucket drive unit close to and away from the foundry sand, and moving the bucket drive unit between a collecting position to collect the foundry sand and a supply position to supply the foundry sand.

An apparatus that conveys pellet-shaped articles may include a hopper that receives a quantity of the pellet-shaped articles. The hopper may include one or more openings to direct a flow of air into the hopper to dislodge jamming or bridging of pellet-shaped articles within the hopper.

An apparatus that conveys pellet-shaped articles may include a hopper that receives a quantity of the pellet-shaped articles. The hopper may include one or more openings to direct a flow of air into the hopper to dislodge jamming or bridging of pellet-shaped articles within the hopper.

A barrel elevator system for vertically moving barrels of liquid between a ground floor and any one of a number of floors at a warehouse for storage of the barrels. The barrel elevator system includes a support frame located in an elevator shaft and a series of cradle assemblies supported between a pair of lifting chains. A loading station is located on the ground floor for receiving barrels to be stored or for removing barrels after storage. Each floor includes a unloading station that allows barrels to be removed from the cradle for storage and returned to the cradles after storage. Each of the loading and unloading stations includes a shield assembly to restrict access to the elevator shaft. A rail section and handle are used to load and unload barrels from the cradles. The handle extends through the shield assembly for access by an operator.