A ropeway or cable system is disclosed having at least two cable loops (1,20) that form a track, a first loop extending directly between two end station embarking or disembarking stations of the track, and a second loop extending between the two end stations via intermediate embarking or disembarking stations) or turning towers on the track. A vehicle (2) is carried from a loop, the vehicle (2) having a cable gripping mechanism (37, 38, 43, 44), the cable gripping mechanism being capable of switching attachment of the vehicle between two or more cable loops (1,20), so as to change the loop that carries the vehicle (2).

A conveyor installation for the transportation of articles along a predefined path includes a running rail, at least one running carriage which is freely movable along the running rail, and a driven engagement device which extends at least in sections along the running rail and which includes a multiplicity of engagement elements movable along the running rail. Reliable and quiet operation is achieved in that the engagement elements are movable back and forth between two stable positions, wherein, in the first stable position, the engagement elements can be moved relative to the at least one running carriage past the running carriage without entering into engagement with the running carriage (non-engagement position), and wherein, in the second stable position, the engagement elements, during a movement relative to the at least one running carriage past the running carriage, compulsorily enter into engagement with the at least one running carriage (engagement position).

An assembly for use with a power and free conveyor comprises a track member adapted to be slidingly received by a receiver portion of a power and free conveyor power track. The track member is slidingly moveable from a first position to a second position such that, when in the first position, the proximal end is retained within the receiver portion and the distal end is proximate to a connection portion. When in the second position, the proximal end is retained within the receiver portion and there is a gap between the distal end and the connection portion. A power and free conveyor comprising the assembly is also provided. A method of servicing a power and free conveyor comprising a sliding track member is also provided.

An actuator apparatus includes an actuator rod with an interior cavity and a set of rod holes. Each rod hole extends through the actuator rod to the cavity. The set of rod holes is positioned in a straight line. The apparatus includes a light assembly that is positioned to light the cavity. The apparatus includes an actuator block that includes an opening extending through the actuator block sized to conform to an outer surface of the actuator rod and a set of block holes in the opening. Spacing between the block holes matches spacing between the rod holes. The actuator block includes a light sensor positioned in a block hole to sense light coming through a rod hole aligned with the block hole and a ball bearing for each block hole of the set of block holes without a light sensor and extending partially through the corresponding block hole.

An assembly for use with a power and free conveyor comprises a track member adapted to be slidingly received by a receiver portion of a power and free conveyor power track. The track member is slidingly moveable from a first position to a second position such that, when in the first position, the proximal end is retained within the receiver portion and the distal end is proximate to a connection portion. When in the second position, the proximal end is retained within the receiver portion and there is a gap between the distal end and the connection portion. A power and free conveyor comprising the assembly is also provided. A method of servicing a power and free conveyor comprising a sliding track member is also provided.

An overhead conveyor system with an elongate box girder (9) having a first inner space with rails (12) and a second elongate inner space comprising an endless driven drive element (5, 6) is provided with at least one carrier (14, 14′) adapted to run on said rails (12) wherein said carrier is provided with an elongated body (C) supporting at least one friction driver (15), wherein said at least one friction driver is in the form of a friction arm assembly (19) with an upper end (20), a lower end (21) and an intermediate portion (22) between said upper and lower ends, said upper end comprising a friction shoe (25) adapted to be pressed upwards by the force of gravity towards engagement with the drive element (5) so as to transfer drive to the carrier.

An overhead conveyor system with an elongate box girder (9) having a first inner space with rails (12) and a second elongate inner space comprising an endless driven drive element (5, 6) is provided with at least one carrier (14, 14′) adapted to run on said rails (12) wherein said carrier is provided with an elongated body (C) supporting at least one friction driver (15), wherein said at least one friction driver is in the form of a friction arm assembly (19) with an upper end (20), a lower end (21) and an intermediate portion (22) between said upper and lower ends, said upper end comprising a friction shoe (25) adapted to be pressed upwards by the force of gravity towards engagement with the drive element (5) so as to transfer drive to the carrier.

An adjustable transfer mechanism for a power and free conveyor system includes a free track defining a conveyor path. A first power track defines a first drive path for a first drive member of the first power track to drive a trolley. The first power track is positioned to extend along the conveyor path up to a divergence point where the first power track diverges from the conveyor path. A second power track defines a second drive path for a second drive member of the second power track to drive the trolley. The second power track is positioned to extend along the conveyor path from a convergence point downstream of the divergence point so that the second drive member can pick up the trolley dropped off by the first power track. At least one of the divergence and convergence points is adjustable along the conveyor path.

A brake assembly for a conveyor system includes a first bracket, a second bracket and a brake member. The first bracket is configured to receive a channel of the conveyor system. The second bracket is spaced from the first bracket and configured to receive the channel of the conveyor system. The brake member is pivotally connected to the second bracket. A pivot axis about which the brake member is configured to pivot is disposed outwardly of the second bracket. A biasing member is configured to bias the brake member inwardly.

A brake assembly for a conveyor system includes a first bracket, a second bracket and a brake member. The first bracket is configured to receive a channel of the conveyor system. The second bracket is spaced from the first bracket and configured to receive the channel of the conveyor system. The brake member is pivotally connected to the second bracket. A pivot axis about which the brake member is configured to pivot is disposed outwardly of the second bracket. A biasing member is configured to bias the brake member inwardly.