A main drive mechanism provided with a main motor drives a rack on a first main path and a rack on a second main path simultaneously in the forward direction or simultaneously in the reverse direction. The rack is sent along a first auxiliary path by a first auxiliary drive mechanism. Then the rack is further sent in the forward direction along the second main path by the main drive mechanism. Once the rack leaves the first receiving region, the first claw member of the first auxiliary drive mechanism is sent to a retraction position and the rack is driven by the main drive mechanism in the reverse direction. The first claw member is then sent to an engagement position on the first main transportation path, the main drive mechanism is driven for transport in the forward direction, and the rack and the first claw member engage each other.

A chain type vehicle conveying device is used in stereo garages. The vehicle conveying device includes two conveyor assemblies moving in synchronous circulating motion. Each conveyor assembly includes two parallel chains with attached plates. Parallel crossbeams are affixed to the two chains of each conveyor assembly to support a vehicle. The chains with attached plates each include an upper portion and a lower portion at any point during a moving cycle of the chains. The upper portion slides on a corresponding sliding rail mounted to a frame. The lower portion slides on a corresponding sliding pallet matching the crossbeams and mounted to the frame. Each conveyor assembly is moved by a pair of driving sprockets meshing with the two chains of the conveyor assembly and a pair of tension pulleys. A power transmission gear of the vehicle conveying device transmits power to the driving sprockets.

A conveyance device comprises a sorting plate housing a plurality of roller assemblies and a series of narrow conveyor belts for conveying articles towards the sorting plate. In a first mode, the narrow conveyor belts bypass the roller assemblies and convey articles over the sorting plate. In a second mode, the conveyor belts bring an article into contact with the roller assemblies, which then manipulate the trajectory of the article.

A magnetic lifting device for bodies (Z) comprises an input transport device (10) for transporting lying bodies (4), a transport device (12) for transporting lifted bodies (9) hanging at the transport device (12) and arranged above the input transport device (10) and a control device (13). A first magnet arrangement (1) which is activated and deactivated by the control device (13) is arranged below the input transport device (10) in such a way that a body (4) lying on the input transport device (10) is magnetically held in a releasable way on the input transport device (10). A second magnet arrangement (2) is arranged above an area of the input transport device (10), in which the bodies are transported, and is formed in such a way that a body lying on the input transport device (10) is lifted by the magnetic field of the second magnet arrangement (10) when the magnetic field of the first magnet arrangement (1) is deactivated. A third magnet arrangement (3) is provided above the transport device (12) and is formed and arranged in such a way that a partially lifted body (4a) is lifted more and is lifted off the input transport device (10) and is transported in an upright position hanging magnetically at the transport device (12). The control device (13) is adapted to activate the first magnet arrangement (1) when a front edge of a body (4) lying on the input transport device (10) has passed the second magnet arrangement (2) and to deactivate the first magnet arrangement (1) when a trailing edge of this body (4) comes to lie below the second magnet arrangement (2).

A continuous pipe feeder machine which avoids clamping against welded joints of a pipe is provided. The continuous pipe feeder machine is especially suitable for use in pipeline and tunnel construction. The system includes soft pads for moving a pipe. The soft pads of the machine for moving the pipe are located at strategic locations on the machine so that a pipe fed into the machine gets moved without the pads compressing and damaging the welded joints of the pipe.

A deform lead-retract removal track is provided which is configured to convey non-defective integrated circuit packages and remove integrated circuit packages having a lead-retract defect. The distance between the outside walls of the track is less than the distance between leads of the non-defective integrated circuit packages and greater than the distance between the leads of the integrated circuit packages having a lead-retract defect. The defective integrated circuit packages having a lead-retract defect are unable to enter the track or will become stuck on the track.

A device for the transport of ceramic slabs (L), comprising: a pair of inner belts (2,3) and a pair of outer belts (4,5), parallel to the transport direction (x) and coplanar to a transport plane; wherein each belt is associated to respective supports (210,220,310,320,410,420,510,520); at least the front supports (210,310,410,510) are slidably associated to a front bar (6), arranged perpendicular to a transport direction (X) and parallel to the transport plane; a motor means, predisposed to activate the front bar (6) in rotation, so as to displace the front supports (210,310,410,510) along the front bar (6), in a perpendicular direction to the transport direction (X) and parallel to the transport plane.