A modular conveying assembly that includes a plurality of roller bodies, a driving member, a positive stop body, and a positive stop actuator. Each roller body includes a top surface, a driven axle mounted to the roller body for conveyance therewith, a roller fixed to the driven axle, and a driven surface fixed to the driven axle. The rollers define a support plane. The driving member selectively engages the driven surfaces to affect rotation of the driven axle. The positive stop body is coupled to the plurality of roller bodies and includes a positive stop that is movable relative to the positive stop body between a first position and a second position. The positive stop extends above the support plane in the second position. The positive stop actuator selectively engages the positive stop to move the positive stop between the first position and the second position.

A conveyor for conveying loads along a conveying direction has a frame and a plurality of rollers mounted in the frame. The conveyor also has a trigger pedal movable between an idle position and an engaged position, and a separator stop movable between a retracted position and a protruding position. A coupling is between the trigger pedal and the separator stop for transmitting to the separator stop a movement applied to the trigger pedal. A manual release mechanism also is provided. The frame has an end portion positioned after the plurality of rollers in the conveying direction. The manual release mechanism is arranged in the end portion and the trigger pedal is arranged within the end portion. The coupling has a knee-joint mechanism and is configured to pull the separator stop in the protruding position and to push the separator stop in the retracted position.

A release device may include a lifting and pre-stopping element having an upper sliding surface, the part coupled to a drive such that the sliding surface is movable over the sliding plane into an enabled position and at the level of the sliding plane into a blocked position, the part having a stop which in the enabled position protrudes beyond the sliding plane. A blocking element, behind the part in the sliding direction, has an upper blocking element sliding surface, a blocking edge protruding beyond the sliding plane, and an extendable/retractable block coupled to the drive such that the block is movable below the blocking element sliding surface into an enabled position and above the blocking element sliding surface into a blocked position. The blocking edge may be in front of the block in the sliding direction, preventing contact between the piece good and the block in the blocked position.

A load-conveying and transport apparatus includes a first frame, a conveyor carried by the first frame, and a second frame mounted to the first frame for movement between lowered and raised positions relative to the conveyor. The second frame lies below the conveyor, when the second frame is in the lowered position relative to the conveyor. The second frame lies proud of the conveyor, when the second frame is in the raised position relative to the conveyor. The conveyor is for conveying a load placed thereon without interference from the second frame, when the second frame is in the lowered position relative to the conveyor. The second frame is for supporting the load placed thereon above the conveyor for disabling the conveyor from conveying the load, when the second frame is in the raised position.

A method for stopping a discrete product that is fed by a continuous conveyor along a feed path in a feed direction to a stop location, the method including the steps: initially moving a stop at the stop location from a reset position outside of the feed path into the feed path so that the discrete product contacts the stop and moves the stop in the feed direction by a damping length wherein an impulse of the discrete product is dissipated by a fluid flowing through a throttle element; subsequently removing the stop from the feed path and moving the stop by the damping length against the feed direction back into the reset position; and pivoting the stop from the reset position into the feed path and pivoting the stop from the feed path into the reset position about the feed direction.

A conveyor (1) has rollers (12) for conveying a load (100) along a conveying direction (C). A stop (20) is configured to be arranged in a separating configuration, in which the load (100) is impeded from being conveyed along the conveying direction (C), and a conveying configuration, in which the load (100) can be conveyed along the conveying direction (C). A trigger (30) is configured to move between a triggered position and an idle position. The trigger (30) is configured so that the load (100) moving in the conveying direction (C) onto the trigger (30) moves the trigger (30) out of the idle position and into the triggered position, thereby arranging the stop (20) in the separating configuration. A counter element (50) is configured to move the trigger (30) out of the idle position when the load (100) is conveyed on the rollers (12) against the conveying direction (C).

A supply apparatus (10) includes: a blocker (13) disposed at a fork (12) between a main conveyance path (11), a first conveyance path (12A), and a second conveyance path (12B), the blocker (13) making a switch between a first state where supply of articles from the main conveyance path (11) to the first conveyance path (12A) is blocked and a second state where supply of the articles from the main conveyance path (11) to the second conveyance path (12B) is blocked; and a controller (20) that transitions, based on respective conditions of supply of the articles to two adjacent combination weighing mechanisms (1A, 1B), the blocker (13) into at least either the first state or the second state to switch a route of conveyance of the articles.

A modular conveying assembly that includes a plurality of roller bodies, a driving member, a positive stop body, and a positive stop actuator. Each roller body includes a top surface, a driven axle mounted to the roller body for conveyance therewith, a roller fixed to the driven axle, and a driven surface fixed to the driven axle. The rollers define a support plane. The driving member selectively engages the driven surfaces to affect rotation of the driven axle. The positive stop body is coupled to the plurality of roller bodies and includes a positive stop that is movable relative to the positive stop body between a first position and a second position. The positive stop extends above the support plane in the second position. The positive stop actuator selectively engages the positive stop to move the positive stop between the first position and the second position.

Multi-reference palletizing device comprising first displacement means (11) for moving a load (2) in a direction transverse to a pallet (6) and second displacement means (12) for moving the load (2) in a direction longitudinal to the depth of the pallet (6), comprising a surface (50) on which the load (2) rests, the surface (50) being movable in the longitudinal direction (6). The first displacement means (11) comprise a surface (40) on which the load (2) rests, movable in the transverse direction and suitable for positioning the load (2) in a final transverse position. It further comprises fastening means (20, 21) for fastening the load (2) to stabilize the load (2) during the movement thereof from the final transverse position to the final position in the longitudinal direction. The fastening means (20, 21) comprise members configured to laterally fasten the load (2).

A method for stopping a discrete product that is fed by a continuous conveyor along a feed path in a feed direction to a stop location, the method including the steps: initially moving a stop at the stop location from a reset position outside of the feed path into the feed path so that the discrete product contacts the stop and moves the stop in the feed direction by a damping length wherein an impulse of the discrete product is dissipated by a fluid flowing through a throttle element; subsequently removing the stop from the feed path and moving the stop by the damping length against the feed direction back into the reset position; and pivoting the stop from the reset position into the feed path and pivoting the stop from the feed path into the reset position about the feed direction.