A mechanically locking diverter utilizes a rotational actuator to translate a pin, thereby moving a diverter flipper between a divert position and a non-divert position. The diverter flipper moves a roller attached to a pin attached to a shoe that translates along a slat.

Provided is an article transport apparatus which can transfer an article to a transfer target portion at a low height. A movable member having a support portion includes a transfer mechanism for moving an article between the support portion and a transfer target portion. The transfer mechanism includes an interlocking portion capable of being interlocked with an article along the front-and-back direction, a first guide portion for guiding the interlocking portion along the front-and-back direction, and a second actuator for moving the interlocking portion along the front-and-back direction. The transfer mechanism moves an article between the support portion and the transfer target portion by moving the interlocking portion along the front-and-back direction. The first guide portion and the second actuator are located higher than an article supported by the support portion.

Device for lifting an article from a roller conveyor having a fork that can be raised and lowered, and having a plurality of spaced-apart elongate tines which, in the lowered position, move with the tines between or below the rollers of the roller conveyor in order to lift one or a plurality of articles from the rollers as the fork is being raised into the raised position with the tines, where the tines form a carrier surface for the article and the tines can be expanded in the direction transverse to the longitudinal extension thereof in order to form an expanded carrier surface.

A mechanically locking diverter utilizes a rotational actuator to translate a pin, thereby moving a diverter flipper between a divert position and a non-divert position. The diverter flipper moves a roller attached to a pin attached to a shoe that translates along a slat.

A system for assembly of components, including a vibrating device wherein the components are placed in bulk, which is provided with first and second compartments connected together at their ends by first and second passage zones to form a closed circuit wherein the components can flow, and an articulated gripping arm provided to distribute the components to an automatic assembly installation, the vibrating device including first and second planes inclined in opposite directions included, respectively, in the first and second compartments, the components being able to progress along the first and second inclined planes towards a supply platform on which at least one component can be arranged in advance of its seizure by the articulated gripping arm, the supply platform being located in the second compartment at an exit of the second inclined plane.

A gripping member for gripping a layer of products includes an upper closed wall, a suction plane associated on the lower side of the upper wall, mechanical gripping elements, a lower safety support plane, movable between an open position of disengagement from the gripping area and a closed position at least partially in engagement with the gripping area, and a telescopic chamber, open only toward the bottom. The telescopic chamber is fastenable around the product layer and is connectable to means for generating depression or vacuum, for pneumatically lifting the product layer by means of depression. The telescopic chamber includes a peripheral continuous gripping ring arranged at the periphery of the upper wall and consists of four angular elements and at least four plate-like side elements, which are slidably arranged with respect to the angular elements. The upper wall has adjustable plane dimensions.

The invention relates to a driving end module of a modular conveyor belt, the driving end module having an elongate body with an arrangement of interspaced fingers on opposed sides along the length of the body. Each interspaced finger includes a transverse aperture which defines a link path through the transverse apertures into which a rigid rod can be inserted through an installation aperture to link two adjacent conveyor belt rows to each other and provide a conveyor belt section. The driving head also includes a socket located between the installation aperture and the link path which is shaped to receive a plug to prevent the rigid rod from sliding through the installation aperture. The driving end module further includes a terminal driving head having a positive drive protrusion which in use engages a vertically extending ridge of a rotating drive tower.

A carrying device for receiving goods, which comprises a carrying wall, having a front wall and a rear wall, and a closing device, having at least one closing structure for releasably connecting the front wall to the rear wall in a closed state. The carrying wall is here arrangeable between the closed state and an open state, wherein in the closed state, it delimits a carrying volume for receiving the goods at least partially to the front, bottom and rear, and wherein in the open state, it opens up the carrying volume in the downward direction. The at least one closing structure is arrangeable, in the open state, at a spacing from the carrying wall.

This disclosure relates generally to an apparatus for loading and unloading of unit loads in freight. A mobile base platform of the apparatus includes a telescopic railing and a telescopic conveyor, wherein the telescopic conveyor is mounted on top of the telescopic railing and the tail end of the telescopic railing is mounted on the front end of mobile base platform. A mechanical connector is adapted to connect the front end of a telescopic conveyor with the front end of the telescopic railing, wherein the mechanical connector enables the telescopic robotic mounting plate coupled to the telescopic railing to move in relation to the telescopic conveyor. The telescopic conveyor and the telescopic railing is moved towards the forward position inside the carrying body, where the forward position movement is enabled by the mechanical link to unload freight.

In one embodiment, a sortation system at a facility has a conveyor system and a mobile drive unit system. The conveyor system has a conveyor surface that transfers payloads to the mobile drive units, and a controller that communicates a payload identifier for each payload to the mobile drive unit system. The payload identifiers are masked such that information about the local destinations are unknown to the conveyor system. The mobile drive unit system determines the local destinations from the payload identifiers by unmasking the payload identifiers, and delivers the payloads to determined local destinations at the facility.