Abstract:
Disclosed are various embodiments for an automated package unloading system. An automated package unloading system can include an end effector supported by a supporting frame which is mounted to a conveyor system. The end effector and/or the conveyor can be configured to move into and out of a container containing stacked packages. The end effector can be configured to attach to the packages and pull the packages from their original position. The end effector can further be configured to release the packages onto the underlying conveyor.
Abstract:
An automated truck unloader (10) for unloading/unpacking product, such as boxes or cases, from trailers and containers is disclosed. In one embodiment, a mobile base structure provides a support framework for a drive subassembly, conveyance subassembly, an industrial robot (56), a distance measurement subassembly, and a control subassembly (62). Under the operation of the control subassembly, an industrial robot (56) having a suction cup-based gripper arm selectively removes boxes from the trailer and places the boxes on a powered transportation path (88). The control subassembly (62) coordinates the selective articulated movement of the industrial robot (56) and the activation of the drive subassembly based upon a perception-based robotic manipulation system.
Abstract:
A loading and unloading machine for loading goods into, or unloading goods from, a container such as a standard shipping container. The loading and unloading machine has a goods conveyor extending into the container and configured to convey goods to or from the container, a transfer system located adjacent an end of the goods conveyor configured to manoeuvre goods from or to the loading machine into or from the container, respectively, and a height adjustment system configured to adjust the height of the transfer system to a desired height.
Abstract:
A device for automatically stacking packages on an intermediate plate in a predetermined spatial arrangement for forming a stack, comprising at least one feed conveyor which arranges the individual packages in a predetermined order; a lifting and lowering unit for lifting and lowering the intermediate plate; a sliding plate and a pusher, in order to transport the packages in the Z-direction to the predetermined position in the stack, and with the intermediate plate comprising two partially displaceable plates.
Abstract:
A palletizing installation comprising two palletizing devices (10, 20) and a linear common feed conveyor (1). Each palletizing device has a stationary mounted shutter device (22) and a pallet lifter (26). A stationary mounted row formation platform (28) is present to form thereon a row of products, which platform has a lateral side that extends adjacent a lateral side of the common feed conveyor. Each palletizing device comprises a product row transfer mechanism (30) that is adapted to slide a row of products from the row formation platform onto the layer formation surface of the shutter device in closed state. The installation further comprises a product ejector system and one or more product ejector devices (41) which are adapted to eject a product from the common feed conveyor such that the product moves onto a selected product location of said at least two row formation platforms.
Abstract:
A conveyor belt system is provided for enabling rotation of a number of packages, such that every second package is rotated clockwise, and every other package is rotated counter clockwise. A computer program product is also provided.
Abstract:
There is provided a gripper system for stacked packaged goods. An exemplary gripper system comprises a first gripper unit for gripping a package by a front surface of the package. The exemplary gripper system further comprises a second gripper unit for gripping the package by a second surface that is at a right angle to the front surface, the second gripper unit having a drive device associated therewith, the second gripper unit being adapted to be moved out of a starting position in which the second gripper unit and the drive device as seen from the gripping side of the first gripper unit, are arranged behind the first gripper unit, into a gripping position in which the first gripper unit is positioned for gripping the package by its front surface and the second gripper unit is positioned for gripping the package by its second surface. In a gripper system according to an exemplary embodiment of the present invention, outer dimensions of the gripper system, as seen from the gripping side of the first gripper unit, do not exceed dimensions of a front surface of a smallest package to be gripped.
Abstract:
A sortation conveyor has a divert guide path which is configured to guide pushers to engage articles disposed on an endless conveying surface at an initial impact which does not result in an out of control situation even at high speeds. The divert guide path is disposed at a plurality of divert angles, and guides pushers to engage articles at a low initial contact divert angle and first lateral speed and to accelerate the articles to a final divert angle and second, higher, lateral speed. The pushers may be undergoing lateral acceleration at the time initial contact is made with the articles.
Abstract:
A conveyor system aligner, method of aligning and continuous aligning belt includes providing a belt support assembly having a generally vertical support surface and a channel defined in the support surface. A belt drive propels the aligning belt along the support surface and items, such as cartons, are conveyed past the aligning belt. A continuous aligning belt is provided that has a contact portion and a guide member. The contact portion has a contact surface and a glide surface. The glide surface is configured to travel along the support surface. The guide member is adapted to be captured by the channel and travels in the channel to support the aligning belt.
Abstract:
A conveyor system includes first and second upstanding posts disposed in longitudinally spaced apart relation to one another. Each post is surmounted by forward and rearward support arms that form a “V”-shape. A forward drive belt is mounted for rotation along a path of travel perpendicular to the forward support arms. A first embodiment cradles a product container between the forward drive belt and a rearward primary support arm. A second embodiment includes the first embodiment structure and adds a rearward secondary support arm. A third embodiment includes the primary but not the rearward secondary support arm, the forward drive belt and a forward secondary support arm. A fourth embodiment includes the rearward primary and secondary support arms, the forward drive belt and a forward secondary support arm. The product container is tilted from vertical so that the conveyor follows a path of travel including curvatures having no guide rails.