A transport device for transporting containers having a first transport section configured to convey containers in and a second transport section configured to convey containers out. The transport device includes a transfer device having a rotary cylinder, a clamping belt and a compensation device. The clamping belt can be adjusted in the area of the transfer device. The rotary cylinder and/or the clamping belt are configured to be drivable. The rotary cylinder and the clamping belt are configured to hold the containers between the rotary cylinder and the clamping belt and to transfer them from the first transport section to the second transport section. The rotary cylinder has one or more container support rings and at least one belt support element, wherein the belt support element is arranged such that the clamping belt abuts against it when there are no containers on the transfer device.

Disclosed is device for orienting at least one object, comprising: a fixed frame, conveying means defining a conveying surface to contact a bottom portion of object and convey object along a first direction; and rotating means selectively actuatable for creating on bottom portion a differential speed causing the rotation of object about a first axis transversal to first direction. The rotating means comprise a contact element that is fixed or movable along first direction with a differential speed relative to conveying means. The contact element is selectively movable with respect to conveying surface between: a first configuration, protruding from conveying surface along first axis, so as to contact bottom portion of object and to cause the rotation of object about first axis; and a second configuration, offset from conveying surface along first axis. The contact element is free to oscillate around a second axis parallel to first direction.

A conveyor system for sorting articles being conveyed in a conveying direction. A first conveyor section includes a plurality of inclined conveyors for de-stacking articles. A second conveyor section includes at least one indexing conveyor for spacing a first group of articles from upstream articles. A third conveyor section includes a chicane conveying path for forming the first group of articles into a single row generally aligned with the conveying direction. Related methods are also disclosed.

A modular conveying assembly includes active roller control for reducing backline pressure without product to product contact when accumulating products. Methods are discussed for manipulating objects by a bump-through indexing operation, a slug-control indexing operation, a catch-and-release indexing operation, box or case turning operations, and zero-pressure accumulation operations.

Using a transporter to either transport a first package or to simultaneously transport several packages, one of which is the first package includes using a double conveyor of the transporter to execute a first rotational movement of at least the first package, using a monitor, detecting an actual orientation of the first package, comparing an actual orientation of the first package with a predetermined setpoint orientation, detecting a deviation between the actual orientation and the setpoint orientation, and causing the transporter to carry out a second rotation of the first package.

A continuous non-symmetric preform feed stretch-blow-moulding machine dedicated to the stretch-blow-moulding of containers from non-symmetric injection moulded preforms; the non-symmetrical preforms including an integral handle extending from a first junction point to a second junction point on a body of the preform; the body of the preform and the integral handle constituted from the same material.

The present disclosure generally relates to pick and place robotic systems. An exemplary system for orienting an object comprises: a scanner configured to detect a label on the object; an upper conveyor belt; a flipping conveyor belt located at an end of the upper conveyor belt, wherein the upper conveyor belt is configured to transport the object toward the flipping conveyor belt, wherein the flipping conveyor belt is configured to, in a first orientation or position, rotate and exert a frictional force on the object to reorient the object while the object is in contact with the upper conveyor belt, wherein the flipping conveyor belt is configured to, in a second orientation or position, allow the object to drop off the end of the upper conveyor belt.

The present disclosure generally relates to pick and place robotic systems. An exemplary apparatus for vacuum-gripping a deformable bag comprises: a primary chamber, wherein a proximal end of the primary chamber is connected to an air flow source, and wherein the primary chamber is configured to, upon an activation of the air flow source, receive a portion of the deformable bag via a distal end of the primary chamber; a secondary chamber surrounding the primary chamber, wherein the secondary chamber is connected to the primary chamber via a plurality of connections to allow for air passage, and wherein the activation of the air flow source causes a lateral wall of the primary chamber to grip the portion of the deformable bag via pressure differential between an inside of the deformable bag and the secondary chamber.

A conveyor bed is provided that can include a conveyor frame, a roller frame and an adjustment mechanism. The adjustment mechanism can include a first wheel movable on a first rail and a second wheel movable on a second rail. A sled can be coupled to a bottom face of the roller frame, where an inner face of the sled is in contact with the first wheel and the first rail and an outer face of the sled is in contact with the second wheel and the second rail. An actuable component coupled to the sled, wherein the actuable component is configured to move the sled back and forth linearly along the first rail using the first wheel in response to rotation of the actuable component, wherein a movement of the sled rotates the second wheel and pivots the second rail to alter an angle of the roller frame.

The present disclosure is related to a device for aligning a number of packages including at least one bottom belt. In some embodiments, the at least one bottom belt may include a first end portion for receiving packages and a second end portion for exiting packages. In some embodiments, said at least one bottom belt may include a laterally declined portion facing a support surface arranged along a side of the at least one bottom belt, whereby in use, packages conveyed by the at least one bottom belt move laterally towards the support surface for alignment thereto due to the laterally declined portion and by means of gravity.