A transport apparatus comprises an endless vacuum conveyor belt (310) having a plurality of perforations (311). The conveyor belt transports the particles along a transport direction (T) while they are aspirated to the perforations, thereby defining a moving transport surface (316). The transport surface extends in an essentially vertical plane (x-z), and the transport direction (T) is inclined upwardly relative to the horizontal direction (x). An inclined recycling tray (200) recycles particles that have fallen from the conveyor belt back to a feeding zone (150) purely by the action of gravity. A separating wall (600) separates a processing zone from a clean zone of the apparatus. The conveyor belt interacts with an elongate vacuum box, which is open along one side, the open side being covered by an elongate slider. The slider has suction openings with a cross section that varies along the transport direction (T).

Conveying apparatus comprising: (1) a conveyor belt comprising a load bearing belt having an exterior surface and an interior surface, the belt having a plurality of channels therethrough, (2) mounting material on the exterior surface of the belt, and (3) a resilient engagement covering. Also a method of using the apparatus in conjunction with means for applying a negative pressure.

A vacuum port assembly is provided for a press system including a die assembly and a transfer assembly. The transfer assembly includes a conveyor belt, a vacuum manifold coupled to the die assembly, and an airflow generator. The conveyor belt includes a plurality of holes for receiving and moving shells in a plane with respect to the die assembly. The vacuum port assembly includes at least one port member including inlet and outlet ends. The inlet end has amounting portion for removably coupling the port member to the vacuum manifold. The outlet end is in fluid communication with the airflow generator, thereby establishing fluid communication between the airflow generator and the vacuum manifold. The inlet end extends outwardly from the vacuum manifold generally perpendicular with respect to the plane of the conveyor belt.

The present disclosure provides a system for transporting work pieces from one location to another. The system uses either magnetic force or vacuum, or both, to lift and retain the work pieces against the moving overhead conveyor belt. The system can interrupt the magnetic force and/or the vacuum to release the work pieces from against the moving overhead conveyor belt at a desired transport location.

A conveyance apparatus which can suppress the occurrence of a defect on a work caused due to the entrance of a corner portion of the work into a hole portion formed on a conveyance surface of a base.

The present disclosure relates to methods and apparatuses for rejecting defective absorbent articles from a converting line. At a downstream portion of a converting process, a continuous length of absorbent articles may be subjected to a final knife and cut to create discrete absorbent articles advancing on a first carrier. From the first carrier, the discrete absorbent articles may be transferred to a transfer apparatus, which in turn, transfers the discrete absorbent articles to a second carrier. The transfer apparatus may include carrier members that orbit around an axis of rotation and may be adapted to receive the absorbent articles from the first carrier and transfer the absorbent articles to the second carrier. Defective absorbent articles may be detected by an inspection system, which may be operably connected with the transfer apparatus and/or the first carrier to remove the defective absorbent articles from the converting process.

An apparatus and method for conveying absorbent articles may utilize a conveyor including a vacuum source in fluid connection with a deck. The deck may include a channel. The conveyor may include a belt having a first surface, an opposing second surface, and an aperture. The second surface of the belt may be in facing relationship with the deck such that the aperture is aligned with the channel. A first row of angled teeth and a second row of angled teeth may be connected with the second surface of the belt. The first row of angled teeth and the second row of angled teeth mesh with a first gear member and a second gear member, respectively. The first and second gear members may be attached to an axle member such that the first gear member and the second gear member rotate with the axle member to advance the belt.

A method for transporting articles (2) to a station, in particular preforms to a blow-molding apparatus, wherein each article has a protrusion (10) and is moved along a guide (16) by a drive means (18), the article (2), along at least part of the guide (16), should be retained on an abutment (19, 21, 23), and advanced along this abutment, by an air stream.

A method and device useful for material removal from large plate-shaped materials, for example machining and polishing of glass and stone. The invention includes a workstation having arrays of roller and suction cups which are selectively used to transport and secure a plate positioned in the workstation. An imaging device collects data on a true position of the plate in the workstation and compares the real position to a design or ideal position to determine a difference of position. An electronic control system calculates the difference and modifies the processing program to adjust for the difference eliminating the need to further reposition the plate to the ideal design position for processing.

An object conveying and orienting device comprising a first conveyor belt with a conveying segment (11), guided over a guiding surface and/or between two equidistant guides, and with a retaining device associated with the first conveyor belt (10); an object orienting segment (12), at least partially overlapping the conveying segment (11) in which the first conveyor belt (10) is twisted producing a twisted surface; wherein at least one first opening (41), in communication with at least one suction chamber (40), is defined along the conveying segment (11), on the guiding surface and/or between the equidistant guides, and wherein the retaining device 10 comprises multiple suction cups (30) on the front face of the first conveyor belt, in fluid communication with said at least one suction chamber (43) through openings of the first conveyor belt (10) facing the at least one first opening (41).