A mesh-like conveyor belt is capable of varying in width and shape as it travels. The conveyor belt comprises a plurality of links, joints, and control elements. The joints connect the links to each other and allow the links to change their orientation within the conveying surface of the conveyor belt. The plurality of links and joints allow the conveyor belt to vary in width, shape, trajectory, and surface speed while in motion. The conveyor belt also includes control elements, built into the structure of the belt that are capable of engaging with external guides. When the conveyor belt is in motion, the control elements engage with and follow the paths determined by external guides thereby controlling the shape of the belt.

Disclosed is a conveyor system and method for advancing an item relative to a transport axis. The conveyor system includes a conveyor belt and a modular drive assembly having at least one drive module and at least one take-up module. Each drive module and each take-up module has a housing and a pulley assembly positioned within the housing. The respective positions of the housings of the at least one drive module and the at least one take-up module relative to the transport axis are selectively adjustable to modify the conveyor movement pathway. Moreover, the drive module can also include a drive pulley removal apparatus that is detachably secured within the housing for selective removal and replacement of a drive pulley.

Apparatus for transporting material in a manufacturing process are disclosed. A disclosed vacuum conveyer system may comprise a vacuum box extending between a first box end and a second box end, the vacuum box comprising a vacuum box vacuum chamber, a nose roll disposed adjacent to the first box end, the nose roll comprising a nose roll vacuum chamber, and a foraminous member disposed about both of the nose roll and the vacuum box. The vacuum system may further comprise a first airflow conduit connecting the vacuum box vacuum chamber to a vacuum source and a second airflow conduit connecting the nose roll vacuum chamber to the vacuum source.

Disclosed is a conveyor system and method for advancing an item relative to a transport axis. The conveyor system includes a conveyor belt and a modular drive assembly having at least one drive module and at least one take-up module. Each drive module and each take-up module has a housing and a pulley assembly positioned within the housing. The respective positions of the housings of the at least one drive module and the at least one take-up module relative to the transport axis are selectively adjustable to modify the conveyor movement pathway. Moreover, the drive module can also include a drive pulley removal apparatus that is detachably secured within the housing for selective removal and replacement of a drive pulley.

The invention relates to an arrangement (20) to transport a round blank ring (30) made from plastic from a receiving location (35) to an assembly station (90). A every point in time, the orientation and the position of the round blank ring (30) are predefined, at least within a tolerance range. To execute a movement from top to bottom in a height direction (H), it is possible to use a feed device (34) with a motor-driven conveying unit (58). This conveying unit (58) moves one or more round blank rings (30) in a positively guided manner downward in the height direction (H) to a delivery location (36). At every point in time as this is done, the orientation of the round blank ring relative to the height direction (H) is defined, at least within a predefined tolerance range.

Curve conveyor (1), comprising a guiding track extending along a circular arc (2), which guides a conveying part (3) of an endless conveyor (4), the conveying part comprising a plurality of chain strands (5, 6, 7) which with a common center of curvature (C) are spaced apart at an equal radial pitch, and a drive (8) cooperating with the chain strands, which during operation leads the chain strands at a mutually equal angular speed through the guiding track, wherein the chain strands are each built up from a singular series of successive conveyor modules (9) which are each provided at their top with a substantially flat top surface, and wherein the radial pitch between the chain strands substantially corresponds to the radial width of the conveyor modules so that sides of the conveyor modules with enclosure of a narrow gap adjoin and the top surfaces in the conveying part form a substantially uninterrupted conveying surface.

A wire mesh belt for use as a conveyor. The wire mesh belt has a plurality of links which are interlocked to form the wire mesh belt. First straight portions, second straight portions and bent portions of the links form passages which extend across the length of each link. A longitudinal axis of each link extends generally transversely to a longitudinal axis of the wire mesh belt. Support inserts are provided in the passages of respective links. The cooperation of the support inserts with the links provides support to the wire mesh belt to minimize the deformation of the wire mesh belt.

A control apparatus for use with a stone spreader vehicle improves the control of particulate material travelling on a conveyor. The control apparatus has an endless belt supported about a plurality of rollers, a capture volume at its leading edge for receiving the incoming particulate material on the conveyor, and a release volume at its trailing edge for releasing the particulate material from the control apparatus.

A mesh-like conveyor belt is capable of varying in width and shape as it travels. The conveyor belt comprises a plurality of links, joints, and control elements. The joints connect the links to each other and allow the links to change their orientation within the conveying surface of the conveyor belt. The plurality of links and joints allow the conveyor belt to vary in width, shape, trajectory, and surface speed while in motion. The conveyor belt also includes control elements, built into the structure of the belt that are capable of engaging with external guides. When the conveyor belt is in motion, the control elements engage with and follow the paths determined by external guides thereby controlling the shape of the belt.

Separating system for separating a support and a product arranged on the support. According to one embodiment the system includes conveying means adapted for receiving the product arranged on its support and for conveying the products in a first conveyance direction. The conveying means includes two product support elements separated from one another in at least one point by a width less than a width of the product (the width of the product being transverse to the first conveyance direction) and greater than the width of its support (with the width of the support being transverse to the first conveyance direction), such that the product is supported by, and conveyed on, the product support elements of the conveying means, and the support is separated from the product upon the product being supported on the product support elements.