The invention relates to a sorting conveyor having pivotally mounted flaps for sorting articles into sorting outlets as a function of a sorting indication affixed to each of the articles. The conveyor includes a monitoring and control unit designed to cause each flap to pivot between a closed position in which the flap forms a conveyor portion suitable for conveying an article in a certain conveying direction and an open position in which the flap interrupts conveying of an article on the conveyor to deflect it towards an appropriate sorting outlet. The monitoring and control unit is also arranged to retrieve thickness data from a memory giving a certain thickness for the article to be deflected, and to respond by causing the flap to pivot into an open position through a certain opening amplitude determined as a function of the thickness data about the article that is to be deflected.

A conveying device has: a main conveyor unit; a sub conveyor unit; and a lifting and lowering unit that lifts and lowers at least one of the main conveyor unit and the sub conveyor unit, wherein the main conveyor unit has a main conveying passage disposed in a fixed region, the main conveying passage conveying a conveyance object, wherein the sub conveyor unit has a sub conveying passage disposed in the fixed region, the sub conveying passage conveying the conveyance object in an intersecting direction with respect to a conveying direction of the main conveying passage, wherein a conveyance attitude is capable of being changed between a main conveyance attitude in which a conveying surface of the sub conveying passage is located below a conveying surface of the main conveying passage, and a sub conveyance attitude in which both ends in the intersecting direction of the conveying surface of the sub conveying passage are located above the conveying surface of the main conveying passage, and in the sub conveyance attitude, the conveying surface of the sub conveying passage is inclined in a height direction.

Embodiments herein generally relate to inspection systems for substrates or wafers for solar cell applications. The inspection system is configured to analyze substrates or wafers for chips, cracks, and other defects. The system includes conveyor apparatuses, and the conveyor apparatuses include one or more conveyor elements. The conveyor elements are configured to transport rectangular wafers having a width between about 175 mm to about 250 mm. The conveyor elements include a first conveyor belt and a second conveyor belt to transport the substrates. The spacing of the belts reduces vibrations of the substrate edge.

A device and a method for portioning a flow of individual products having an input-side conveying device continuously supplying individual products and at least two output-side conveying devices for continuously discharging the products. The output-side conveying devices are arranged vertically above one another. The input-side conveying device continuously transfers the products to a first output-side conveying device. The input-side and/or the output-side conveying devices are able to be pivoted in their position to transfer the products to one of the at least two output-side conveying devices, continuously or in batches. The input and output-side conveying devices may be circulating conveyor belts, in the form of front and/or rear ends, which are movable in the direction of conveyance and cooperate so that during the phase of adjusting the position of the input and/or the output-side conveying devices, the products on the input-side may be supplied continuously at uniform spacings from one another.

A conveying system for intended use in sorting articles and related methods of conveying and sorting articles are disclosed. In one embodiment, the system comprises a first conveyor extending in a first direction and a second conveyor extending in a second direction, with the directions intersecting. A transfer conveyor, such as a transpositor conveyor, may be provided for transferring articles from one of the first conveyors to one of the second conveyors. The system may be used to sort articles delivered from one or more storage locations for distribution, or may instead be used to sort articles for delivery to one or more storage locations. Related aspects and methods are also described.

A transporter includes: a first conveyor to receive an object, the first conveyor to convey the object in a first direction; and a second conveyor to receive the object from the first conveyor and to convey the object, the second conveyor being movable in position in a second direction that crosses the first direction, the second direction being a substantially vertical direction.

An automated accumulator incorporates independently operated infeed and outfeed ramps. These ramps on an internal end provide access to a plurality of storage flights that define a stacked conveyor, allowing both the upstream and downstream portions of the production line to operate relatively independently of the other. On the external end, the ramps couple to prior art conveyor systems. The automated accumulator incorporates an electronic control system combining a Programmable Logic Controller (PLC) or equivalent and a plurality of sensors in combination with various motors to provide suitable automated operation, including First In First Out (FIFO) operation to preserve production sequence. In addition, various techniques may be used to selectively control operation of the automated accumulator, providing such functions as stopping infeed on a particular product, or providing linear bypass through the accumulator.

A packaging line for products, in particular food products, includes a conveyor belt having a longitudinal feed axis and carrying the products arranged in a plurality of rows orthogonal to the longitudinal feed axis, at least one packaging machine for the products, and at least one transfer device for transferring the products from the conveyor belt to the at least one packaging machine along a direction transverse to the longitudinal feed axis. The at least one transfer device has a linear motor having a closed-loop stator and a plurality of conveyor units independently movable along the closed-loop stator, each configured to receive at least one of the products.

According to one embodiment, a transporter includes a first conveyor and a second conveyor. The first conveyor receives an object that is carried by an arm device and conveys the object in a first direction. The second conveyor is configured to receive and convey the object from the first conveyor and is movable in a second direction that crosses the first direction.

The objective is to develop a conveying device and a conveyer device having high conveying efficiency and high reliability when an article is transferred to a conveyer line with different height. Branching units (8) of a lower-level side conveyer line (5) and an upper-level side conveyer line (6) are connected to an inclined connection conveyer line (10). The branching unit (8) has a sub conveying passage (53) for conveying an article (60) in the same direction as a conveying direction of the connection conveyer line (10). The sub conveying passage (53) has a lifting and lowering motor-incorporating roller (43) and cams (46a, 46b). When the lifting and lowering motor-incorporating roller (43) is driven, the cams (46a, 46b) rotate, and the sub conveying passage (53) is connected to the connection conveyer line (10) in an inclined attitude. As a result, the article (60) can move between the lower-level side conveyer line (5) and the upper-level side conveyer line (6) via the connection conveyer line (10).