Disclosed is a transport device, an applicator and a method for transporting a tire component in a transport direction. The transport device includes at least three conveyors extending mutually parallel in the transport direction and side-by-side in a lateral direction perpendicular to the transport direction to form a combined conveying surface for conveying the tire component in the transport direction, wherein the at least three conveyors include an intermediate conveyor, a first side conveyor on a first side of the intermediate conveyor in the lateral direction and a second side conveyor on a second side of the intermediate conveyor in the lateral direction, opposite to the first side, wherein the intermediate conveyor, the first side conveyor and the second side conveyor are movable at different speeds with respect to each other in a direction parallel to the transport direction.

An apparatus for feeding or conveying grain includes (i) a conveyor for moving grain and having an input end and an output end, and (ii) a viscous clutch either directly or indirectly connected to the input end of the conveyor for transmitting torque from an input component to the conveyor in a variable manner. A method of feeding or conveying grain using the conveyor includes operating the viscous clutch to transmit torque from the input component to the conveyor.

A conveying device for conveying a sheet-like material of the present invention includes: a rail portion arranged in a loop shape; a plurality of travelers; a linear motor for circulating the travelers along the rail portion; and a pad attached to each of the travelers, wherein the pad circulates in at least one horizontal plane while holding the sheet-like material on the pad, thereby conveying the sheet-like material.

A method is disclosed for varying a spatial arrangement of randomly arranged, stacked or piled products, particularly to rearrange the products in a way that makes automated handling thereof possible. The method relies on a plurality of subsequent conveyors extending between a product input and a product output, wherein at least one of a conveyor speed a conveyor direction and a conveyor height of a conveyor of the plurality is offset from, respectively, the conveyor speed the conveyor direction, and the conveyor height of a subsequent conveyor in the plurality.

An ejector device is provided for food portions, and in particular for sausages. A food portion in a conveying area between two conveyor belts is engaged in a conveying mode and can be conveyed in the conveying direction. It is proposed that the ejector device has at least one adjustment mechanism for ejecting a food portion in an ejection area, which is so designed that the distance of the conveyor belts from each other in the conveying area can be partially varied. A method of ejecting food portions is also provided, in which it is proposed that the food portions be taken out of engagement with the conveyor belts as described above.

Various embodiments described herein relate to techniques for reinforcement learning based conveyoring control. In this regard, a conveyor system is configured to transport one or more objects via a conveyor belt. Furthermore, a vision system comprises one or more sensors configured to scan the one or more objects associated with the conveyor system. A processing device is configured to employ a machine learning model to determine object pose data associated with the one or more objects. The processing device is further configured to generate speed control data for the conveyor belt of the conveyor system based on a set of control policies associated with the object pose data.

A processing line includes a conveyor for conveying product from upstream processing equipment to downstream processing equipment. Data structures stored in a memory of a controller comprise a backlog set point for a product type to be processed. A product sensor for the conveyor is enabled to generate signals representative of a number of the products moving on the conveyor from the upstream processing equipment for delivery to the downstream processing equipment. A conveyor speed sensor for the conveyor is enabled to generate signals representative of a speed of the conveyor. A backlog measurement based upon the product sensor signals and the conveyor speed sensor signals is determined. The backlog measurement is compared to the backlog set point to determine a difference in backlog. The controller is enabled to generate signals for controlling the processing line based upon the difference in backlog and additional information related to the product type.

The present disclosure is directed to devices for manipulating meat pieces and methods therefore. In one form, a device comprises a chute, a conveyor, a backstop, and a paddle wheel. The chute is configured to hold pieces of a food product, and the conveyor is configured to receive pieces of the food product released from the chute. The first backstop is positioned above the conveyor and comprises a plate that is configured to align pieces of food product received at the conveyor into a single row. The paddle wheel is positioned above the conveyor downstream from the first backstop and is configured to manipulate the single row of pieces of food product traveling along the conveyor and cause only a single layer of pieces of food product to discharge from the conveyor.

In a case of changing the traveling speed of a transport vehicle, in order for the traveling speed of the transport vehicle to reach a target speed at a target position that is on a downstream side in the travel path relative to the current position of the transport vehicle, a control unit generates reference speed commands in accordance with a traveling speed time change pattern according to which the travel acceleration changes in a stepwise manner, generates a moving average command obtained using the moving average of the reference speed commands in a set period, and controls travel operations of a travel unit based on the moving average command.

A singulation conveyor is described. The singulation conveyor includes multiple rollers, for example, a first roller and a second roller. In some example embodiments, the first roller can be of a first roller cross-sectional profile and the second roller can be of a second roller cross-sectional profile. The first roller cross-sectional profile can be defined by a sleeve mounted around a circumference of the first roller and a dowel positioned between the sleeve and the first roller. Further, in some examples, the first roller cross-sectional profile can be different from the second roller cross-sectional profile. Furthermore, according to some examples, the first roller and the second roller can be configured to be rotated based on a first rotation pattern and a second rotation pattern respectively, to cause singulation of a shingled item.