Disclosed are a method and apparatus for setting an object conveying speed, relating to the technical field of computers. The method comprises: acquiring historical feature data of an object within multiple predefined time periods, and constructing a conveying speed level model, which indicates a corresponding relationship between the historical feature data and a conveying speed level, and which further includes a feature index that indicates the conveying speed level (S101); acquiring feature data of an object to be conveyed, and determining, by using the conveying speed level model, the conveying speed level of the object to be conveyed (S102); and determining the conveying speed of the object to be conveyed according to the conveying speed level (S103).

Disclosed are a method and apparatus for setting an object conveying speed, relating to the technical field of computers. The method comprises: acquiring historical feature data of an object within multiple predefined time periods, and constructing a conveying speed level model, which indicates a corresponding relationship between the historical feature data and a conveying speed level, and which further includes a feature index that indicates the conveying speed level (S101); acquiring feature data of an object to be conveyed, and determining, by using the conveying speed level model, the conveying speed level of the object to be conveyed (S102); and determining the conveying speed of the object to be conveyed according to the conveying speed level (S103).

In order to be able to reduce the number of required drive units in a multi-track slicing machine, in particular a multi-track slicer, for slicing a plurality of calibers simultaneously into slices, according to the invention second driven product guides for the, in particular all, tracks can only be driven together and have a freewheel unit acting in the feeding direction of the calibers.

In order to be able to reduce the number of required drive units in a multi-track slicing machine, in particular a multi-track slicer, for slicing a plurality of calibers simultaneously into slices, according to the invention second driven product guides for the, in particular all, tracks can only be driven together and have a freewheel unit acting in the feeding direction of the calibers.

A standardized modular drive assembly includes: a gear unit module, which includes a gear unit mounted on a gear unit base plate, the gear unit having an output shaft which is adapted to be coupled with a conveyor device pulley shaft; and a motor module, which includes an electric motor mounted on a motor base plate, the motor base plate being able to be joined and connected to the gear unit base plate in an exchangeable manner, and the motor module having a torque link which is adapted to be coupled with a conveyor device support structure.

A standardized modular drive assembly includes: a gear unit module, which includes a gear unit mounted on a gear unit base plate, the gear unit having an output shaft which is adapted to be coupled with a conveyor device pulley shaft; and a motor module, which includes an electric motor mounted on a motor base plate, the motor base plate being able to be joined and connected to the gear unit base plate in an exchangeable manner, and the motor module having a torque link which is adapted to be coupled with a conveyor device support structure.

An accumulation device (100) for placement within a stream of articles upstream of an independent article handling device, including an infeed conveyor (102) for receiving articles and an outfeed conveyor (104) for returning articles. A transfer device (108) movable along the infeed conveyor (102) and the outfeed conveyor (104) is included. Each of an infeed drive (110) and an outfeed drive (112) drives the conveyors. A speed of the outfeed drive (112) is controlled at least in part by the independent article handling device; an infeed sensor (114) detects an article flow rate upstream of the infeed conveyor and generates an infeed signal based on the article flow rate. A controller (16) is included for controlling a speed of the infeed drive (110) based at least in part on the infeed signal.

An accumulation device (100) for placement within a stream of articles upstream of an independent article handling device, including an infeed conveyor (102) for receiving articles and an outfeed conveyor (104) for returning articles. A transfer device (108) movable along the infeed conveyor (102) and the outfeed conveyor (104) is included. Each of an infeed drive (110) and an outfeed drive (112) drives the conveyors. A speed of the outfeed drive (112) is controlled at least in part by the independent article handling device; an infeed sensor (114) detects an article flow rate upstream of the infeed conveyor and generates an infeed signal based on the article flow rate. A controller (16) is included for controlling a speed of the infeed drive (110) based at least in part on the infeed signal.

A conveying system for shock-sensitive items, in particular eggs, is provided and comprises a plurality of conveying devices in which items are transferred from one conveying device to another. In particular, the conveying system comprises a motion transmission assembly which ensures synchronism between the advancement of a first conveying device and the advancement of a second conveying device.

A conveying system for shock-sensitive items, in particular eggs, is provided and comprises a plurality of conveying devices in which items are transferred from one conveying device to another. In particular, the conveying system comprises a motion transmission assembly which ensures synchronism between the advancement of a first conveying device and the advancement of a second conveying device.