A pallet feeder assembly for use with a concrete products machine of a type supporting a mold box within a production zone comprises a conveyor having a load/unload expanse configured to be disposed below the production zone, an upstream staging expanse upstream, and upstream and downstream ends. A plurality of sensors operative to detect a presence of a pallet on the conveyor are disposed along a length of the conveyor and include sensors disposed upstream and downstream of the load/unload expanse. Transport means on the conveyor move a pallet loaded on the transport means between the upstream and downstream ends of the conveyor. An open portion within the load/unload expanse is configured to admit a lifting means for raising the pallet from the transport means up into the production zone against an underside of a mold box during a production cycle of a concrete products machine.

A pallet feeder assembly for use with a concrete products machine of a type supporting a mold box within a production zone comprises a conveyor having a load/unload expanse configured to be disposed below the production zone, an upstream staging expanse upstream, and upstream and downstream ends. A plurality of sensors operative to detect a presence of a pallet on the conveyor are disposed along a length of the conveyor and include sensors disposed upstream and downstream of the load/unload expanse. Transport means on the conveyor move a pallet loaded on the transport means between the upstream and downstream ends of the conveyor. An open portion within the load/unload expanse is configured to admit a lifting means for raising the pallet from the transport means up into the production zone against an underside of a mold box during a production cycle of a concrete products machine.

In a transport method for transferring workpieces between a plurality of successive stations of a processing device, especially a forming device, workpieces are in each case transported from one station to the respective next station of the processing device simultaneously by means of a plurality of gripping tools which are movable jointly in a transport cycle. In the event of a process disturbance, the transport cycle is suspended and the gripping tools with the workpieces are moved into a waiting position in which the workpieces are outside the operating range of processing tools of the stations of the processing device. Once the process disturbance has been eliminated, the transport cycle of the workpieces is resumed. By virtue of the movement of the gripping tools into a safe waiting position outside the operating range of the processing tools of the stations, consequent damage resulting from the process disturbance can be prevented.

An article conveying equipment includes: a carrying apparatus, configured to carry one or more articles to be transported; a travelling apparatus, where the travelling apparatus includes at least two driving wheels located at the bottom of the travelling apparatus, the at least two driving wheels are configured to control the travelling apparatus to rotate in a first rotation direction; and a rotation supporting apparatus, which is located between the carrying apparatus and the travelling apparatus and connected to the carrying apparatus and the travelling apparatus respectively, where the rotation supporting apparatus is configured to rotate in a direction opposite to the first rotation direction when the travelling apparatus rotates in the first rotation direction.

An article conveying equipment includes: a carrying apparatus, configured to carry one or more articles to be transported; a travelling apparatus, where the travelling apparatus includes at least two driving wheels located at the bottom of the travelling apparatus, the at least two driving wheels are configured to control the travelling apparatus to rotate in a first rotation direction; and a rotation supporting apparatus, which is located between the carrying apparatus and the travelling apparatus and connected to the carrying apparatus and the travelling apparatus respectively, where the rotation supporting apparatus is configured to rotate in a direction opposite to the first rotation direction when the travelling apparatus rotates in the first rotation direction.

Some examples described herein include a flexible hopper for a conveyor system. The flexible hopper may include a hopper weldment attached to a frame of the conveyor, wherein the hopper weldment surrounds a charge end of the conveyor, a flexible connector that is attached to the hopper weldment and configured to enable an opening of the flexible hopper to expand or contract, and a flexible skirt that is folded over the flexible connector. The flexible skirt may include a plurality of flexible strips configured to form an enclosure between the flexible connector and the hopper weldment.

Some examples described herein include a flexible hopper for a conveyor system. The flexible hopper may include a hopper weldment attached to a frame of the conveyor, wherein the hopper weldment surrounds a charge end of the conveyor, a flexible connector that is attached to the hopper weldment and configured to enable an opening of the flexible hopper to expand or contract, and a flexible skirt that is folded over the flexible connector. The flexible skirt may include a plurality of flexible strips configured to form an enclosure between the flexible connector and the hopper weldment.

A transport apparatus is for conveying a shoe sole, and includes a rail unit divided into process and bridge regions, a delivery device and a transfer device. The delivery device is movable in the process and the bridge regions, and includes a conveyor belt for carrying the shoe sole and to move the shoe sole on the rail unit. The transfer device is located adjacent to the bridge region, and includes a transfer roller assembly and a transfer belt, which surrounds the transfer roller assembly and is drivable by the same for carrying the shoe sole. When the delivery device is in the bridge region, the conveyor belt is adjacent to the transfer belt, and is operable to convey the shoe sole onto the transfer belt.

A continuous quantitative spraying structure for sterilization of harvested fruits is provided. The continuous quantitative spraying structure includes a track provided thereon with equally spaced trays for conveying fruits, where the trays each include a circular tray body; a central part of the tray body is provided with a central hole allowing the fruit to fall off, a bottom part of the central hole is provided with two parallel rollers; an inner bottom surface of the tray body is provided with a flap; an inner end of a central shaft of the roller passes through the flap, and is fixed to a rolling wheel; a bearing is provided between the roller and the flap; the track is provided with a spraying sterilization section; the spraying sterilization section is sequentially provided with 3 to 4 sets of sterilization nozzles above a tray conveying route.

A material handling device (1), including: a conveying mechanism (10), the conveying mechanism comprising a first conveying platform (11) and a second conveying platform (12) that are coplanar and arranged side by side, the first conveying platform being provided with a feeding position (101), the second conveying platform being provided with a discharging position (102), the conveying speed of the second conveying platform being greater than the conveying speed of the first conveying platform; and a screening mechanism provided between the feeding position and the discharging position. The material handling device provided in the present application conveys workpieces by means of the first conveying platform and second conveying platform that are coplanar and arranged side by side.