A rotary tablet press, having a rotor, which is driveable about a vertical axis of rotation and has a die plate with die bores for producing tablets inside the die bores by means of punch pairs, having at least one filling station, having at least one pressing station, and having at least one tablet outlet for removing the produced tablets out of the rotary tablet press, with which is associated a discharging device, by way of which tablets, in dependence on a control signal, can be supplied as single tablets to a first channel or as a tablet stream to a second channel in the tablet outlet. In order to enable increased production output with improved adherence to the demands on the tablets, a weighing device with a weighing cell is incorporated into the tablet outlet, tablets from the first channel being suppliable to the weighing device by means of a supply channel.

A checkweighing device, checkweighing systems employing one or more checkweighing devices, and methods of operation thereof. The checkweighing devices are designed for installation between parallel, spaced apart and vertically offset infeed and outfeed conveyors. Each checkweighing device includes a weighing cell with a weighing platform; a slide chute and at least one sorting gate for directing items either to the outfeed conveyor or to a discard receiver; and a power-actuated rake for sweeping incoming items from the infeed conveyor to the weighing platform, and sweeping weighed items from the weighing platform to the slide chute. While in no way limited to such a use, exemplary checkweighing device, system and method embodiments are well-suited for automatically checking the individual weights of small articles of high value, and/or other items that need to be weighed with high accuracy.

A checkweighing device, checkweighing systems employing one or more checkweighing devices, and methods of operation thereof. The checkweighing devices are designed for installation between parallel, spaced apart and vertically offset infeed and outfeed conveyors. Each checkweighing device includes a weighing cell with a weighing platform; a slide chute and at least one sorting gate for directing items either to the outfeed conveyor or to a discard receiver; and a power-actuated rake for sweeping incoming items from the infeed conveyor to the weighing platform, and sweeping weighed items from the weighing platform to the slide chute. While in no way limited to such a use, exemplary checkweighing device, system and method embodiments are well-suited for automatically checking the individual weights of small articles of high value, and/or other items that need to be weighed with high accuracy.

A filament coiling device is provided. The filament coiling device includes: an automatic winding mechanism configured to drive a filament reel to rotate; an automatic filament arranging mechanism disposed opposite to the automatic winding mechanism and configured to automatically thread a front end of a filament into a bottom hole of the filament reel and guide the filament to be wound around the filament reel in a preset filament arranging manner; an automatic tail filament cutting and fixing mechanism disposed on the automatic winding mechanism and configured to cut off a tail end of the filament that has been wound and fix the tail end of the filament to the filament reel; and an automatic loading and unloading mechanism configured to convey and mount a filament reel not wound with a filament to the automatic winding mechanism and transfer the filament reel wound with a filament for storage.

There is provided an article inspection verification system provided in an article inspection line including a plurality of article inspection devices that determine whether an inspection target article is a non-defective product or a defective product. The article inspection verification system includes physical effect generators that generate a physical effect that causes the inspection target article to be determined to be the defective product while the inspection target article passes through inspection sections corresponding each of article inspection devices, and a physical effect control unit that stores generation conditions of the physical effect by the physical effect generators and drives the physical effect generators in accordance with the generation conditions during an operation of the article inspection line.

There is provided an article inspection verification system provided in an article inspection line including a plurality of article inspection devices that determine whether an inspection target article is a non-defective product or a defective product. The article inspection verification system includes physical effect generators that generate a physical effect that causes the inspection target article to be determined to be the defective product while the inspection target article passes through inspection sections corresponding each of article inspection devices, and a physical effect control unit that stores generation conditions of the physical effect by the physical effect generators and drives the physical effect generators in accordance with the generation conditions during an operation of the article inspection line.

A method for batching articles constituted by solid food products having a first property and a first quantity. The first property may be lean degree and the first quantity may be weight. The method provides a conveyor system and a batcher having a plurality of batcher heads such that articles within the batcher heads may be selected and batched according to a first target range of the first property and a first target interval of the first quantity. The method may ensure that different grades of the first property may not contaminate each other.

A method for batching articles constituted by solid food products having a first property and a first quantity. The first property may be lean degree and the first quantity may be weight. The method provides a conveyor system and a batcher having a plurality of batcher heads such that articles within the batcher heads may be selected and batched according to a first target range of the first property and a first target interval of the first quantity. The method may ensure that different grades of the first property may not contaminate each other.

Techniques for a multi-check in-line container inspection system are provided herein. In an example, a computer system determines, during movement of a container in a scanning tunnel, first sensor data generated by a first sensor attached to a frame that forms the scanning tunnel. The movement is caused by material handling equipment. The computer system determines, during the movement of the container in the scanning tunnel, second sensor data generated by a second sensor attached to the frame. The computer system performs a first container integrity check based on the first sensor data and a second container integrity check based on the second sensor data. The computer system causes a corrective action to be initiated based on at least one of the first container integrity check or the second container integrity check indicating a container defect.

Techniques for a multi-check in-line container inspection system are provided herein. In an example, a computer system determines, during movement of a container in a scanning tunnel, first sensor data generated by a first sensor attached to a frame that forms the scanning tunnel. The movement is caused by material handling equipment. The computer system determines, during the movement of the container in the scanning tunnel, second sensor data generated by a second sensor attached to the frame. The computer system performs a first container integrity check based on the first sensor data and a second container integrity check based on the second sensor data. The computer system causes a corrective action to be initiated based on at least one of the first container integrity check or the second container integrity check indicating a container defect.