A component supply device includes a storage section, a mounting section, and a component support section. The storage section stores multiple components. The storage section is mounted to the mounting section. The storage section is attachable and detachable in relation to the mounting section. The component support section supports, in a scattered state, multiple components which are discharged from an opening of the storage section which is in a state of being mounted to the mounting section.

The invention relates to a chute for articles, in particular packages and/or consignments, having a chute base for the article to slide down, having at least one storage installation, preferably assigned to the lower end of the chute, for the articles that have slid down along the chute base, wherein the storage installation is configured to be adjustable, in particular pivotable, from an upper receiving position for receiving the articles sliding down the chute into a lower discharging position for discharging the received articles, and back again.

A picking device for piece goods is disclosed, in which cleaning of the picking device is facilitated. The picking device may include a shelf row having shelf bases, each including a plurality of storage chutes, and a retrieving device, via which piece goods can be retrieved. A shelf base may include a frame structure, chute partitions, chute bases, and blocking devices, which are coupled to a control device. Two chute partitions and one chute base may define one elongate storage chute, assigned to each chute base is a support device, on which the chute base rests and which is designed such that another chute base can be slid between the resting chute base and the support device. Assigned to each chute base is a holding means, which prevents the chute base from sliding in the longitudinal direction of the storage chute when the chute base is on the support device.

A device and method for regulating pressure in a flock feed include a storage device disposed for receipt of fiber flocks, an exhaust air fan having a drive, and a controller in communication with the drive. A filling level measurement device and a pressure measurement device are provided in the storage device. The controller is configured to regulate the drive to achieve a target pressure as sensed by the pressure measurement device that is based on a filling level of the fiber flocks determined by the filling level measurement device.

A device and method for regulating pressure in a flock feed include a storage device disposed for receipt of fiber flocks, an exhaust air fan having a drive, and a controller in communication with the drive. A filling level measurement device and a pressure measurement device are provided in the storage device. The controller is configured to regulate the drive to achieve a target pressure as sensed by the pressure measurement device that is based on a filling level of the fiber flocks determined by the filling level measurement device.

A monitoring system includes a fastener. A sensor is coupled to the fastener. A circuit board is electrically coupled to the sensor. An antenna electrically coupled to the circuit board.

A monitoring system includes a fastener. A sensor is coupled to the fastener. A circuit board is electrically coupled to the sensor. An antenna electrically coupled to the circuit board.

A flow-through discharge assembly having a rotatable tube section and an opening through which product is discharged and a positioning apparatus for rotating the tube section between operation and non-operational conditions. When the tube is positioned in an operational orientation, grain exits through the opening for discharge from the assembly. When the tube is returned to a non-operational condition, the tube opening is blocked and grain is prevented from exiting through the opening. The tube opening may be a single elongated opening or may include multiple tube openings through which product is discharged. A method of using a rotary discharge assembly to control grain flow within a grain handling system is also disclosed.

A material handling hopper includes an integrally formed handling body that defines an inlet, an outlet, and an axis. The handling body has a seamless sidewall extending between the inlet and the outlet. The sidewall is circular in cross section in a plane perpendicular to the axis. The sidewall is curvilinear and defines a first height between an axial location of a first inner diameter and an axial location of a second inner diameter.

A combination weighing apparatus (1) according to an embodiment has a control unit (51) that performs combination calculation based on a plurality of weight values acquired by acquisition units (7.sub.1 to 7.sub.n) and discharges a combination of articles having a preset target weight value from hoppers (6.sub.1 to 6.sub.n); a discharge chute (9) that receives the articles discharged from the hoppers (6.sub.1 to 6.sub.n), has a conveyance surface (9B) having a plurality of openings (9D) smaller than the article, and discharges the articles downstream while sliding the articles on the conveyance surface (9B); and a moisture recovery mechanism (20) that is disposed below the openings in the discharge chute (9) and recovers moisture passing through the openings (9D) in the discharge chute (9) from an inside to an outside of the conveyance surface (90) and falling from the discharge chute (9).