A hopper system for powder material includes a hopper and a cover. The hopper has hopper sidewalls that extend downward from an upper end of the hopper with at least one of the hopper sidewalls being sloped along a portion thereof. A hopper axis extends vertically between at least some of the hopper sidewalls. The cover is disposed at the upper end of the hopper and includes an opening configured for the powder material to flow therethrough and into the hopper. The opening defines a vertical material loading axis that is offset relative to the hopper axis. A diverter member may be provided that is positioned along the material loading axis and configured to divert the powder material entering through the opening. A powder material feed system may be disposed adjacent the lower end of the hopper to feed the powder material from the hopper.

Systems and methods are disclosed for sensing and analyzing filling of a grain cart while receiving grain from a combine. Time-of-flight sensors may be mounted on a grain spout (or nozzle) extending from the combine over the grain cart during operation. The sensors provide signals indicative of distances of surfaces of accumulating grain from the sensors, and these distances may be determined by onboard processing circuitry. A third sensor may detect a spout-to-ground distance to help compute the grain level information. Other parameters such as cross-sectional areas, volumes, and locations in the cart may be determined based on the sensed signals. Open or closed loop control of cart and/or combine positioning may be provided based on the signals.

A friction driven beltless grain spreader system is presented that includes a spreader cone having a pulley and a grain deflector configured to disperse the flow of grain. A motor having a driven wheel and an idler wheel are pivotally connected to the spreader cone in operative engagement with the pulley such that the idler wheel is positioned between the driven wheel and the pulley. A tension member applies a force that pulls the driven wheel and intermediary wheel into the pulley. As the motor rotates the driven wheel rotates the idler wheel which rotates the pulley. When forces spike, such as when the motor is turned on or a heavy flow of grain hits the system, one or more of the driven wheel, intermediary wheel and/or pulley slip with respect to the other wheels thereby preventing breakage of the system.

A loading head (1, 30) of a pneumatic loading system for the uniform introduction of bulk material (49) into the inner space of container sections (45), wherein the loading head (1, 30) is arranged on the free end of a loading tube (12, 73), the outlet connector (7) of which has an outlet opening (10) which is directed toward a distribution head (13, 43) for the lateral deflection of the bulk material into the container section (45), which has an approximately conical deflection surface (15), wherein the distribution head (13, 43) is fastened at least in the direction of the longitudinal extension (X direction) of the container section (45) so that it can be shifted and locked on the loading head (1, 30).

A disperser including: a main body; a rotating shaft disposed in the main body; a dispersion plate provided on the rotating shaft and disposed in a flow path of an object to be treated that is to be charged into the main body; and a receiving blade body including a plurality of receiving blades provided on the rotating shaft at an angle formed with a vertical direction, the angle being a first angle, the receiving blade body being disposed on an upstream side of the dispersion plate in the flow path, in which the receiving blade body receives horizontal directional force from the object to be treated that flows down, and rotates the dispersion plate via the rotating shaft, and the disperser is not mounted with a power source for rotating the dispersion plate.

A distribution head (20) of a gravimetric loading system for spreadable bulk materials with a rotatably driven spreader plate (40), which is composed of a bottom side base plate (53), which is connected in the central region with the one end of a drive shaft (21) and on which a number of blades (33-35) evenly distributed on the circumference and with their blade edges (52) approximately in a radially outward direction is arranged, wherein the blade edges (52) of blades (33-35) are interrupted in the direction of the central axial drive shaft (21) and thus a ring channel (43) extending in the axial direction and free from structures is formed, which channel forms an additional filling and receiving space for the bulk material to be distributed.

The invention relates to a filling device (1) for filling a container with a particulate material (28). The filling device (1) comprises a supply container (2) that can be filled with the particulate material (28), wherein the supply container (2) has a lower opening (2.2). Moreover, the filling device (1) comprises a radial distribution unit (3), which can be supplied with the particulate material via the lower opening (2.2) of the supply container (2) and which is connected to the supply container (2) in such a way that it can rotate about a rotational axis (A), in order to distribute in the container the particulate material (28) supplied from the supply container (2) to the distribution unit (3). The filling device is characterized in that the distribution unit (3) can be driven by a drive unit (4) that is arranged outside the supply container (2).

A commodity cart includes at least one storage tank and a transfer arm having a product chute, a tube portion coupled to the product chute. The tube portion ends in a product outlet. A hydraulic system is coupled to the transfer arm and configured to move the transfer arm to a product loading position wherein the product chute is positioned at a location on the ground. A controller is configured to determine a desired fill vehicle position and generate an indication of the desired fill vehicle position.

A method and apparatus to facilitate the loading of a grain bin such that the level in the grain bin increases generally uniformly and the distribution of grain size in the grain bin is generally uniform as well. The method includes redirecting the flow of the grain from the conveyer as it flows into the grain bin. In one embodiment, the apparatus includes an adjustable leveling band for redirecting the grain uniformly to a plurality of radially extending chutes. In one embodiment, the angle of the chutes can also be easily adjusted.

A trim chute for a loading apparatus for loading particulate material into a container, the trim chute being configured to be engaged with the loading apparatus to direct particulate material into the container, the trim chute being moveable with respect to the loading apparatus during loading, movement of the trim chute effecting a change in flow of the particulate material into the container.