The feeder device located at the centre section of a front of a harvester. The feeder device comprises one or more flights configured for improving operation of the feeder device. The feeder device comprises a shaft including a plurality of flights. They extend substantially along the entire length of the shaft and are arranged in a spaced apart relationship with respect to each other. In this manner, a threaded-like formation defined by the spaced apart arrangement of flights extends substantially along the entire length of the shaft of the feeder device.

An apparatus for filling sandbags includes a hollow housing tube, an auger, and a motor. The hollow housing tube includes an intake end, a curved central portion, and a discharge end. The hollow housing tube includes a discharge chute at the discharge end. The auger includes a shaft and flightings. The auger is at least partially disposed within the hollow housing tube. The auger includes a first end connected to a motor at the discharge end of hollow housing tube and a second end connected to a sand screw auger bit at the intake end of the housing tube. The auger includes a plurality of connected auger sections. A portion of the plurality of connected auger sections is disposed in the curved central portion of the hollow housing tube and is flexibly connected. The motor is operable to transmit rotational torque through an entire length of the auger.

An apparatus for filling sandbags includes a hollow housing tube, an auger, and a motor. The hollow housing tube includes an intake end, a curved central portion, and a discharge end. The hollow housing tube includes a discharge chute at the discharge end. The auger includes a shaft and flightings. The auger is at least partially disposed within the hollow housing tube. The auger includes a first end connected to a motor at the discharge end of hollow housing tube and a second end connected to a sand screw auger bit at the intake end of the housing tube. The auger includes a plurality of connected auger sections. A portion of the plurality of connected auger sections is disposed in the curved central portion of the hollow housing tube and is flexibly connected. The motor is operable to transmit rotational torque through an entire length of the auger.

A material placer includes conveyors on a frame for receiving material from a side dump trailer and conveying the material to a placing location. The conveyors can include a receiving conveyor for receiving material from the side dump trailer through an opening in a side of the placer, a funneling auger for funneling the material so it flows along a narrow flow path, a transfer conveyor for lifting the material after it is dumped from the side dump trailer, and/or a placing conveyor for placing the material at the placing location. The placing conveyor can be movable between a stowed position and a conveying position. A drive system for the conveyor may be located within a conveyor pulley to reduce the envelope of the material placer.

A mechanical discharger (a) combined with an extractor device (b) of the bulk product (c) stored in a silo bag (d), of the type comprising a winding tube (10) driven by rotation and which is mounted on support arms (11) hinged to a wheeled (2) frame (1) and wherein the product extractor device (b) is a continuous conveyor structure having a lower loading part (5) substantially horizontally and transversely positioned within the bag-silo (d). From the discharge end, the silo-bag wall (d) is cut with two lateral longitudinal cuts, being the wall divided into an upper part (d1) and a lower one (d2). The winding tube (10), draws by rotation and by the corresponding end the upper half portion (d1) of the silo bag (d). A second winding tube (20) is mounted underlying and parallel to the first tube (10) through support and positioning means (30) and though a mechanical transmission (40). The second winding tube (20) draws by rotation and by the same end, the lower half part (d2) of the silo bag (d). It is thus achieved that the extractor device (b) only draw the product (c) in good condition, while the lower layer of the spoiled product (cl), is drawn by the lower part (d2) of the bag wall and then discarded through the open end of the bag.

A mechanical discharger (a) combined with an extractor device (b) of the bulk product (c) stored in a silo bag (d), of the type comprising a winding tube (10) driven by rotation and which is mounted on support arms (11) hinged to a wheeled (2) frame (1) and wherein the product extractor device (b) is a continuous conveyor structure having a lower loading part (5) substantially horizontally and transversely positioned within the bag-silo (d). From the discharge end, the silo-bag wall (d) is cut with two lateral longitudinal cuts, being the wall divided into an upper part (d1) and a lower one (d2). The winding tube (10), draws by rotation and by the corresponding end the upper half portion (d1) of the silo bag (d). A second winding tube (20) is mounted underlying and parallel to the first tube (10) through support and positioning means (30) and though a mechanical transmission (40). The second winding tube (20) draws by rotation and by the same end, the lower half part (d2) of the silo bag (d). It is thus achieved that the extractor device (b) only draw the product (c) in good condition, while the lower layer of the spoiled product (cl), is drawn by the lower part (d2) of the bag wall and then discarded through the open end of the bag.

The invention relates to material handling apparatus comprising a collecting unit having a first auger, and a discharging unit having a second auger, the collecting unit being adapted for receiving a portion of the second auger, wherein the collecting unit comprises an opening providing access to the second auger permitting material collected by the collecting unit at the first location to be delivered into the discharging unit for conveying the material via the second auger to the second location. In a particular arrangement, the collecting unit comprises a feeding chamber located adjacent the opening and spaced apart from the opening defining spacing between the opening and the feeding chamber.

A bulk loader system is disclosed that may include a conveyor unit in connection with a fuel-powered engine powering a hydraulic motor. The hydraulic motor may be used to operate the conveyor unit. The system may be configured to function while being mounted on a bed of a truck or be operated as a stand-alone unit. The unit may be sized such that an operator can stand on the deck of the truck along with the unit. The fuel-hydraulic powered motor can enable the conveyor unit to operate at variable speeds. The conveyor unit can be adjustable to facilitate controlling the direction of the material being transported via the conveyor. Some embodiments can include operating the hydraulics of the motor from the Power Take-Off (PTO) of the truck. Some embodiments can facilitate operation of the system in a hot or other harsh environment.

An ozone treatment apparatus for grain uses first and second storage bins and an auger conveyor for conveying the grain from a first end in communication with the bottom of the first bin to a second end that can be directed into either one of the top of the first bin or the top of the second bin. An ozone injector injects ozone into the auger conveyor for mixing with and treating the conveyed grain. In a first mode, the conveyor discharges the grain from the second end of the conveyor through a first discharge outlet into the first storage bin to recycle the grain during treatment. In a second mode, the conveyor discharges the grain through a second discharge outlet into the second storage bin once treatment is complete.

An ozone treatment apparatus for grain uses first and second storage bins and an auger conveyor for conveying the grain from a first end in communication with the bottom of the first bin to a second end that can be directed into either one of the top of the first bin or the top of the second bin. An ozone injector injects ozone into the auger conveyor for mixing with and treating the conveyed grain. In a first mode, the conveyor discharges the grain from the second end of the conveyor through a first discharge outlet into the first storage bin to recycle the grain during treatment. In a second mode, the conveyor discharges the grain through a second discharge outlet into the second storage bin once treatment is complete.