The invention comprises a first and a second spiral sweeper. The first sweeper is laid down diagonally in front of the tractor and sweeps fruits away from the front of the tractor and directs them towards a second spiral sweeper also arranged diagonally so that both spiral sweepers form a V pattern which drives the fruits towards a low riding section of a conveyor belt which extends onto a rising section, which then drops the fruits into a bin. The apparatus is attached to a standard three-pint hitch at the rear of the tractor which provides the hydraulic power to drive the brushes and pistons, while a power take-off provides power for the conveyor and an optional blower. The apparatus is also attached by way of an attachment bracket to the front of the tractor.

The invention comprises a first and a second spiral sweeper. The first sweeper is laid down diagonally in front of the tractor and sweeps fruits away from the front of the tractor and directs them towards a second spiral sweeper also arranged diagonally so that both spiral sweepers form a V pattern which drives the fruits towards a low riding section of a conveyor belt which extends onto a rising section, which then drops the fruits into a bin. The apparatus is attached to a standard three-pint hitch at the rear of the tractor which provides the hydraulic power to drive the brushes and pistons, while a power take-off provides power for the conveyor and an optional blower. The apparatus is also attached by way of an attachment bracket to the front of the tractor.

This Application for a Patent of Invention refers to an implement intended for harvesting and/or gathering farm produce, that is used together with a self-propelled agricultural machine, more specifically a grain harvester, in order to provide driving power for its crop processing systems. The invention is noteworthy for the fact that a top roller (11) is positioned at the rear end of each conveyor belt (1) whereby, internally and concentrically thereto, the supports (9) move in a continuous rotating movement with the slats (10); the conveyor belt (1) has electronic means for adjusting the speeds of the machine and the belts, varying electronically between these magnitudes according to the proportionality parameter; in addition to also regulating the height of the conveyor belt (1B) through electronic means and a pivoting device (26); the set of conveyor belts (1) may also be articulated into a transportation position.

This Application for a Patent of Invention refers to an implement intended for harvesting and/or gathering farm produce, that is used together with a self-propelled agricultural machine, more specifically a grain harvester, in order to provide driving power for its crop processing systems. The invention is noteworthy for the fact that a top roller (11) is positioned at the rear end of each conveyor belt (1) whereby, internally and concentrically thereto, the supports (9) move in a continuous rotating movement with the slats (10); the conveyor belt (1) has electronic means for adjusting the speeds of the machine and the belts, varying electronically between these magnitudes according to the proportionality parameter; in addition to also regulating the height of the conveyor belt (1B) through electronic means and a pivoting device (26); the set of conveyor belts (1) may also be articulated into a transportation position.

A harvest vacuum assembly includes a vacuum motor coupled to a farming implement. The vacuum motor urges air inwardly through an intake and outwardly through an exhaust when the vacuum motor is turned on. A suction tube is removably coupled to the hydraulic lift on the front end of the farming implement. The suction tube has a suction aperture therein that is directed downwardly toward ground when the suction tube is coupled to the hydraulic lift. Moreover, the suction tube is in fluid communication with the vacuum motor such that the vacuum motor urges air inwardly through the suction aperture. Thus, the suction aperture sucks loose objects on the ground for collection. The exhaust on the vacuum is in fluid communication with a harvester is towed behind the farming implement to transfer the loose objects into the harvester for harvesting.

An agricultural motor vehicle designed to receive various agricultural implements, having a monoblock chassis assembled over 44 traction wheels, with a vibrating screen inside the lower portion of the chassis and a rotating cleaning set assembled lengthwise above the vibrating screen. The front section of the chassis has a concentrating guiding roller assembled crosswise upon it, with a hydraulic set for activation and transmission assembled above, the set serving as a support platform for a cockpit made accessible via a passageway and stairs. At the end of the rotating cleaning set is assembled a ventilation box with a motor power set is located on its rear side, and two pulling sets for residue outlet. A gutter for collecting clean grain is located at the end of the vibrating screen, the edges of the collecting gutter interconnected to cup elevators which lead into a dumper.

A device and method of use for a pecan picker which utilizes suction to pick up the pecans as well as a container body for storing the picked up pecans with at least one partition for separating the picked up pecans from extra extracted material obtained through the suction process. In one embodiment the device has a hose portion and a container body portion. The container body portion has a motor portion for providing suction for the device. In other embodiments the device also has a partition portion for separating the picked up pecans from extra extracted material obtained through the extraction or suction process. In another embodiment, the device also has a frame portion for moving the device.

A device and method of use for a pecan picker which utilizes suction to pick up the pecans as well as a container body for storing the picked up pecans with at least one partition for separating the picked up pecans from extra extracted material obtained through the suction process. In one embodiment the device has a hose portion and a container body portion. The container body portion has a motor portion for providing suction for the device. In other embodiments the device also has a partition portion for separating the picked up pecans from extra extracted material obtained through the extraction or suction process. In another embodiment, the device also has a frame portion for moving the device.

A self-propelled forage harvester is disclosed. The forage harvester includes a feed device, a chopping device comprising a cutterhead equipped with cutting blades and a shear bar for comminuting harvested material, a drive, and a driver assistance system for controlling at least the chopping device. The driver assistance system includes a memory for saving data and a computing device for processing the data saved in the memory, wherein the chopping device and the driver assistance system in combination form an automatic chopping system in that the computing device continuously determines a compaction of the comminuted harvested material using harvested material parameters during a harvesting process in order to autonomously ascertain and specify a cutting length to be adapted for maintaining nearly constant compactability.

A sugarcane harvester including a base cutter configured to cut sugarcane from a field and a feed roller chassis, disposed adjacently to the base cutter, configured to receive the cut sugarcane. A plurality of feed roller assemblies are supported by the feed roller chassis, wherein each of the plurality of feed roller assemblies includes a roller body defining a roller body cavity, a motor support located within the roller body cavity, the motor support defining a support cavity, and a bearingless hydraulic motor disposed within the support cavity. The bearingless hydraulic motor includes a spindle extending from the motor and through the support cavity. A spindle adapter is releasably coupled to the spindle and fixedly coupled to the roller body. A roller bearing, disposed within the support cavity, includes an inner surface in contact with the spindle adapter, wherein rotation of the spindle rotates the roller body while the bearingless motor remains stationary with respect to the motor support.