Abstract: A harvesting machine includes a harvesting header with a header frame, a cutterbar assembly attached to the header frame along the length thereof and configured to cut a crop, and a draper assembly positioned behind the cutterbar assembly and operable to receive severed crop material from the cutterbar assembly. The draper assembly includes a center draper that delivers crop material to a feeder house of the harvesting machine and oppositely spaced side drapers that deliver crop material to the center draper. The harvesting header is operable to flex and thereby follow an uneven terrain. The draper assembly includes a draper belt carried by pivotable support arms. The cutterbar drive includes a forward gearbox drivingly connected to the cutterbar assembly and supported on an outer support arm.

Abstract: In an example embodiment a drawbar pin bore adapter includes a bushing sized to fit within a drawbar pin bore of a first size and a retainer to secure the bushing to the drawbar. The bushing may include a primary portion having an outer diameter configured for insertion into the drawbar pin bore, an inner diameter configured to receive a drawbar pin of a second diameter; and an extension portion configured to protrude from the drawbar bore and engage the retainer to secure at least a portion of the bushing within the drawbar pin bore.

Abstract: A harvesting machine includes a harvesting header with a header frame, a flexible cutterbar assembly shiftably mounted to the header frame, and a draper assembly supported on the header frame behind the cutterbar assembly to flex therewith. The draper assembly includes a pair of side drapers and a fore-and-aft draper located between the side drapers. The cutterbar assembly includes a relatively inflexible center section and relatively flexible side sections on opposite sides of the center section.

Abstract: A harvesting machine includes a harvesting header with a header frame, a cutterbar assembly attached to the header frame along the length thereof and configured to cut a crop, and a draper assembly positioned behind the cutterbar assembly and operable to receive severed crop material from the cutterbar assembly. The draper assembly includes a center draper that delivers crop material to a feeder house of the harvesting machine and oppositely spaced side drapers that deliver crop material to the center draper. The harvesting header is operable to flex and thereby follow an uneven terrain.

Abstract: A combine harvester and baler for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A collector coupled to a baler defining a target for receiving crop material projected toward the baler from a combine harvester. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: In an example embodiment, a continuous baler includes a round baler and an adjustable conveyor for providing crop to the round baler. The adjustable conveyor may include a conveyor belt and a controller for manipulating the conveyor belts. In one example embodiment, the speed of the conveyor is adjusted in accordance with the operation of the baler.

Abstract: In an example embodiment, a baler includes a variable speed baling chamber. The variable speed baling chamber may include a baling chamber and a variable speed drive. A method of baling crop material includes running a baling chamber at a first speed during a bale-forming cycle and running the baling chamber at a second speed during a non-bale-forming cycle, such as a bale wrapping cycle.

Abstract: In an example embodiment, a continuous baler includes a round baler and a pickup conveyor for providing crop to the round baler. The pickup conveyor may include a conveyor belt and a controller for manipulating the conveyor belts. In one example embodiment, the speed of the conveyor is adjusted in accordance with the operation of the baler.

Abstract: A pickup for a combine-towed baler. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A method of electronically sensing the fill of material in a stuffer chute and tripping a stuffer of a baler. A combine harvester and baler for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A deflector for deflecting crop material from a combine harvester for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A combine harvester and baler for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A tongue for towing a baler behind a combine harvester for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A chopper for a combine harvester for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A user interface with biomass deflection information for biomass collection. In one embodiment, crop material such as the residue or material other than grain (MOG) from the back of the combine is directly projected toward a target on a baler collection device. A tailboard with defection panels may be used to alter the direction of the crop residue from the combine. The tongue of the baler is configured to not obstruct the crop material as the crop material is projected toward the baler. One or more knives of a chopper coupled to the combine may be configured to optimally project MOG toward the baler. Also, the stuffer chute of the baler may be configured to facilitate the flow of crop material such as MOG and therefore minimize obstructions. The crop material is transferred from the combine to the baler without the use of a conveyor.

Abstract: A harvesting machine includes a harvesting header with a header frame, a cutterbar assembly attached to the header frame along the length thereof and configured to cut a crop, and a draper assembly positioned behind the cutterbar assembly. The draper assembly includes a center draper that delivers crop material to a feeder house of the harvesting machine and oppositely spaced side drapers that deliver crop material to the center draper. The center draper includes a draper frame swingably supported on the header frame at a pivot to project forwardly therefrom and a draper belt supported on the draper frame to present a rearwardly moving run for conveying the crop rearwardly. The center draper includes a counterbalance mechanism coupled between the header and draper frames to counteract the weight of the center draper about the pivot so as to reduce the load of the center draper on the cutterbar assembly.

Abstract: A harvesting machine includes a harvesting header with flexible cutterbar assembly sections, multiple arms supporting respective cutterbar assembly sections, and a header height sensing system including sensors and a pair of electrical comparator circuits. At least two sensors are provided for each cutterbar assembly section, with each sensor coupled to one of the support arms. The electrical comparator circuits each include sensor inputs in electrical communication with the sensors coupled to the respective cutterbar assembly section to receive arm position signals associated with each cutterbar assembly section.

Abstract: A self-propelled low-emission off-road vehicle has an internal combustion engine supported in an engine compartment and also includes a vehicle cooling assembly and an engine exhaust treatment device positioned in the compartment. The vehicle cooling assembly includes a powered fan and an enclosure with a heat exchanger operable to discharge heat produced by the vehicle. The enclosure presents an inlet, outlet, and air flow plenum, with the fan directing air flow along a path between the inlet and outlet. The exhaust treatment device is operable to treat engine exhaust flow. The exhaust treatment device is positioned at least partly in the air flow plenum and in the path between the inlet and outlet.

Abstract: A planter row unit has a pair of ground-engaging gauge wheels located in close proximity to opposite sides of a furrow opener of the unit. The depth of penetration of the furrow opener depends upon the vertical position of the gauge wheels relative to the furrow opener. Wheel arms that connect the gauge wheels to the frame of the row unit are operably coupled with a depth adjustment lever through a rigid link that transmits adjusting movement of the depth adjustment lever to the gauge wheels to raise or lower the same. The link is made adjustable in length to provide fine depth adjustment of the unit for calibration purposes or otherwise.