Abstract: An agricultural system includes: a frame; a control system operatively coupled with the frame, the control system including: at least one sensor configured for: detecting remotely at least one operative condition of a bale of a crop material after the bale has been ejected from a bale chamber of a baler; outputting at least one operative condition signal corresponding to the at least one operative condition; a controller system operatively coupled with the at least one sensor and configured for: receiving the at least one operative condition signal; determining at least one operative parameter based at least in part on the at least one operative condition signal, the at least one operative parameter being associated with a performance of the baler.

Abstract: An agricultural mower system includes: a towing vehicle having a tongue coupler and defining a towing centerline; a mower with a frame carrying cutters and pivotably coupled to a tongue pivotably coupled to the tongue coupler so the mower is on a first side of the towing centerline and defining a towing angle with respect to the towing centerline; a tongue actuator coupled to the tongue to pivot the tongue; a towing angle sensor associated with the tongue that outputs a towing angle signal; and a controller configured to: determine the towing vehicle has initiated an end-of-row turning operation; and output an adjustment signal to the tongue actuator responsively to determining the end-of-row turning operation has initiated so the tongue actuator moves the tongue such that the mower defines the towing angle on a second side of the towing centerline by a conclusion of the end-of-row turning operation.

Abstract: A combine (20) harvester includes a cage (32?) at least partially surrounding a rotor (28?) for threshing crops in the space (34) between the cage (321) and the rotor (28?). An auger (302) is at least partially positioned within the cage (32?) and is connected to the rotor (28) for rotating therewith. The auger (302) includes vanes (312) for transporting crop from the rotor (28?) and towards an outlet of the cage (32?). A chopper (320) is positioned either at or adjacent the outlet (310) of the cage (32?). A rotational axis (30) of the chopper (320) is substantially aligned with an axis of rotation of the auger (302) and the rotor (28).

Abstract: A vehicle includes a frame, a tractive element coupled to the frame, a prime mover coupled to the frame and configured to drive the tractive element to propel the vehicle, and a silage compactor. The silage compactor includes a wheel rotatably coupled to the frame and positioned to engage silage positioned below the frame, a vibrator coupled to the wheel and configured to cause the wheel to vibrate, and a controller configured to control the vibrator to vibrate the wheel while the wheel is in contact with the silage to compress the silage.

Abstract: A feeder unit for an agricultural baler includes: a first rotor including a plurality of first extensions extending therefrom, the first rotor being configured to rotate about a first axis of rotation at a first rotation speed; and a second rotor arranged in parallel with the first rotor relative to the axis of rotation and including a plurality of second extensions extending therefrom that intermesh with the plurality of first extensions, the second rotor being configured to rotate about a second axis of rotation at a second rotation speed that is different from the first rotation speed.

Abstract: A pickup unit of an agricultural baler that includes a frame, at least one draper belt, at least one belt actuator operably connected to the at least one draper belt, a first auger and a second auger each being rotatably connected to the frame and located above the at least one draper belt, and a first and a second auger actuator respectively operably connected to the first and second auger. The pickup unit also includes an electrical processing circuit operably connected to and configured for adjusting the at least one belt actuator, the first auger actuator, and the second auger actuator so that a rotational speed of the at least one draper belt, the first auger, and/or the second auger is increased or decreased to evenly distribute the crop material as the crop material is transported to the bale chamber.

Abstract: A pickup unit of an agricultural baler that includes a frame, at least one draper belt, at least one belt actuator operably connected to the at least one draper belt, a first auger and a second auger each being rotatably connected to the frame and located above the at least one draper belt, and a first and a second auger actuator respectively operably connected to the first and second auger. The pickup unit also includes an electrical processing circuit operably connected to and configured for adjusting the at least one belt actuator, the first auger actuator, and the second auger actuator so that a rotational speed of the at least one draper belt, the first auger, and/or the second auger is increased or decreased to evenly distribute the crop material as the crop material is transported to the bale chamber.

Abstract: A pickup unit of an agricultural baler that includes a frame, at least one draper belt, at least one belt actuator operably connected to the at least one draper belt, a first auger and a second auger each being rotatably connected to the frame and located above the at least one draper belt, and a first and a second auger actuator respectively operably connected to the first and second auger. The pickup unit also includes an electrical processing circuit operably connected to and configured for adjusting the at least one belt actuator, the first auger actuator, and the second auger actuator so that a rotational speed of the at least one draper belt, the first auger, and/or the second auger is increased or decreased to evenly distribute the crop material as the crop material is transported to the bale chamber.

Abstract: A feeder unit for an agricultural baler includes: a first rotor including a plurality of first extensions extending therefrom, the first rotor being configured to rotate about a first axis of rotation at a first rotation speed; and a second rotor arranged in parallel with the first rotor relative to the axis of rotation and comprising a plurality of second extensions extending therefrom that intermesh with the plurality of first extensions, the second rotor being configured to rotate about a second axis of rotation at a second rotation speed that is different from the first rotation speed.

Abstract: In one aspect, an air intake system for supplying air to an engine of a work vehicle may include a cooler box having a first wall and a second wall, with the first and second walls at least partially defining a chamber within the cooler box. The air intake system may also include a screen defining at least a portion of the first wall of the cooler box. Furthermore, the air intake system may include an air filter assembly defining at least a portion of the second wall of the cooler box. The air filter assembly may be configured to remove particles present in the air exiting the chamber of the cooler box through the air filter assembly. The air exiting the cooler box through the air filter assembly may be supplied to the engine for combustion.

Abstract: In one aspect, an air intake system for supplying air to an engine of a work vehicle may include a cooler box having a first wall and a second wall, with the first and second walls at least partially defining a chamber within the cooler box. The air intake system may also include a screen defining at least a portion of the first wall of the cooler box. Furthermore, the air intake system may include an air filter assembly defining at least a portion of the second wall of the cooler box. The air filter assembly may be configured to remove particles present in the air exiting the chamber of the cooler box through the air filter assembly. The air exiting the cooler box through the air filter assembly may be supplied to the engine for combustion.

Abstract: A system and method for conveying agricultural material in a harvester. One harvester includes a rotor which rotates to separate a plant into a first agricultural material and a second agricultural material. A grate is disposed vertically below the rotor and further separates the first and second agricultural materials from one another. A first conveyor receives the first and second agricultural material directly from a trailing end of the rotor and a trailing end of the grate.

Abstract: A system and method for conveying agricultural material in a harvester. One harvester includes a rotor which rotates to separate a plant into a first agricultural material and a second agricultural material. A grate is disposed vertically below the rotor and further separates the first and second agricultural materials from one another. A first conveyor receives the first and second agricultural material directly from a trailing end of the rotor and a trailing end of the grate.

Abstract: A system and method for conveying agricultural material in a harvester. One harvester includes a rotor which rotates to separate a plant into a first agricultural material and a second agricultural material. A grate is disposed vertically below the rotor and further separates the first and second agricultural materials from one another. A first conveyor receives the first and second agricultural material directly from a trailing end of the rotor and a trailing end of the grate.

Abstract: A harvester including, a spreader system configured to distribute an agricultural material onto a field, wherein the spreader system is configured to receive the agricultural material from a chopper, wherein the spreader system comprises a first panel or vane positioned on a first lateral side of the spreader system, and a second panel or vane positioned on a second lateral side of the spreader system, opposite the first lateral side, and wherein the spreader system is configured to detect a first force applied to the first panel or vane and a second force applied to the second panel or vane, and to adjust a position of the spreader system with respect to the chopper based on the first force, the second force, or a combination thereof.

Abstract: A harvester including, a spreader system configured to distribute an agricultural material onto a field, wherein the spreader system is configured to receive the agricultural material from a chopper, wherein the spreader system comprises a first panel or vane positioned on a first lateral side of the spreader system, and a second panel or vane positioned on a second lateral side of the spreader system, opposite the first lateral side, and wherein the spreader system is configured to detect a first force applied to the first panel or vane and a second force applied to the second panel or vane, and to adjust a position of the spreader system with respect to the chopper based on the first force, the second force, or a combination thereof.

Abstract: A system and method for conveying agricultural material in a harvester. One harvester includes a rotor which rotates to separate a plant into a first agricultural material and a second agricultural material. A grate is disposed vertically below the rotor and further separates the first and second agricultural materials from one another. A first conveyor receives the first and second agricultural material directly from a trailing end of the rotor and a trailing end of the grate.

Abstract: An unloading system for an agricultural harvesting machine for reducing grain loss by detaining a grain saver door after movement to a fully open position during the unloading process, and by rapidly returning the door to a closed position with sufficient force for urging grain in the door area back into an unloading tube a predetermined time after the unloading process pauses or ceases. The system can advantageously detain the door in the open position in the presence of varying or reduced amounts of grain for increasing consistency and cohesiveness in the flow discharging grain and reduce the amount of grain remaining near a discharge end of the unloading tube when the door is in the closed position.

Abstract: An unloading system for an agricultural harvesting machine for reducing grain loss by detaining a grain saver door after movement to a fully open position during the unloading process, and by rapidly returning the door to a closed position with sufficient force for urging grain in the door area back into an unloading tube a predetermined time after the unloading process pauses or ceases. The system can advantageously detain the door in the open position in the presence of varying or reduced amounts of grain for increasing consistency and cohesiveness in the flow discharging grain and reduce the amount of grain remaining near a discharge end of the unloading tube when the door is in the closed position.

Abstract: An apparatus for attachment to a vehicle for sensing the organic matter content of soil at a soil scene as it is moved through the soil by the vehicle has a probe including a housing, a light source and a light sensor. The light sensor senses the light reflected from the soil scene and produces an output signal which is related to the organic matter content of the soil at the soil scene. The housing is attached to the vehicle so that as it is moved through the soil the soil scene that is observed by the light sensor is beneath the surface of the surrounding soil and the housing shields the soil scene from ambient light. The apparatus also includes a processor which processes the signal from the light sensor using data predetermined from a particular landscape which includes the soil to be sensed.