A forage harvester is configured to chop harvested material and includes at least one conditioning unit for conditioning the chopped harvested material. The conditioning unit may transfer from its active position (in which operatively connected with other working units) to its passive position (in which the conditioning unit is released from the operational connection). In the passive position, the condition unit may be removed from the entirety of the forage harvester. The forage harvester further includes at least two track drives arranged on opposing ends of a front axle of the forage harvester. The forage harvester includes a free cross-section positioned on a removal side of the forage harvester through which the conditioning unit, in its passive position, can be removed laterally from the rest of the forage harvester, as well as removed above the track drive assigned to the removal side.

An impeller conditioner for an agricultural mowing machine includes a rotor, an attachment device located on the rotor, a tine device pivotally attached to the rotor between a first end and a second end of the tine device via the attachment device, and a positioning device located on one of the rotor and the attachment device. The positioning device include a tapered portion which restricts the tine device in a first position to have less lateral movement than the tine device in a second position. The first position can be an operational position and the second position can be a non-operational position.

A towed agricultural implement including a first headstock element for connection to a towing vehicle, a second headstock element supporting a chassis member provided with a plurality of working implements, a pivot pin for connecting the first headstock member and the second headstock member and defining a horizontal axis of rotation between the first headstock member and the second headstock member, in which the second headstock member has a lateral centre of gravity offset from the axis of rotation. A compensating structure is provided between the first headstock member and the second headstock member to offset the unbalanced loads caused by the lateral centre of gravity being offset from the axis of rotation.

The agricultural harvester comprises a header. The header includes a frame, a control shaft connected to the frame, a flex arm, a linkage assembly and a cutter bar connected to the flex arm. The linkage assembly is movable between a first position and a second position. The linkage assembly includes a first end pivotably connected to the control shaft and a second end connected to the flex arm.

Mower (1), has a plurality of mowing elements (2), forming a mower bar (3), a roller conditioner (4), behind the mower bar (3), and an upper conditioning roller (5) and a lower conditioning roller (6), the lower conditioning roller (6) is rotatable about a lower, positionally fixed axis of rotation (8), wherein the upper conditioning roller (5) is rotatable about an upper, shiftable axis of rotation (9) that, as a result of shifting the upper axis of rotation (9), a gap (7) between the conditioning rollers (5, 6) is changeable, wherein the lower conditioning roller (6) and the upper conditioning roller (5) are coupled to each other via a scissors-like transmission (10), and wherein first and second transmission parts (11,12) are coupled to the lower conditioning roller (6) and the upper conditioning roller (5) respectively and are operatively connected to each other and are shiftable in a scissors-like manner.

An agricultural machine system includes: a mower-conditioner machine including a mower-conditioner machine frame, a plurality of conditioner rolls coupled with the mower-conditioner machine frame, and a pivotable swath gate coupled with the mower-conditioner machine frame; a control system operatively coupled with the mower-conditioner machine frame, the control system including: a controller system configured for: determining a swath gate position adjustment based at least in part on a conditioner speed of the plurality of conditioner rolls.

In one embodiment, a skid plate comprising an upper surface and an opposing ground engaging surface, the ground engaging surface comprising one or more optical windows flush or extending beyond a plane of the ground engaging surface, each of the optical windows comprising an optically transparent material.

An agricultural harvester is disclosed. The agricultural harvester comprises a header. The header includes a frame, a control shaft connected to the frame, a flex arm, a linkage assembly and a cutter bar connected to the flex arm. The linkage assembly is movable between a first position and a second position. The linkage assembly includes a first end pivotably connected to the control shaft and a second end connected to the flex arm.

A forage harvester configured to chop harvested material and including at least one conditioning unit for conditioning the chopped harvested material is disclosed. The conditioning unit may transfer from its active position (in which operatively connected with other working units) to its passive position (in which the conditioning unit is released from the operational connection). In the passive position, the condition unit may be removed from the entirety of the forage harvester. The forage harvester further includes at least two track drives arranged on opposing ends of a front axle of the forage harvester. The forage harvester includes a free cross-section positioned on a removal side of the forage harvester through which the conditioning unit, in its passive position, can be removed laterally from the rest of the forage harvester, as well as removed above the track drive assigned to the removal side.

A header for an agricultural harvester including a skid shoe that is resistant to penetration into soil. The skid shoe includes a central portion having a fore end, an aft end, and first and second lateral sides extending between the fore and aft ends. At least a first upwardly directed surface extends from the first lateral side and defines a first soil deflecting surface configured to resist penetration of the skid shoe into soil. The header includes a chassis that experiences upwardly and radially directed applied loads during operation, including during turning of the header. The skid shoe is operable to receive such loads while effectively deflecting soil as the header traverses a field being harvested. As a result of the upwardly directed surface of the skid shoe, less damage is inflicted on the field and the crop growing therein.