An agricultural machine includes a hitching support, at least one tool or group of tools, at least one support arm which is connected to the hitching support by a first joint and to the tool or tool group, and which is mounted so as to pivot about a transfer axis between operational and raised positions, and a safety device making it possible to carry out a safety movement under the effect of pressure. The safety device includes a lift connected to the hitching support by a second joint. The second joint is offset relative to the first joint in the direction of travel. The safety movement can include a second movement phase during which the lift is able to move the tool or the group of tools away from the ground.

A feedback assembly for a harvester includes a chassis, at least one rod coupled to the chassis, and at least one tine rotatably coupled to the at least one rod. The at least one tine defines an elongated body including a linear section extending from the at least one rod, and an angled section extending at an angle from the linear section. The at least one tine configured to hang substantially perpendicularly relative to a direction of travel of the harvester when in a non-actuated position and configured to rotate away from the direction of travel of the harvester when in an actuated position.

An agricultural vehicle includes a chassis, a header carried by the chassis, an operator cab carried by the chassis, wheels carried by the chassis, at least one wheel driver coupled to at least one of the wheels and configured to drive the at least one coupled wheel at a wheel drive speed, a control handle placed in the operator cab that is displaceable from a zero speed position to a maximum speed position, and a controller operably coupled to the at least one wheel driver. The controller is configured to receive a header type signal indicating a header type of the header and output a resolution signal to the at least one wheel driver to define the maximum speed amount based at least partially on the received header type signal.

A harvesting header has a set of centrally disposed conditioner rolls comprising conditioning structure to condition crop and a rotary cutter bed. The rotary cutter bed has a plurality of rotary cutters extending across the path of travel of the header to define a cutting plane, each cutter being rotatable about an upright axis, the conditioner rolls being behind the cutter bed to condition crop cut by the rotary cutter bed. The header has a crop-directing header windguard configured to direct the crop down towards the conditioning rolls after the plurality of cutters have severed the crop, the header windguard extending in a rearwardly direction from a position forward of the cutter bed to a position proximate the conditioner rolls, and the header windguard extending transversely at least a width of the rotary cutter bed.

A mower deck insert includes a first cutting chamber, a second cutting chamber, and a discharge passage extending adjacent to the first cutting chamber and the second cutting chamber. The first cutting chamber includes a first axial scroll extending about a first vertical axis. The first axial scroll includes a first upper surface having a first start region and a first end region. The second cutting chamber includes a second axial scroll extending about a second vertical axis. The second axial scroll includes a second upper surface having a second start region and a second end region. The first start region is vertically lower than the first end region, and the second start region is vertically lower than the second end region.

A system having a frame, an auger operably coupled to the frame, an auger wrapper fixed to the frame and proximal to the auger, the auger wrapper having a curved surface with a first rigidity, and a liner attached to the auger wrapper, the liner comprising a second rigidity that is less rigid than the first rigidity.

A crop harvesting machine configured to move cut crop positively across a cutterbar and toward a conditioner element using an undershot rotating element or undershot auger. The crop harvesting machine includes a cutterbar having a plurality of rotary cutters having rotational axis aligned along a line transverse to a moving direction of the crop harvesting machine. The undershot rotating element is subtended by portions of the rotary cutters and is located between rotational axis lines of the rotating cutters and an exit of the crop harvesting machine. The undershot rotating element moves cut crop between the undershot rotating element and the plurality of rotary cutters and to a conditioner element which conditions the cut crop for placement of the conditioned cut crop in swaths on a field.

A rotary cutting implement includes a housing that extends along a longitudinal axis. The rotary cutting implement also includes an annular wall coupled to the housing to define a cutting chamber having a width defined from a first sidewall to a second sidewall. The annular wall includes a distribution deflector having a body that extends along an axis substantially transverse to the longitudinal axis to form the second sidewall of the cutting chamber. The distribution deflector distributes cut residue over substantially the width of the cutting chamber.

A rotary cutter unit (6) for an agricultural mower (2) comprises a housing (14) that carries a rotary bearing (18) having an axis of rotation (X), and a rotor assembly (20) that is supported by the bearing for rotation relative to the housing about the axis of rotation. The rotor assembly includes a shaft (24) that extends through the bearing, a drive input element (28) at an input end of the shaft for transmitting rotary drive to the shaft and a drive output element (32) at an output end (22) of the shaft to receive rotary drive from the shaft. A frangible element (40) comprising a weakened portion of the shaft (24) is provided between the drive input element and the drive output element, which is configured to break when subjected to an excessive load so as to interrupt the transmission of rotary drive between the drive input element and the drive output element. A retention mechanism (44) is provided, which prevents separation of the drive output element from the housing when the frangible element breaks but permits rotation of the drive output element relative to the housing. The retention mechanism includes a retention element (46, 48) that extends substantially radially between the drive output element (32) and the housing (14) to restrict axial movement between the drive output element and the housing.

A system for positioning crop windrow guide shields projecting generally rearwardly alongside the crop discharge stream as it exits an agricultural mower. The shields are coupled for simultaneous, coordinated movement and repositioned by a powered actuator in response to either a manual input by a vehicle operator or automatically by a controller based on a steering angle deflection between a tractor and a towed implement. The system may be adapted for use with a single implement being operated on a side hill to control windrow drifting. The system may also be used with simultaneously operated front-mounted and pull-behind mowers to direct the crop discharge streams into a merged windrow.