A windguard is provided that may be used with an agricultural harvester, such as around baler, waste baler, combine, sugarcane harvester or cotton harvester. More particularly, the windguard utilizes at least a first and a second pivot tab, each comprising a cam that is adapted for alignment into a slot along a first and second side arms of the windguard and that allows a upward or downward movement of the pivot tabs in the slot. The sliding motion of the cam in the slot allows the windguard to automatically adjust during operation without manual adjustment or pre-adjustment prior to operation.

A device for harvesting long agricultural products, such as grass, straw, pulses, biomass products and the like, includes a frame having a main axis of extension, a plurality of agricultural product harvesting elements, each in turn equipped with at least one long harvesting prong, a movement system for moving each of the harvesting elements along a closed trajectory surrounding the main axis of extension, and a plurality of bands fixed to the frame, positioned one after another and spaced out along the main axis of extension. The device also includes a conveyor unit including an elongate body extending along its own axis of rotation and provided with at least one peripheral step forming an agricultural product feed shoulder extending, along an axis which is substantially radial relative to said axis of rotation, between an edge proximal to the axis of rotation and an edge distal from the axis of rotation.

A crop intake device for an agricultural harvester includes a frame and a crop pickup unit, pivotably mounted to the frame. The crop pickup unit includes a rotatable reel, at least one support member, and first and second suspension springs. The reel has tines configured for picking up crop from a field. The support member is arranged for supporting the crop pickup unit on the field during use, and is pivotable relative to the reel for setting a minimum height of the tines by moving the reel between a lowered configuration and a raised configuration. A perpendicular distance between the first suspension spring and a pivot point of the crop pickup unit on the frame increases when moving the reel towards the raised configuration. A lifting torque provided by the second suspension spring on the crop pickup unit increases when moving the reel towards the raised configuration.

A feeder assembly pivotally attached to an implement having a pickup reel wherein the feeder assembly has a continuous belt having a plurality of teeth that is mounted about a pair of rollers. The feeder is angled such that is picks up a windrow of stover from the ground and transports the stover to a raised pickup reel.

A header assembly for mounting upon a front end of a harvester combine's feeder house, the header assembly incorporating a central header which is adapted for fixed attachment to the feeder house front end; the header assembly further incorporating a lateral header and a pivot joint positioning an oppositely lateral end of the lateral header over the lateral end of the central header, the pivot joint being adapted for facilitating movements of the lateral header between a mowing position and a transport position, the lateral header cantilevering laterally over a crop edge upon pivoting to the mowing position and extending rearwardly upon counter-pivoting to the transport position.

Described is a cleaning unit for a device for harvesting long agricultural products, such as grass, straw, pulses, biomass products and the like, of the type that can be pulled by a pulling vehicle along an advancing axis and provided with pick-up means (102) for harvesting said products and with unloading means (106) located operatively downstream of the pick-up means (102), forming a supporting surface (B) for the agricultural products harvested and mobile transversally to said advancing axis along a predetermined axis of movement (A) for releasing the agricultural products to the sides of said pulling vehicle, wherein the cleaning unit comprises a wheel (2) comprising a peripheral annular surface (3) and rotatable about its own axis of rotation (C) and joining means (5) designed to connect said wheel (2) to said harvesting device (100) in such a way that said axis of rotation (C) is transversal to said axis of movement (A) and wherein said peripheral annular surface (3) is positioned at a predetermined height in such a way as to form, between the peripheral annular surface (3) and the supporting surface (B), an agricultural product feed section (4).

A baler apparatus includes a cylindrical bale-forming chamber defined by a set of compression elements positioned around the circumference of the bale-forming chamber, and a drive mechanism configured to drive rotary movement of the compression elements. At least one of the rotary compression elements is configured to provide a reduced level of traction relative to a bale in the bale chamber, as compared to at least a majority of the other rotary compression elements.

A baler apparatus includes a cylindrical bale-forming chamber defined by a set of compression elements positioned around the circumference of the bale-forming chamber, and a drive mechanism configured to drive rotary movement of the compression elements. At least one of the rotary compression elements is configured to provide a reduced level of traction relative to a bale in the bale chamber, as compared to at least a majority of the other rotary compression elements.

An agricultural material baling system comprises, in one example, a bale forming component configured to form a bale of agricultural material from a terrain, and a control system configured to determine that the bale is to be released from the baling system onto the terrain, determine that a current location of the baling system has a slope above a threshold, determine a different location, that is spaced apart from the current location, for releasing the bale onto the terrain, and provide an output indicative of the different location. In one example, the control system is configured to receive yield data indicative of a volume of agricultural material in a path of the baler and to control the baling system based on the yield data. In one example, the yield data is obtained from a raking operation that rakes the agricultural material into a windrow.

An agricultural baler including a bale chamber; a feeder duct communicating with the bale chamber for charges of crop material to be transferred from the feeder duct into the bale chamber; a plunger reciprocally moveable within the bale chamber to compress successive charges of crop material received from the feeder duct to form a bale; and a feeder operable within the feeder duct to accumulate a charge of crop material therein and then stuff that accumulated charge into the bale chamber. The feeder includes at least one first tine and at least one second tine, each having a leading face for engaging the crop material. A width of a frontal area of the leading face of the second tine is smaller than a width of a frontal area of the leading face of the first tine.