A work vehicle configured to carry out work travel in a pasture land where harvested pasture grass 1 is present, the work vehicle having a quality determination device 20 configured to determine quality of the pasture grass 1 in the course of the work traveling. The quality determination device 20 includes a cylindrical grass sending tube 21, a grass taking section 22 configured to feed at least a portion of the pasture grass 1 left in the pasture land to an inside of the grass sending tube 21 via a first end of the grass sending tube 21 and a quality determination instrument 9 configured to determine quality of the pasture grass 1 compressed inside the grass sending tube 21.

A method is carried-out by a controller architecture coupled to a beam assembly actuator, which is included in an articulating tongue arrangement connecting an agricultural implement to a tow vehicle. In an embodiment, the method includes: (i) monitoring, via the controller architecture, an effective tow length of an articulating beam assembly further included in the articulating tongue arrangement, the effective tow length measured along a straight line extending from a leading pivot joint of the articulating tongue arrangement to a trailing pivot joint of the articulating tongue arrangement; (ii) determining, at the controller architecture, an effective tow length target of the articulating tongue arrangement based upon operator input, sensor input, or a combination thereof; and (iii) transmitting commands from the controller architecture to the beam assembly actuator to maintain the effective tow length of the articulating beam assembly in conformance with the effective tow length target.

A baler apparatus has a cylindrical bale-forming chamber defined by a set of compression elements positioned around the circumference of the bale-forming chamber, and drive means 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 the majority of the other rotary compression elements.

A hydraulic system for operating a rear gate of a baler implement includes a hydraulic cylinder having a housing that defines an interior, and a piston that is moveably disposed within the interior of the housing. The housing includes a first fluid port and a second fluid port, each disposed in fluid communication with a first fluid volume of the hydraulic cylinder. A flow rate control valve is moveable between a first position for directing fluid to or from the first fluid port at a first flow rate, and a second position for directing fluid to or from the second fluid port at a second flow rate. The second flow rate is different than the first flow rate.

A hydraulic system for a rear gate of a baler implement includes a fluid circuit having a first portion connected to and disposed in fluid communication with a first fluid port of a hydraulic cylinder. A flow bypass assembly is disposed in the first portion of the fluid circuit. The flow bypass assembly includes a flow rate control valve selectively moveable between a first position allowing fluid communication therethrough at a first flow rate, and a second position blocking fluid communication therethrough. The flow bypass assembly further includes a bypass passageway for circulating the fluid when the flow rate control valve is closed. A flow restriction is disposed within the bypass passageway to provide a second flow rate that is less than the first flow rate.

A bale accumulator for a round baler including a frame configured for being located behind the bale chamber of the round baler and a plurality of bale holders configured for receiving and temporarily holding the bales. Each bale holder is pivotally and rotatably connected to the frame such that each bale holder is configured for rolling the bales by pivoting relative to the frame and realigning the bales by rotating relative to the frame.

A baler for forming a bale includes a frame, an axle, and a sensor. The frame supports a bale chamber. The axle is connected to the frame at a first location and spaced apart from the frame at a second location. The sensor is positioned to measure the deflection of the axle based on a distance. The deflection of the axle changes based upon a weight of the bale.

An unloading device for unloading a round bale from a round baler includes a first support arm for unloading the round bale, a second support arm for unloading the round bale, and an actuator for operably controlling the first and second support arms. The first and second support arms are adjustably mounted on the round baler. Moreover, the first and second support arms are adjustably controlled by the actuator as a function of an unloading direction of the round bale.

A system for controlling the speed of harvested crop as it is discharged from a crop accumulator onto a field comprising a discharge mechanism for imparting a desired rearward travel speed to the harvested crop as it is being discharged from the crop accumulator and a speed measurement device for measuring forward travel speed of the crop accumulator. A processor is in communication with the discharge mechanism and the speed measurement device and is operable to adjust the discharge mechanism for imparting the desired rearward travel speed or the forward travel speed of the crop accumulator, to discharge harvested crop with a rearward travel speed that is substantially equal to the forward travel speed such that the harvested crop has a substantially net zero speed as it contacts the ground.

A bale accumulator for a round baler including a frame configured for being located behind the bale chamber of the round baler and a plurality of bale holders configured for receiving and temporarily holding the bales. Each bale holder is pivotally and rotatably connected to the frame such that each bale holder is configured for rolling the bales by pivoting relative to the frame and realigning the bales by rotating relative to the frame.