A bale processor apparatus has a bale processing chamber mounted on a chamber frame on wheels for travel in a travel direction. A lift arm frame is pivotally attached to a rear end of the chamber frame about a lift pivot axis, and a lift actuator pivots the lift arm frame from a lowered position to a raised position. A bale turning assembly is pivotally attached to the lift arm frame and bale fork tines are attached to the bale turning assembly. A turning actuator pivots the bale turning assembly from a standard position, where the bale fork tines extend rearward from bale processing chamber to a turned position, where the bale fork tines are rearward of the bale processing chamber and perpendicular to the travel direction. A shear bar cuts twine on rectangular bales as they fall into the chamber but does not affect cylindrical bales.

An agricultural harvester has a controller operationally connected to at least the drive mechanism of header and the drive mechanism of the feedrolls to control these drive mechanisms. The controller successively executes a primary and a secondary synchronization procedure, wherein the primary synchronization procedure controls the header and feedroll drive mechanisms such that the header rotating speed and feedroll rotating speed are in a first predetermined ratio range; and the secondary synchronization procedure controls the header and feedroll drive mechanisms such that the header load and the feedroll load approach a second predetermined ratio.

An agricultural harvester has a controller operationally connected to at least the drive mechanism of header and the drive mechanism of the feedrolls to control these drive mechanisms. The controller successively executes a primary and a secondary synchronization procedure, wherein the primary synchronization procedure controls the header and feedroll drive mechanisms such that the header rotating speed and feedroll rotating speed are in a first predetermined ratio range; and the secondary synchronization procedure controls the header and feedroll drive mechanisms such that the header load and the feedroll load approach a second predetermined ratio.

In one embodiment, a bale processor includes a hopper for receiving a bale of baled material, a discharge opening for outputting chopped material, and a processing section below the hopper and intersecting the hopper at an impingement zone. The processing section has primary and secondary rotors. The primary rotor is rotatable and has flails sufficiently long to extend into the impingement zone to chop the material from the bale received in the hopper when the primary rotor is rotated. The secondary rotor is rotatable and has flails to chop the material after being chopped by the primary rotor. The secondary rotor is offset from the primary rotor such that the secondary rotor is on one side of the primary rotor, the discharge opening is on another side of the primary rotor, and the only passage from the secondary rotor to the discharge opening crosses the primary rotor.

In one embodiment, a bale processor includes a hopper for receiving a bale of baled material, a discharge opening for outputting chopped material, and a processing section below the hopper and intersecting the hopper at an impingement zone. The processing section has primary and secondary rotors. The primary rotor is rotatable and has flails sufficiently long to extend into the impingement zone to chop the material from the bale received in the hopper when the primary rotor is rotated. The secondary rotor is rotatable and has flails to chop the material after being chopped by the primary rotor. The secondary rotor is offset from the primary rotor such that the secondary rotor is on one side of the primary rotor, the discharge opening is on another side of the primary rotor, and the only passage from the secondary rotor to the discharge opening crosses the primary rotor.

A conveying arrangement conveys loose material in a conveying direction, in particular agricultural material. Several knives of a cutting assembly are mounted below a cutting area guiding surface. The material is first conveyed along the cutting area guiding surface and afterwards along a further guiding surface. Both guiding surfaces are mechanically supported by a connecting assembly. A positioning mechanism can pivot the connecting assembly upwards and downwards. This pivotal movement causes both guiding surfaces to be moved upwards and downwards. The cutting area guiding surface together with the cutting assembly can be shifted laterally, i.e. perpendicular to the conveying direction, and is guided during this lateral movement.

A conveying arrangement conveys loose material in a conveying direction, in particular agricultural material. Several knives of a cutting assembly are mounted below a cutting area guiding surface. The material is first conveyed along the cutting area guiding surface and afterwards along a further guiding surface. Both guiding surfaces are mechanically supported by a connecting assembly. A positioning mechanism can pivot the connecting assembly upwards and downwards. This pivotal movement causes both guiding surfaces to be moved upwards and downwards. The cutting area guiding surface together with the cutting assembly can be shifted laterally, i.e. perpendicular to the conveying direction, and is guided during this lateral movement.

A bale processing apparatus include a frame, a bale hopper defining a bale chamber for receiving a bale, a bale shredding assembly including a shredding rotor rotatable in a rotor chamber, and a bale movement assembly configured to move a bale in the bale chamber toward the bale feed opening and the shredding rotor. In embodiments, the apparatus may be mountable on support arms of a loader such that the bale processing apparatus is liftable off of the ground surface, and may include a rotor operating assembly may be mounted on the frame and configured to rotate the shredding rotor, and the operating assembly may include an engine fully mounted on the frame such that the frame and the engine may be removed as a unit from the loader. Other embodiments are also disclosed.

A bale processing apparatus include a frame, a bale hopper defining a bale chamber for receiving a bale, a bale shredding assembly including a shredding rotor rotatable in a rotor chamber, and a bale movement assembly configured to move a bale in the bale chamber toward the bale feed opening and the shredding rotor. In embodiments, the apparatus may be mountable on support arms of a loader such that the bale processing apparatus is liftable off of the ground surface, and may include a rotor operating assembly may be mounted on the frame and configured to rotate the shredding rotor, and the operating assembly may include an engine fully mounted on the frame such that the frame and the engine may be removed as a unit from the loader. Other embodiments are also disclosed.

A bale shredder may comprise a bale hopper defining an interior bale chamber for receiving a bale to be shredded, a bale shredding assembly to shred a bale in the chamber including a shredding rotor having a plurality of flails to contact a bale in the bale chamber, and a passage for receiving material shredded by the shredding rotor. In embodiments, a conveying assembly may facilitate material flow through the passage with a moving conveying surface. A collecting auger assembly may collect material ejected by the shredding rotor through the passage and may include an auger with an auger shaft rotatable about a rotation axis. In embodiments, a discharge assembly with a discharge rotor configured to receive the shredded material from the collecting auger assembly and expel the material through a discharge opening, and the discharge rotor may rotate on the auger shaft of the collecting auger assembly.