A crop baler with a stuffer flywheel mass for baling a crop, the baler comprising: a supporting frame that can be moved across a field; a crop pick-up configured to pick up the crop from a ground of the field; a conveyor configured to convey the crop picked up by the crop pick-up; a pressing chamber having a stuffer configured to compress the crop conveyed into the pressing chamber by the conveyor into a form of a bale; and a drive for producing a reciprocating movement of the stuffer, the drive further comprising a flywheel mass with a variable moment of inertia.

An agricultural baler includes a main bale chamber, a plunger reciprocally movable within the main bale chamber through a compression cycle, a flywheel associated with the movement of the plunger, and a driveline associated with the flywheel and couplable with a power take-off of a traction unit. The baler has an auxiliary power system coupled with the driveline. The auxiliary power system includes a power indicator providing an output signal representing a parameter associated with power usage during the compression cycle of the plunger, a power device for at least one of receiving power from and transferring power to the driveline, and an electrical processing circuit coupled with the power indicator and the power device. The electrical processing circuit is operable for receiving the output signal(s) and controlling operation of the power device, dependent upon the output signal(s).

A square baler having a baling chamber, a plunger reciprocable at one end of the baling chamber, a pre-compression chamber where charges of crop are amassed and pre-compressed by a rotor prior to transfer into the baling chamber. A transducer is provided for producing an electrical output signal indicative of the load on the rotor and a processing circuit is operative to estimate the rate of crop flow into the pre-compression chamber by analyzing the output signal of the transducer over a complete filling and emptying cycle of the pre-compression chamber.

An agricultural system includes a baler with a plunger and a sensor for sensing a plunger-related value; a vehicle including a power source operable to convey power to the plunger; and a CVT arranged to drive the plunger. In order to balance a fluctuating load of the plunger over the working cycle, an electronic control unit (ECU) is coupled to the sensor and to the CVT and is configured to receive the signal from the sensor and to cause the CVT to modify a gear ratio of the CVT based on the signal from the sensor and on a mathematical model defining a CVT gear ratio variation profile derived from an expected load applied by crop on the plunger over its operating cycle.

An agricultural baler including a bale case having a wall portion with an opening for introducing crop material; a plunger disposed moving in the bale case to compact the crop material into bales; a duct for transporting the crop material to the entrance opening; and a stuffer unit operably associated with the duct and including a fork assembly. The stuffer unit includes tines and a drive mechanism acting on the fork assembly. The drive mechanism includes a first drive member configured for a reciprocating motion along a path of movement; a second drive member configured for a reciprocating motion along the path of movement of the first drive member and operatively connected to the fork assembly; and a selectively operable coupling arrangement configured for selectively coupling the second drive member either to the first drive member or to a stationary part of the baler.

An agricultural baler includes a chassis, a flywheel carried by the chassis, and a driveline associated with the flywheel and couplable with a PTO of a traction unit. The baler is characterized by an auxiliary power system coupled with the driveline. The auxiliary power system is configured for receiving power from the driveline, storing the power, and utilizing the stored power to power at least one functional component onboard the baler.

An agricultural baler is characterized by an APS coupled with a driveline and configured for receiving power from the driveline, storing the power, and transmitting the stored power back to the driveline. An electrical processing circuit which is coupled with the APS is operable to control operation of the APS to rotate the flywheel upon start up of the baler.

A baling system acts at shut-down to automatically pre-position a plunger so that it is just past a rear-dead-center position when the baler is restarted, thereby minimizing the load on a power take-off during the next restart. In particular, when the power take-off is deactivated, a control unit automatically brakes the power take-off so that the plunger stops in the desired position. Alternatively, the baling system acts at restart-up to automatically repeatedly activate and deactivate the power take-off in order to accelerate the plunger to a predetermined minimum operating speed before activating the power take-off for continuous operation, thereby maximizing a flywheel's momentum during the restart.

A baling system acts at shut-down to automatically pre-position a plunger so that it is just past a rear-dead-center position when the baler is restarted, thereby minimizing the load on a power take-off during the next restart. In particular, when the power take-off is deactivated, a control unit automatically brakes the power take-off so that the plunger stops in the desired position. Alternatively, the baling system acts at restart-up to automatically repeatedly activate and deactivate the power take-off in order to accelerate the plunger to a predetermined minimum operating speed before activating the power take-off for continuous operation, thereby maximizing a flywheel's momentum during the restart.

A baler implement includes an upper compression panel and a first side compression panel. A compression frame is disposed around the upper compression panel and the first side compression panel. A panel support structure includes a top portion positioned proximate the upper compression panel, and a first side portion attached to the top portion and positioned proximate the left side compression panel. An actuator interconnects the compression frame and the panel support structure. The actuator is operable to extend to move the panel support structure and the upper compression panel in a first vertical direction along a first compression axis. A first wedging system includes a wedge for converting movement of the first side portion in the first vertical direction along the first compression axis into movement of the first side compression panel in a first horizontal direction along a second compression axis.