Abstract: An agricultural system including: an agricultural baler with a bale-forming chamber; a plunger movable in a reciprocating manner within the bale-forming chamber for compressing plant matter in the bale-forming chamber; and a driveline for moving the plunger within the bale-forming chamber. The driveline comprises at least one bearing. The agricultural system further includes a control unit configured to: receive load-data indicative of a load acting on the plunger during operation of the baler; and determine a bearing-status-signal indicative of wear status the bearing, based on the load-data.

Abstract: An agricultural system including: an agricultural baler with a bale-forming chamber; a plunger movable in a reciprocating manner within the bale-forming chamber for compressing plant matter in the bale-forming chamber; and a driveline for moving the plunger within the bale-forming chamber. The driveline comprises at least one bearing. The agricultural system further includes a control unit configured to: receive load-data indicative of a load acting on the plunger during operation of the baler; and determine a bearing-status-signal indicative of wear status the bearing, based on the load-data.

Abstract: An agricultural baler including a flywheel and a drivetrain for coupling the flywheel to a connector that is arranged to be connected to a power take-off (PTO) of a tractor. The drivetrain includes a decoupling mechanism for decoupling the flywheel from the connector in case of an overload. The decoupling mechanism includes a controllable member that is movable between an engaged state in which the flywheel is coupled to the connector and a disengaged state in which the flywheel is decoupled from the connector. The decoupling mechanism further includes a detector configured for detecting the overload. The detector is configured for providing an overload signal to the controllable member triggering the controllable member into the disengaged state.

Abstract: An agricultural baler including a flywheel and a drivetrain for coupling the flywheel to a connector that is arranged to be connected to a power take-off (PTO) of a tractor. The drivetrain includes a decoupling mechanism for decoupling the flywheel from the connector in case of an overload. The decoupling mechanism includes a controllable member that is movable between an engaged state in which the flywheel is coupled to the connector and a disengaged state in which the flywheel is decoupled from the connector. The decoupling mechanism further includes a detector configured for detecting the overload. The detector is configured for providing an overload signal to the controllable member triggering the controllable member into the disengaged state.

Abstract: A self-cleaning blow-off for a rotary air screen, includes a blow-off channel including an inlet disposed for receiving a flow of air from a pressurized air source, and a movable blow-off channel section configured and supported to be movable between an operational position disposed adjacent to a portion of the air screen for directing the flow of air for blowing debris and dirt from the screen, and a cleaning position disposed away from the screen such that accumulated debris and dirt in the blow-off section will be released. And, an actuator is connected to and controllably operable for moving the movable blow-off section between the operating position and the cleaning position. The actuator can be controlled to move the movable blow-off section to the cleaning position periodically, as desired, or responsive to an input.

Abstract: A self-cleaning blow-off for a rotary air screen, includes a blow-off channel including an inlet disposed for receiving a flow of air from a pressurized air source, and a movable blow-off channel section configured and supported to be movable between an operational position disposed adjacent to a portion of the air screen for directing the flow of air for blowing debris and dirt from the screen, and a cleaning position disposed away from the screen such that accumulated debris and dirt in the blow-off section will be released. And, an actuator is connected to and controllably operable for moving the movable blow-off section between the operating position and the cleaning position. The actuator can be controlled to move the movable blow-off section to the cleaning position periodically, as desired, or responsive to an input.

Abstract: The engine and cooling system arrangement includes an engine supported between the forward and rear ends of the frame of a harvesting machine, in an engine compartment. A cooler box containing at least one heat exchanger is disposed higher than and vertically offset from, the engine, and has an inlet opening facing sidewardly and covered with an air screen. A discharge opening faces in an opposite side direction. A fan generates a sideward air flow through the filter screen, cooler box and at least one heat exchanger, and outwardly through the discharge opening, away from an operator cab of the machine. A portion of the air flow will be directed into an air flow duct extending downwardly and forwardly to the engine compartment to create a positive air pressure condition therein, to limit infiltration of unfiltered air. The air is discharged from the engine compartment away from the cab.