Abstract: Systems and methods are provided for electrifying a drivetrain of a vehicle. In one example, a gearbox for a vehicle includes a first gear coupled to a first shaft that is configured to be driven by an electric motor of the vehicle. Additionally, the gearbox includes a second gear configured to mesh with the first gear, and a third gear configured to mesh with the second gear, where the third gear is coupled to a third shaft that is configured to drive a first axle of the vehicle and is connectable to a second axle of the vehicle.

Abstract: Systems and methods are provided for electrifying a drivetrain of a vehicle. In one example, a gearbox for a vehicle a first gear coupled to a first input shaft configured to be driven by a first electric motor, a second gear configured to mesh with the first gear, and a third gear configured to mesh with the second gear and coupled to a third shaft configured to drive a first axle of the vehicle and connectable to a second axle of the vehicle. The gearbox further includes a fourth gear coupled to the first input shaft, a fifth gear coupled to a lay shaft coupled to the second gear, a sixth gear coupled to a second input shaft, and a seventh gear coupled to a power takeoff shaft configured to drive one or more power takeoff units, the second input shaft configured to be driven by a second electric motor.

Abstract: Methods and systems for a vehicle transmission are provided. An electromechanical transmission system includes, in one example, a power take-off (PTO) clutch configured to, in a first position, permit a motive power source shaft to solely drive a PTO. The PTO clutch is further configured to, in a second position, permit a first electric machine and a second electric machine to continuously vary a torque that is supplied to the PTO by the motive power source shaft.

Abstract: Methods and systems are provided for a coupling device. In one example, a system comprises a coupling device arranged between a gearbox and a motor, wherein the coupling device is further coupled to a vehicle frame.

Abstract: Methods and systems for a vehicle transmission are provided. An electromechanical transmission system includes, in one example, a power take-off (PTO) clutch configured to, in a first position, permit a motive power source shaft to solely drive a PTO. The PTO clutch is further configured to, in a second position, permit a first electric machine and a second electric machine to continuously vary a torque that is supplied to the PTO by the motive power source shaft.

Abstract: Methods and systems are provided for a coupling device. In one example, a system comprises a coupling device arranged between a gearbox and a motor, wherein the coupling device is further coupled to a vehicle frame.

Abstract: The present disclosure relates to a transmission unit for an electric vehicle and a control method for the transmission unit. The transmission unit comprises a transmission output shaft, a first electric motor having a first output shaft that can be coupled with the transmission output shaft via a first or a second gear set, wherein a first clutch element is arranged between the first gear set and the transmission output shaft and a second clutch element is arranged between the second gear set and the transmission output shaft, and a second electric motor having a second output shaft coupled with the transmission output shaft via a third gear set.

Abstract: The present disclosure relates to a transmission unit for an electric vehicle and a control method for the transmission unit. The transmission unit comprises a transmission output shaft, a first electric motor having a first output shaft that can be coupled with the transmission output shaft via a first or a second gear set, wherein a first clutch element is arranged between the first gear set and the transmission output shaft and a second clutch element is arranged between the second gear set and the transmission output shaft, and a second electric motor having a second output shaft coupled with the transmission output shaft via a third gear set.

Abstract: An electronic system for mapping a work site that includes a plurality of radar sensors to be provided on vehicles moving on the site, the radar sensors being able to detect objects included in a respective area of detection and acquire their relative positions. The system includes a speed module configured for determining a speed parameter for objects detected by the radar sensors, according to their relative positions. The system also includes a classification module configured for classifying detected objects as standing still or moving objects according to the respective speed parameters, and a map module configured for creating a common map of the site providing the positions of standing still objects detected in the site by said plurality of radar sensors, according to a reference system.

Abstract: A wheel for a vehicle includes a tyre and a rim for supporting the tyre. A chamber is defined between the tyre and the rim for receiving pressurized air. The wheel further includes a detecting device located inside the chamber for detecting presence of water in the wheel.

Abstract: A transmission system includes a power take-off for driving an implement and a hydrostatic unit for transmitting power from the engine to the power take-off. The hydrostatic unit includes a first hydraulic power unit having a first connection line and a second connection line, and a second hydraulic power unit having a first connection line and a second connection line. The hydrostatic unit also includes a valve for connecting the first hydraulic power unit and the second hydraulic power unit, the valve being positionable at least in a first position a first position and in a second position.

Abstract: A steerable, self-propelled vehicle includes a rotatable steering column that is connected to control the steering angle of one or more ground-engaging members of the vehicle. The vehicle includes between the steering column and the ground-engaging member a first steering servomechanism having at least a first steering assistance characteristic; a second steering servomechanism having a second steering assistance characteristic also being connected to act on the steering column. A controller is provided for causing the first and second steering assistance characteristics to influence the steering of the vehicle in dependence on one or more one or more control commands generated in the controller.

Abstract: A control circuit for controlling the pressure of a wheel enclosing a first volume and a second volume includes a controlled pressure line, a first line, connectable to the controlled pressure line and connected to the first volume for introducing air inside the first volume, and a second line, connectable to the controlled pressure line and connected to the second volume for introducing air inside the second volume. The control circuit further includes a first spool valve, which is a three way-two positions valve, having a first position in which the controlled pressure line is connected to the first line, and a second position, in which the controlled pressure line is connected to the second line. The first spool valve switches from the first position to the second position if the pressure in the first volume exceeds a predetermined pressure.

Abstract: An agricultural baler includes a main bale chamber, a plunger, a gear box, and a stuffer unit. The plunger is reciprocally movable within the main bale chamber. The stuffer unit is driven by the plunger and the gear box, and is movable through a stuffer cycle for transferring crop material in charges into the main bale chamber. The agricultural baler further includes a hydraulic brake associated with and configured for acting as a brake on the stuffer unit during a portion of the stuffer cycle.

Abstract: A control circuit includes a controlled pressure line, connectable to a compressor, a first line, connectable to the controlled pressure line and connected to the first volume for introducing air inside the first volume, and a second line, connectable to the controlled pressure line and connected to the second volume for introducing air inside the second volume. The control circuit also includes a first spool valve, which is a three way-two positions valve, configured to switch from a first position to a second position if the pressure in the first volume exceeds a predetermined pressure.

Abstract: A transmission system includes a power take-off for driving an implement and a hydrostatic unit for transmitting power from the engine to the power take-off. The hydrostatic unit includes a first hydraulic power unit having a first connection line and a second connection line, and a second hydraulic power unit having a first connection line and a second connection line. The hydrostatic unit also includes a valve for connecting the first hydraulic power unit and the second hydraulic power unit, the valve being positionable at least in a first position a first position and in a second position.

Abstract: A wheel for a vehicle includes a tyre and a rim for supporting the tyre. A chamber is defined between the tyre and the rim for receiving pressurized air. The wheel further includes a detecting device located inside the chamber for detecting presence of water in the wheel.

Abstract: A control circuit for controlling the pressure of a wheel enclosing a first volume and a second volume includes a controlled pressure line, a first line, connectable to the controlled pressure line and connected to the first volume for introducing air inside the first volume, and a second line, connectable to the controlled pressure line and connected to the second volume for introducing air inside the second volume. The control circuit further includes a first spool valve, which is a three way-two positions valve, having a first position in which the controlled pressure line is connected to the first line, and a second position, in which the controlled pressure line is connected to the second line. The first spool valve switches from the first position to the second position if the pressure in the first volume exceeds a predetermined pressure.

Abstract: 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.

Abstract: A steerable, self-propelled vehicle includes a rotatable steering column that is connected to control the steering angle of one or more ground-engaging members of the vehicle. The vehicle includes between the steering column and the ground-engaging member a first steering servomechanism having at least a first steering assistance characteristic; a second steering servomechanism having a second steering assistance characteristic also being connected to act on the steering column. A controller is provided for causing the first and second steering assistance characteristics to influence the steering of the vehicle in dependence on one or more one or more control commands generated in the controller.