Abstract: A baler implement includes a gear assembly having an input shaft coupled to a power input, and an output shaft coupled to a flywheel. The gear assembly includes a first input gear coupled to the input shaft and a first output gear coupled to the output shaft to define a first gear ratio, and a second input gear coupled to the input shaft and a second output gear coupled to the output shaft to define a second gear ratio. A first torque control device interconnects the input shaft and one of the first input gear and the second input gear. A second torque control device interconnects the output shaft and one of the first output gear and the second output gear. One of the first torque control device and the second torque control device is controllable to switch between the first gear ratio and the second gear ratio.

Abstract: A baler implement includes a pre-compression passageway including a lower passage wall having an access panel. The access panel is moveable between an operating position and an access position. A panel actuator is coupled to the access panel for moving the access panel. A feed system includes at least one feeder fork operable to move crop material through the pre-compression passageway. A drive system is coupled to the feed system and includes a power source that is selectively controllable to move the feed system in a first direction during a baling operation and move the feed system in a second direction during an un-plugging operation. A baler controller is operable to identify a plug condition from data related to an operating characteristic of the baling operation and may then automatically initiate the un-plugging operation when the plug condition is identified.

Abstract: 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.

Abstract: A baler implement includes an upper compression panel and a first side compression panel both partially form a compression chamber. A compression frame is attached to a main frame. The compression frame is disposed adjacent to the upper compression panel. A first upper pivot link contacts the upper compression panel and is rotatably coupled to the compression frame for rotation about a first upper link axis. A first side pivot link contacts the first side compression panel and is rotatably coupled to the main frame for rotation about a first side link axis. A first actuator interconnects the first upper pivot link and the first side pivot link. Retraction of the first actuator simultaneously moves the upper compression panel in a first vertical direction along a first compression axis and the first side compression panel in a first horizontal direction along a second compression axis.

Abstract: 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.

Abstract: A baler implement includes a twine storage box, and a door panel positioned in a substantially vertical orientation relative to the twine storage box. The door panel is moveably attached to the housing for movement between a lowered position enclosing the twine storage box, and a raised position providing external access to the twine storage box. A linkage system interconnects the housing and the door panel. The linkage system includes a first link and a second link, each interconnecting the door panel and the housing. The first link and the second link are configured to maintain the door panel in the substantially vertical orientation relative to the housing while moving between the lowered position and the raised position.

Abstract: A method of setting the address of an addressable network device of a building management system comprises: at the point of installation of the device on a network wiring of the system, operating a code scanner of an installation tool to scan a code on the device, the information in the code including the serial number of the device; collecting location information in the installation tool at the point of installation; connecting the installation tool to a wiring commissioning tool after the device has been installed; downloading the code information and the location information onto the wiring commissioning tool; generating a network address for the device; and setting that network address into the device via the network wiring.

Abstract: A bale ejection system includes a pawl having a planar structure. The pawl includes a mounting bore extending therethrough. A center of the mounting bore defines a rotation axis. The planar structure of the pawl includes a cam surface and a material engaging surface disposed opposite the cam surface. The cam surface and the material engaging surface extend away from the rotation axis, and converge to define a distal end that is spaced from the rotation axis. The material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the planar structure. The crop engaging tooth and the distal end of the planar structure are operable to engage crop material of a bale when the planar structure is rotated into engagement with the bale for moving the bale along a longitudinal axis of a baler implement.

Abstract: Computer-aided design (CAD) models, and associated methods and systems, including topological and geometrical entities, graphical annotation information, and data structures storing non-native format semantic annotation information. Associated application programming interfaces (APIs) can include routines to return non-native format semantic annotation information stored in data structures associated with a native format CAD model. The APIs can include routines to identify whether annotations include data structures storing non-native format semantic annotation information, and to identify the types of the annotations. Graphical annotations can serve graphical display needs, while the semantic meanings from non-native CAD formats can be stored in placeholder data structures and, thus, be preserved. Manufacturing software applications can consume and act upon the semantic data via an API, thus, achieving automation benefits.

Abstract: A cargo tracking system for tracking a cargo includes a camera and a central electronic computing device. The cargo, during a loading of the cargo into a cargo space for delivering the cargo, is trackable by the camera. An information about the cargo is transmittable by the camera to the central electronic computing device. The camera is configured to estimate a size of the cargo in real time and, depending on the estimated size of the cargo and depending on a predetermined cargo size of the cargo space, the camera is configured to compute a remaining cargo size of the cargo space and to transmit the computed remaining cargo size to the central electronic computing device in real time.

Abstract: A baler implement includes a twine storage box, and a door panel positioned in a substantially vertical orientation relative to the twine storage box. The door panel is moveably attached to the housing for movement between a lowered position enclosing the twine storage box, and a raised position providing external access to the twine storage box. A linkage system interconnects the housing and the door panel. The linkage system includes a first link and a second link, each interconnecting the door panel and the housing. The first link and the second link are configured to maintain the door panel in the substantially vertical orientation relative to the housing while moving between the lowered position and the raised position.

Abstract: A large square baler includes a frame and a baling chamber for forming a bale. A support beam is attached to the frame and extends to a distal second end. A support structure is attached to the second end of the support beam. A track is attached to the support structure and includes an endless loop defining a path. A rotational drive is attached to the support structure and includes a crank rotatable about a rotation axis. An arm is coupled to the crank and includes an elongated slot. A carriage is attached to the arm and moves on the track along the path. The carriage supports a transverse face wrap roller for wrapping the transverse faces of the bale. A portion of the crank extends through and is moveable within the elongated slot such that a distance between the carriage and the rotation axis is variable.

Abstract: A bale ejection system includes a pawl having a planar structure. The pawl includes a mounting bore extending therethrough. A center of the mounting bore defines a rotation axis. The planar structure of the pawl includes a cam surface and a material engaging surface disposed opposite the cam surface. The cam surface and the material engaging surface extend away from the rotation axis, and converge to define a distal end that is spaced from the rotation axis. The material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the planar structure. The crop engaging tooth and the distal end of the planar structure are operable to engage crop material of a bale when the planar structure is rotated into engagement with the bale for moving the bale along a longitudinal axis of a baler implement.

Abstract: Agricultural harvesting machines and methods of operation thereof are disclosed herein. A harvesting machine includes a main frame, a drive mechanism, a plunger, and a linkage system. The drive mechanism is coupled to the main frame and has at least one crank arm that is rotatable about a crank arm axis. The plunger is movable along a longitudinal axis in a compression chamber between a de-stroked position and a stroked position that is located rearward of the de-stroked position along the longitudinal axis. The linkage system couples the plunger to the main frame.

Abstract: A baler including a frame having a first end, and a second end opposite the first end. The baler also having a compression chamber, where the compression chamber defines a central axis extending longitudinally therethrough, a plunger assembly at least partially positioned and movable within the compression chamber, and a panel removably coupled to the frame, and where the panel at least partially defines the compression chamber.

Abstract: A crop baler implement includes a baling chamber sized to form crop material into a parallelepiped shape bale having longitudinal faces and transverse faces. The implement includes a carriage disposed rearward of the baling chamber. The carriage includes a tray positioned to receive the bale from the baling chamber in a first orientation, in which the longitudinal faces of the bale are parallel with a longitudinal frame axis. A longitudinal wrapping assembly may wrap the longitudinal faces of the bale when the bale is in the first orientation. The tray is rotatable relative to the carriage about a substantially vertical tray axis to move the bale from the first orientation to a second orientation, in which the transverse faces of the bale are parallel with the longitudinal frame axis. A transverse wrapping assembly may wrap the transverse faces of the bale when the bale is in the second orientation.

Abstract: A crop baling implement includes a frame and a baling chamber attached to the frame. The baling chamber is configured to form crop material into a bale extending along a central longitudinal axis of the bale. An orbital support is attached to the frame rearward of the baling chamber. The orbital support is rotatable about a wrap axis and defines an open central region. The orbital support is positioned to receive the bale from the baling chamber and pass the bale through the open central region of the orbital support. A wrap roller is attached to and moveable with the orbital support. A drive is coupled to the orbital support and operable to rotate the orbital support and the wrap roller about the wrap axis to unroll wrap material around the bale as the bale moves through the open central region of the orbital support.

Abstract: A large square baler includes a frame and a baling chamber for forming a bale. A support beam is attached to the frame and extends to a distal second end. A support structure is attached to the second end of the support beam. A track is attached to the support structure and includes an endless loop defining a path. A rotational drive is attached to the support structure and includes a crank rotatable about a rotation axis. An arm is coupled to the crank and includes an elongated slot. A carriage is attached to the arm and moves on the track along the path. The carriage supports a transverse face wrap roller for wrapping the transverse faces of the bale. A portion of the crank extends through and is moveable within the elongated slot such that a distance between the carriage and the rotation axis is variable.

Abstract: A baler including a frame having a first end, and a second end opposite the first end. The baler also having a compression chamber, where the compression chamber defines a central axis extending longitudinally therethrough, a plunger assembly at least partially positioned and movable within the compression chamber, and a panel removably coupled to the frame, and where the panel at least partially defines the compression chamber.

Abstract: Agricultural harvesting machines and methods of operation thereof are disclosed herein. A harvesting machine includes a main frame, a drive mechanism, a plunger, and a linkage system. The drive mechanism is coupled to the main frame and has at least one crank arm that is rotatable about a crank arm axis. The plunger is movable along a longitudinal axis in a compression chamber between a de-stroked position and a stroked position that is located rearward of the de-stroked position along the longitudinal axis. The linkage system couples the plunger to the main frame.