Abstract: A control system for an agricultural baler includes a controller configured to receive a bale wrap signal indicative of a type of a bale wrap. The controller is also configured to determine whether the bale wrap is segmented or continuous based on the type. Furthermore, the controller is configured to control a braking system to establish a tension force at a weakened section of the bale wrap sufficient to separate a first portion disposed about a bale from a second portion disposed about a shaft in response to determining the bale wrap is segmented and the weakened section is positioned between the shaft and the bale. In addition, the controller is configured to control a cutting system of the agricultural baler to cut the bale wrap in response to determining the bale wrap is continuous and a target section of the bale wrap is positioned at the cutting system.

Abstract: A bale wrap assembly loading system for an agricultural harvester includes a storage compartment configured to store bale wrap assemblies. The storage compartment includes a frame, a bale wrap support rotatably coupled to the frame at a pivot point, a first bale wrap mount coupled to the bale wrap support and configured to support one or more first bale wrap assemblies, and a second bale wrap mount coupled to the bale wrap support and configured to support one or more second bale wrap assemblies. The bale wrap support is configured to rotate about the pivot point to orient the bale wrap support at a first loading angle to facilitate receiving the one or more first bale wrap assemblies at a loading location and to orient the bale wrap support at a second loading angle to facilitate receiving the one or more second bale wrap assemblies at the loading location.

Abstract: A bale wrap assembly management system for an agricultural harvester includes a bale wrap assembly storage compartment having a storage compartment frame and a carriage movably coupled to the storage compartment frame. The carriage is configured to store multiple bale wrap assemblies, and the carriage is configured to move with respect to a vertical axis of the agricultural harvester between a storage position and a delivery position. The bale wrap assembly management system also includes a bale wrap feeding assembly having a feeding assembly frame configured to move with respect to a lateral axis of the agricultural harvester from a feeding position to a loading position. The bale wrap feeding assembly also includes a bale wrap assembly support coupled to the feeding assembly frame and configured to support an active bale wrap assembly of the plurality of bale wrap assemblies.

Abstract: A bale wrap feeding assembly for an agricultural harvester includes a frame configured to move with respect to a lateral axis of the agricultural harvester from a feeding position to a loading position. In addition, the bale wrap feeding assembly includes a fixed feed roller rotatably and non-movably coupled to the frame, and the bale wrap feeding assembly includes a movable feed roller rotatably and movably coupled to the frame. The movable feed roller is movable between an engaged position and a disengaged position relative to the fixed feed roller, the movable feed roller is configured to be positioned proximate to the fixed feed roller while in the engaged position, and the movable feed roller is configured to be positioned remote from the fixed feed roller while in the disengaged position.

Abstract: A mat leveling system for a conveying system of an agricultural harvester includes a first outlet roller configured to support a first belt of a pair of opposing belts. The mat leveling system also includes a second outlet roller configured to support a second belt of the pair of opposing belts. Furthermore, the mat leveling system includes a first mounting assembly configured to enable movement of the first outlet roller relative to the second outlet roller and to urge the first outlet roller toward the second belt to reduce variations in a thickness of a mat of agricultural product, a second mounting assembly configured to enable movement of the second outlet roller relative to the first outlet roller and to urge the second outlet roller toward the first belt to reduce the variations in the thickness of the mat of the agricultural product, or a combination thereof.

Abstract: A conveying system for an agricultural harvester includes a first belt and a second belt. The first belt and the second belt are configured to transport agricultural product along a downstream direction toward a cavity. The conveying system also includes a starter roller spaced apart from the first belt by a gap along a vertical axis. The starter roller is configured to initiate formation of a bale of the agricultural product within the cavity. Furthermore, the conveying system includes a blocking bar positioned proximate to the first belt and to the starter roller. A vertical extent of the blocking bar at least partially overlaps the gap with respect to the vertical axis, and the blocking bar is configured to block the agricultural product within the cavity from passing through the gap along an upstream direction.

Abstract: A bale wrap assembly loading system for an agricultural harvester includes a storage compartment configured to store bale wrap assemblies. The storage compartment includes a frame, a bale wrap support rotatably coupled to the frame at a pivot point, a first bale wrap mount coupled to the bale wrap support and configured to support one or more first bale wrap assemblies, and a second bale wrap mount coupled to the bale wrap support and configured to support one or more second bale wrap assemblies. The bale wrap support is configured to rotate about the pivot point to orient the bale wrap support at a first loading angle to facilitate receiving the one or more first bale wrap assemblies at a loading location and to orient the bale wrap support at a second loading angle to facilitate receiving the one or more second bale wrap assemblies at the loading location.

Abstract: A mat leveling system for a conveying system of an agricultural harvester includes a first outlet roller configured to support a first belt of a pair of opposing belts. The mat leveling system also includes a second outlet roller configured to support a second belt of the pair of opposing belts. Furthermore, the mat leveling system includes a first mounting assembly configured to enable movement of the first outlet roller relative to the second outlet roller and to urge the first outlet roller toward the second belt to reduce variations in a thickness of a mat of agricultural product, a second mounting assembly configured to enable movement of the second outlet roller relative to the first outlet roller and to urge the second outlet roller toward the first belt to reduce the variations in the thickness of the mat of the agricultural product, or a combination thereof.

Abstract: A crop bale ejecting method comprising: opening a baler tailgate to a first position; ejecting the bale from the chamber; reducing/stopping rearward momentum of the bale; moving the tailgate to a second position not in contact with the bale; moving the baler forward; and closing the tailgate. Reducing/stopping the bale momentum comprises one or more of: opening the tailgate to the first position and stopping at the first tailgate position with the bale contacting the tailgate then moving the tailgate to the second position; opening the tailgate at a reduced speed to the first position then opening the tailgate at an increased speed to the second position after the tailgate clears the bale, and positioning a tailgate ramp horizontally or inclined downward in the forward direction to receive the bale as the bale ejects from the baling chamber. A crop baler configured to perform the method is also provided.

Abstract: A control system for an agricultural baler includes a controller configured to receive a bale wrap signal indicative of a type of a bale wrap. The controller is also configured to determine whether the bale wrap is segmented or continuous based on the type. Furthermore, the controller is configured to control a braking system to establish a tension force at a weakened section of the bale wrap sufficient to separate a first portion disposed about a bale from a second portion disposed about a shaft in response to determining the bale wrap is segmented and the weakened section is positioned between the shaft and the bale. In addition, the controller is configured to control a cutting system of the agricultural baler to cut the bale wrap in response to determining the bale wrap is continuous and a target section of the bale wrap is positioned at the cutting system.

Abstract: A monitoring system for a conveying system of an agricultural harvester includes a controller configured to receive a sensor signal indicative of a thickness of a mat of agricultural product formed by a pair of opposing belts. The controller is also configured to determine a volume of the mat based on the thickness, identify variations in the thickness of the mat along a translational direction of the mat, identify variations in the thickness of the mat along a lateral direction crosswise to the translational direction, or a combination thereof. Furthermore, the controller is configured to output an output signal based on the volume of the mat, the variations in the thickness of the mat along the translational direction, the variations in the thickness of the mat along the lateral direction, or the combination thereof.

Abstract: A conveying system for an agricultural harvester includes a leveling drum assembly configured to be positioned upstream of a belt configured to move agricultural product from an accumulator to a bale formation cavity of a baler. The leveling drum assembly is configured to rotate in an opposite direction relative to a direction of rotation of the belt, and the leveling drum assembly is configured to level a surface of the agricultural product before the surface of the agricultural product engages the belt. The leveling drum assembly includes a drum configured to rotate about a first axis of rotation. The leveling drum assembly includes a shaft disposed within the drum and configured to rotate about a second axis of rotation offset from the first axis of rotation. The leveling drum assembly also includes multiple tines pivotally coupled to the shaft and configured to extend through respective apertures in the drum.

Abstract: In an embodiment, a medium voltage drive system includes a transformer, multiple power cubes each coupled to the transformer, and a manifold assembly. Each power cube includes cold plates each coupled to a corresponding switching device of the cube, an inlet port in communication with a first one of the cold plates and an outlet port in communication with a last one of the cold plates. The manifold assembly can support an inlet conduit and an outlet conduit and further support first and second connection members to enable blind mating of each of the first connection members to the inlet port of one of the power cubes and each of the second connection members to the outlet port of one of the power cubes to enable two phase cooling of the plurality of power cubes.

Abstract: An underside cooling arrangement and method for a vehicle includes an underside component mounted to the underside of the vehicle, and an airflow directing member that directs airflow generated when the vehicle is moving in a forward direction to a location rearward of the underside component. The airflow that is directed to the location rearward of the underside component creates a vacuum that draws an auxiliary airflow near the underside component for cooling thereof.

Abstract: A fuel nozzle configured to channel fluid toward a combustion chamber within a gas turbine engine and a method for assembling the same are provided. The fuel nozzle includes a first hollow tube fabricated from a first material that has a first coefficient of thermal expansion and a second tube fabricated from a second material that has a second coefficient of thermal expansion that is different from the first coefficient of thermal expansion. The second tube is coupled within the first tube such that the first tube substantially circumscribes the second tube, and the second tube thermally expands approximately at a same rate as the first tube during fuel nozzle operation.

Abstract: A fuel nozzle for use with a combustion chamber defined within a gas turbine engine and a method for assembling the same are provided. The fuel nozzle includes a swirler assembly and a burner tube that is coupled to a support flange in a detachable manner such that an inner surface of the burner tube circumscribes an outer surface of the swirler assembly during fuel nozzle operation.

Abstract: In an embodiment, a medium voltage drive system includes a transformer, multiple power cubes each coupled to the transformer, and a manifold assembly. Each power cube includes cold plates each coupled to a corresponding switching device of the cube, an inlet port in communication with a first one of the cold plates and an outlet port in communication with a last one of the cold plates. The manifold assembly can support an inlet conduit and an outlet conduit and further support first and second connection members to enable blind mating of each of the first connection members to the inlet port of one of the power cubes and each of the second connection members to the outlet port of one of the power cubes to enable two phase cooling of the plurality of power cubes.

Abstract: A fuel nozzle having a dedicated circuit to cool the diffusion tip with lower part count and reduced complexity. More specifically, the proposed design uses an independent circuit to cool the tip with diffusion fuel or purge air. An impingement plate may be provided to augment the cooling effect.

Abstract: A swirl vane is independently connectable to a central hub assembly of a gas turbine. The swirl vane includes a structural body and at least one fuel delivery passage including a corresponding at least one fuel port defined within the structural body. At least one connecting tab is cooperable with the structural body and is connectable to the central hub assembly.