Abstract: A system for controlling the operation of an agricultural sprayer includes a boom assembly having a boom arm and a nozzle assembly supported on the boom arm. Furthermore, the system includes a sensor configured to generate data indicative of a position of the boom arm relative to the frame. Additionally, a computing system is configured to determine the position of a portion of the boom arm relative to the frame in a plane defined by a longitudinal direction and a vertical direction based on the data generated by the sensor. The longitudinal direction is parallel to the travel direction and perpendicular to the lateral direction, while the vertical direction is perpendicular to the lateral direction and the travel direction. Additionally, the computing system is configured to control the operation of the nozzle assembly based on the determined position of the portion of the boom arm relative to the frame.

Abstract: A system for controlling an operation of an agricultural sprayer includes a boom assembly having a frame, a boom arm coupled to the frame, and a nozzle assembly supported on the boom arm. Furthermore, the system includes a sensor configured to generate data indicative of a position of the boom arm relative to the frame in a plane defined by a lateral direction and a vertical direction, which are perpendicular to a travel direction of the sprayer. Additionally, a computing system is configured to determine the position of the nozzle assembly relative to the frame in the plane defined by the lateral direction and the vertical direction based on the data generated by the sensor. Additionally, the computing system is configured to control an operation of the nozzle assembly based on the determined position of the nozzle assembly relative to the frame.

Abstract: A system for a boom assembly can include a cylinder including a piston rod and a housing. The cylinder can be operably coupled between a first boom section and a second boom section of the boom assembly. A control circuit can be fluidly coupled with the cylinder. The control circuit includes a first pressure relief assembly including a first pressure relief valve and a first flow control device. The first flow control device can be positioned between the cylinder and the first pressure relief valve in the control circuit.

Abstract: A system can include a boom assembly operably coupled with a chassis. A first actuator can be operably coupled with a first pair of sections of the boom assembly. A second actuator can be operably coupled with a second pair of sections of the boom assembly. A sensor system can be configured to capture data indicative of one or more operating conditions of the boom assembly. A computing system can be communicatively coupled to the first actuator, the second actuator, and the sensor system. The computing system can be configured to receive the data from the sensor system, determine a current boom profile of the boom assembly, determine a current ground profile relative to the boom assembly, and determine a first position for the first actuator to place the boom assembly in a target boom profile.

Abstract: A system for a boom assembly can include a cylinder including a piston and a housing. The cylinder can be operably coupled between a first boom section and a second boom section of the boom assembly. A control circuit can be fluidly coupled with the cylinder. The control circuit can include a directional control valve configured to control a position of the cylinder, a first pressure relief assembly including a first pressure relief valve operably coupled with a rod side of the housing, and a second pressure relief assembly including a second pressure relief valve operably coupled with a base side of the housing.

Abstract: In one aspect, the present subject matter is directed to a system which includes a row crop mitigation system configured to mitigate damage to a row crop by regulating a tread width of opposing ground engaging elements of an agricultural work vehicle. The row crop mitigation system includes a crop row sensor configured to generate crop plant data, as well as a mitigation tread width controller configured to selectively change the tread width of the opposing ground engaging elements. The mitigation tread width controller having an inactive state in which the mitigation tread width controller does not change a tread width of the opposing ground engaging elements, and an active state in which the mitigation tread width controller is configured to generate a mitigation tread width command to change the tread width of the opposing ground engaging elements.

Abstract: In one aspect, the present subject matter is directed to a system which includes a row crop mitigation system configured to mitigate damage to a row crop by changing a steer angle of a ground engaging element of an agricultural work vehicle. The row crop mitigation system includes a crop row sensor configured to generate crop plant data, as well as a mitigation steering controller configured to selectively change the steer angle of the ground engaging element of the agricultural work vehicle. The mitigation steering controller having an inactive state in which the mitigation steering controller does not change a steer angle of the ground engaging element, and an active state in which the mitigation steering controller is configured to generate a mitigation steer angle command to change the steer angle of the ground engaging element.

Abstract: A system for an agricultural operation includes a first vehicle having an object sensor configured to capture data associated with one or more objects within the field and a location sensor configured to capture data associated with a location of each of the one or more objects. A computing system is communicatively coupled with the object sensor and the location sensor. The computing system is configured to identify at least one of the one or more objects as a weed, classify each of the identified weeds in a first set of weeds or a second set of weeds, and generate a weed map based on the classification of each of the first set of weeds and the second set of weeds.

Abstract: An agricultural sprayer system is provided herein that can include a boom assembly having a frame and a boom arm operably coupled with the frame at one end portion thereof. Outer and inner nozzle assemblies can each be supported by the boom arm. The inner nozzle assembly is inboard of the outer nozzle assembly. A sensor can be operably coupled with the boom assembly and configured to capture data associated with the boom arm. A computing system can be communicatively coupled to the sensor. The computing system can be configured to calculate a boom arm movement from a default axis based on the data from the sensor and regulate the outer and inner nozzle assemblies at differing flow rates when the movement exceeds a predefined range.

Abstract: A suspension control system can include a chassis and a suspension component operably coupled with the chassis. A boom assembly can be operably coupled with the chassis. One or more sensors can be configured to generate data indicative of a chassis orientation or boom assembly orientation relative to a level axis. A computing system can be communicatively coupled to the one or more sensors. The computing system can be configured to calculate an offset angle based on data from the one or more sensors, compare the offset angle to a defined correction threshold, and generate instructions to actuate the suspension component to lower the suspension component relative to a ground surface by a correction factor when the offset angle exceeds the defined correction threshold.

Abstract: A suspension control system can include a chassis and a suspension component operably coupled with the chassis. A boom assembly can be operably coupled with the chassis. One or more sensors can be configured to generate data indicative of a chassis orientation or boom assembly orientation relative to a level axis. A computing system can be communicatively coupled to the one or more sensors. The computing system can be configured to calculate an offset angle based on data from the one or more sensors, compare the offset angle to a defined correction threshold, and generate instructions to actuate the suspension component by a correction factor when the offset angle exceeds the defined correction threshold.

Abstract: A suspension control system can include a chassis and one or more wheel assemblies. One or more suspension assemblies can be respectively coupled to the one or more wheel assemblies. A computing system can be communicatively coupled to one or more position sensors and one or more orientation sensors. The computing system can be configured to actuate the actuator of the one or more suspension assemblies to define a stroke, determine a default stroke position based on data from the one or more position sensors, and define a default position of the chassis based on data from the one or more orientation sensors.

Abstract: A system includes a base support positioned within a cab of an agricultural vehicle, a first support arm extending between a first proximal end and a first distal end, a second support arm extending between a second proximal end and a second distal end, a first display coupled to the first distal end, and a second display coupled to the second distal end. The first proximal end is rotatably coupled to the base support about a first axis and the second proximal end is rotatably coupled to the base support about a second axis. The second support arm is rotatable about the second axis along a second path independently of rotation of the first support arm about the first axis along a first path, where the entire first path is spaced radially inwardly from the second path relative to the second axis.

Abstract: A system for an agricultural operation includes a first vehicle equipped with an imaging sensor configured to capture image data associated within a field. A computing system is communicatively coupled with the imaging sensor. The computing system is configured to receive the image data associated with the field, identify one or more objects within the image data as a target, identify one or more objects within the image data as a landmark, determine a location of the target relative to the landmark, and generate a control command for a second vehicle. The control command includes the location of the target relative to the landmark within the field.

Abstract: An agricultural machine includes a lift arm assembly and a boom including at least one support member. A first support member of the at least one support member is coupled to the lift arm assembly. Further, the first support member includes a tube and a hinge inserted into a first end of the tube. The hinge includes an extension portion disposed within the hollow tube and a hinged portion extending upward from a first end of the extension portion. The first end of the extension portion is adjacent the first end of the tube. Further, the first support member is coupled to the lift arm assembly by way of the hinged portion of the hinge.

Abstract: A multi-axis linkage for use with a collapsible boom of an agricultural vehicle is disclosed. The collapsible boom includes a first boom segment having a first truss and a second boom segment having a second truss. The multi-axis linkage includes a first linear motor, a second linear motor, and a multipoint winged link. The first linear motor has a piston rod. An end of the piston rod is coupled to the first truss. The second linear motor has a second piston rod. An end of the second piston rod is coupled to the second truss. The multipoint winged link connects to the first linear motor, the second linear motor, the first boom segment, and the second boom segment.

Abstract: A system for monitoring the operation of an agricultural sprayer includes a computing system is configured to determine a movement parameter associated with the movement of a boom assembly of the agricultural sprayer relative to a frame of the agricultural sprayer based on data captured by a movement sensor. Furthermore, the computing system is configured to determine the distance between a spray nozzle of the agricultural sprayer and the underlying crop canopy or field surface based on data captured by a position sensor. Additionally, the computing system is configured to determine a spray deposition parameter indicative of a rate at which agricultural fluid is deposited on the underlying crop canopy or field surface based on the determined movement parameter and the determined distance.

Abstract: An agricultural vehicle having a chassis and an application boom coupled to the chassis. The agricultural vehicle is configured to deliver agricultural product to an agricultural field. The application boom has a boom arm. The boom arm includes a longitudinal truss member, and a longitudinal chase supported by the longitudinal truss member. The longitudinal chase includes a channel. The agricultural vehicle further includes an application system. The application system has a product tank supported by the chassis and storing a volume of the agricultural product for delivery onto an agricultural field, a plurality of nozzle bodies, a piping system delivering the agricultural product to the plurality of nozzle bodies, and one or more control lines coupled to the plurality of nozzle bodies and for controlling the plurality of nozzle bodies. The one or more control lines are supported by the channel.

Abstract: A boom truss structure for an agricultural sprayer that includes boom segments on either side of the sprayer, including primary boom segments, secondary boom segments attached to the primary boom segments at a first hinge, and breakaway boom segments attached to the secondary boom segments at a second hinge. The primary boom segment includes truss elements extending upwardly from a base support member. The secondary boom also includes a base support member, but with an inverted underside truss support member that is located underneath the base support member instead of on top of the base support member. This allows the secondary boom segment to fold on top of the primary boom segment in a compact manner about a lower pivot axis. Additionally, the breakaway boom segment may be folded initially about the secondary boom segment, after which the secondary boom segment is folded about the primary boom segment.

Abstract: A system for an agricultural operation includes a first vehicle equipped with an imaging sensor configured to capture image data associated within a field. A computing system is communicatively coupled with the imaging sensor. The computing system is configured to receive the image data associated with the field, identify one or more objects within the image data as a target, identify one or more objects within the image data as a landmark, determine a location of the target relative to the landmark, and generate a control command for a second vehicle. The control command includes the location of the target relative to the landmark within the field.