The present disclosure relates generally to an accessory mounting system for a work vehicle.
Certain work vehicles (e.g., tractors, harvesters, skid steers, or the like) may be used to plow a field, till land, move earth, or accomplish other construction and/or agricultural operations. For example, one or more implements may be coupled to the work vehicle to accomplish such agricultural and/or construction operations. In such cases, the implement may be coupled to the work vehicle via various members (e.g. hoses, hydraulic cylinders, pivot arm, or the like). Additionally, certain members are lubricated or oiled to promote their longevity. During operation these members are exposed to dirty environments causing dirt and/or other contaminants to collect on the oiled (e.g., lubricated) members. The duration between regular maintenance of the members may be reduced, thereby decreasing maintenance costs.
In one embodiment, an accessory mounting system for a work vehicle includes a first mount extending from a lateral side of a body of the work vehicle, in which the first mount is configured to couple to a first end of a rotatable component to rotatably couple the rotatable component to the body of the work vehicle. Further, the accessory mounting system includes a cover assembly having a cover, in which the cover assembly is coupled to the lateral side of the body of the work vehicle, and at least a portion of the cover is positioned laterally outward from the first mount such that the first end of the rotatable component is disposed between the lateral side of the body of the work vehicle and the portion of the cover while the first end of the rotatable component is coupled to the first mount.
In another embodiment, an accessory mounting system for a work vehicle includes a tubing system positioned on a lateral side of a body of the work vehicle. The accessory mounting system also includes a cover assembly including a cover, in which the cover assembly is coupled to the lateral side of the body of the work vehicle, and at least a portion of the cover is positioned laterally outward from the tubing system such that a portion of the tubing system is disposed between the lateral side of the body of the work vehicle and the portion of the cover.
In a further embodiment, a cover assembly for a work vehicle, includes a cover coupled to a lateral side of a body of the work vehicle, in which a portion of the cover is configured to be positioned laterally outward from an element such that the element is disposed between the lateral side of the body of the work vehicle and the portion of the cover, and the element includes a first end of a rotatable component, a portion of a tubing system, or a combination thereof. Further, the cover assembly for the work vehicle includes a deflector configured to be positioned forward of the element relative to a direction of travel of the work vehicle.
These and other features, aspects, and advantages of the present disclosure will become better understood when the following detailed description is read with reference to the accompanying drawings in which like characters represent like parts throughout the drawings, wherein:
Turning to the drawings,
The cab 120 is configured to house an operator of the work vehicle 100. Accordingly, various controls, such as the illustrated hand controller 105, are positioned within the cab 120 to facilitate operator control of the work vehicle 100. For example, the controls may enable the operator to control rotational speed of the tracks 111, thereby facilitating adjustment of the speed and/or direction of travel 8 of the work vehicle 100. In the illustrated embodiment, the cab 120 also includes a door 104 to facilitate ingress and egress of the operator from the cab 120. In addition, the controls may facilitate operator control of the front and rear tools. While the illustrated work vehicle 100 includes a blade as the front tool, it should be appreciated that in alternative embodiments, the work vehicle may include a tilling assembly or a gripper assembly, among others, as the front tool. Furthermore, while the illustrated work vehicle 100 includes the accessory assembly 200 as the rear tool, it should be appreciated that in alternative embodiments, the work vehicle may include a tilling assembly or a gripper assembly, among others, as the rear tool.
As discussed in detail below, the work vehicle 100 may include an accessory mounting system configured to couple an accessory assembly (e.g., including the rear tool) to the work vehicle. The accessory mounting system may include a cover assembly configured to block dirt and/or other contaminants from impacting the hoses and/or the components of the accessory assembly, thereby reducing maintenance costs (e.g., by reducing contamination of the lubricant etc.). The accessory mounting system may enable the components of the necessary assembly to rotate relative to the chassis 103 about a lateral axis 3 in pitch 6 via a pivotal attachment. Furthermore, the accessory mounting system may substantially block rotation of the components of the accessory assembly relative to the chassis 103 about a longitudinal axis 2 in roll 5 and about a vertical axis 1 in yaw 4.
As discussed in detail below, in the current embodiment, the accessory assembly 200 is attached to each lateral side 121 of the work vehicle 100 via pivot joints. In the illustrated embodiment, a first end of each hydraulic cylinder 230 is pivotally coupled to a respective lateral side of the chassis via a respective pivot joint. In addition, each arm 210 is pivotally coupled to a respective lateral side of the chassis via a respective pivot joint. Accordingly, the arms 210 and hydraulic cylinders 230 may rotate relative to the chassis 103 about the lateral axis 3 in pitch 6 via the respective pivot joints, which are coupled to the first end of each hydraulic cylinder 230 and the first end of each arm 210. The pivotal attachment configuration of the first ends of the hydraulic cylinders 230 and the arms 210 may substantially reduce the rotation of the ripper 201 relative to the chassis 103 about the longitudinal axis 2 in roll 5 and about the vertical axis 1 in yaw 4. The arms 210 and the hydraulic cylinders 230 enable the ripper 201 to translate along the vertical axis 3. The hydraulic cylinders 230 may control the vertical position of the ripper 201 along the vertical axis 1. In further embodiments, the pivot joints between the ripper 201 and the chassis 103 may be any suitable type of rotatable connectors (e.g., slip rings, swivels, rotatable pins, etc.). Furthermore, other suitable actuators (e.g., screw jacks, electric motors, pneumatic actuators, etc.) may be used instead of or in addition to the hydraulic cylinders 230.
Because of the proximity of the tracks 111 to the pivotal attachments of the first ends of the hydraulic cylinders 230 and the arms 210, the tracks 111 my expel debris (e.g., dirt, mud, etc.) towards the pivotal attachments. The pivot joint(s) (e.g., mount) attaching the rotatable component(s) to the lateral side of the body of the work vehicle may be disposed between the lateral side 121 of the body of the work vehicle 100 and a portion of a cover assembly. In the illustrated embodiment, the rotatable components include an arm 210 and hydraulic cylinder 230 pivotally attach the ripper 201 to the lateral side 121 of the body of the work vehicle 100. Accordingly, the cover assembly 300, which covers and houses the mounting components (e.g., pivot joints, first ends of the arms and cylinders, hoses, etc.) that attach the ripper 201 to the lateral side 121 of work vehicle 100, may block the debris from impacting the connectors. As a result, preventing dirt from coming into contact with oiled and/or lubricated members, thereby reducing maintenance costs.
Furthermore, the deflector 310 follows the front edge of the cover 303 and then curves inside the cover 303 to form a sweeping shape. The cover and the deflector form part of a housing between the deflector 310, the cover 303, and the lateral side of the body of the work vehicle. In the current embodiment, the sweeping shape formed by the deflector 310 is an “L-like” shape after tracing the front edge of the cover 303, but in other embodiments the deflector may form a rectangular, triangular, or zig-zag shape, for example, such that a housing is formed between the deflector 310, the cover 303, and the lateral side of the body of the work vehicle. Connectors 233 of the hydraulic lines 231 are disposed within the housing 309 and may be attached to corresponding connectors on the lateral side of the body of the work vehicle. It should be appreciated that in additional embodiments, the housing formed between the deflector 310, the cover 303, and the lateral side of the body of the work vehicle may house any number of suitable components for additional protection from the dirty operating environment of the work vehicle. Further, the connectors may be entirely enclosed within the housing formed between the deflector 310, a portion of the cover 303, and the lateral side of the body of the work vehicle. As such, the housing may be large enough to house the connectors and/or other suitable components.
The hydraulic cylinder 230 is coupled to cover 303 by inserting the pin 212 through cover hole 306 and into the first end 238 of the hydraulic cylinder 230. An anti-rotation mechanism 321 is configured to couple the pin 212 to the cover 303 via a fastener 323 (e.g., head lock screw, barrel nut, threaded screw, etc.) that extends through cover hole 307. The anti-rotation mechanism 321 blocks rotation of the pin 212, thereby enabling the hydraulic cylinder 230 to rotate about pin 212, which extends through the opening 236 at the first end 238 of the hydraulic cylinder 238. Fastener 323 is coupled to the cover 303 by a nut 324 with washers 324 disposed on opposite sides of the anti-rotation device. Collectively, these components form a first mount that mounts a first end of the hydraulic cylinder to the lateral side of the body of the work vehicle. In additional embodiments the anti-rotation mechanism 321 may be omitted.
The arm 210 is coupled to the cover 303 by inserting pin 212 through the cover hole 304 and an opening 216 in the first end 218 of the arm 210. An anti-rotation mechanism 321 is configured to couple the pin 212 to the cover 303 via a fastener 323 (e.g., head lock screw, threaded screw, etc.) that extends through the cover hole 306. The anti-rotation mechanism 321 blocks rotation of the pin 212, thereby enabling the arm 210 to rotate about the pin 212, which extends through the opening 216 at first end 218 of arm 210. The fastener 323 is coupled to the cover 303 by a nut 324 with washers 324 disposed on opposite sides of the anti-rotation device. Collectively, these components form a second mount that mounts a first end of the arm to the lateral side of the body of the work vehicle. In additional embodiments, the anti-rotation mechanism 321 may be omitted.
The hydraulic hoses 231 are configured to connect at one end to the hydraulic cylinder 230 and to connect to connectors 233 at the other end. The connectors 233 are connected to respective hydraulic lines that extend through to the lateral side 121 of the body of the work vehicle and are configured to transfer fluid to and/or from a hydraulic source. In the illustrated embodiment, the hydraulic hoses 231 are coupled to the deflector 310, thereby positioning the connectors 233 to be housed in the housing form between the deflector 310. Further, the connectors may be entirely enclosed inside the housing formed between the deflector 310, the cover 303, and the lateral side of the body of the work vehicle. As such, the housing may be large enough to house the connectors and/or other suitable components.
The deflector 310 is includes an opening 314 to couple an end of the hydraulic hoses to the deflector 310. In additional embodiments, the opening(s) 314 may be placed in any other suitable location. Furthermore, the deflector 310 follows the front edge of the cover 303 and then curves inside the cover 303 to form a sweeping shape. The cover and the deflector form part of a housing between the deflector 310, a portion of the cover 303, and the lateral side of the body of the work vehicle. In the current embodiment, the sweeping shape is collectively formed by the angled section 311 and curved perpendicular section 312 of the deflector 310. The sweeping shape is an “L-like” shape, but in other embodiments, the deflector may form a rectangular, triangular, or zig-zag shape, for example, such that a housing is formed between the deflector 310, a portion of the cover 303, and the lateral side of the body of the work vehicle.
The angle of the sweeping surface of the deflector is about 90 degrees relative to the lateral side 121 of the body of the work vehicle, but may be oriented at any suitable range of angles (e.g., from 15 to 135 degrees along any section of the sweeping path). The cover 303 includes an arm pivot hole 304, an arm fastener hole 306, a hydraulic cylinder pivot hole 305, and a hydraulic cylinder fastener hole 307. In additional embodiments of the cover assembly, more or fewer holes may be included to secure certain members to the cover 303. The number and kinds of holes may differ (e.g., depending on the type of connection) to accommodate certain fixtures. The deflector 310 includes the opening 314 to couple the hydraulic hoses to the deflector 310, thereby positioning the connectors to be housed in the housing formed between the deflector 310, the lateral side of the body of the work vehicle, and the cover 303.
While only certain features have been illustrated and described herein, many modifications and changes will occur to those skilled in the art. It is, therefore, to be understood that the appended claims are intended to cover all such modifications and changes as fall within the true spirit of the disclosure.