Systems and methods for controlling a tread width and tread width state of a mitigation tread width controller for an agricultural work vehicle
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.
1. A system for changing tread width, the system comprising:
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 having:
a crop row sensor configured to generate crop plant data indicative of a location of each crop plant of a plurality of crop plants; and
a mitigation tread width controller configured to selectively change the tread width of the opposing ground engaging elements of the agricultural work vehicle, the mitigation tread width controller having an inactive state in which the mitigation tread width controller cannot change the 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,
wherein an evaluation of the crop plant data yields a spacing between crop plants of the plurality of crop plants along a row of the plurality of crop plants; and
wherein the inactive state and the active state are determined based on a comparison of the spacing to an in-row spacing setting, the spacing failing to satisfy the in-row spacing setting in the inactive state and the spacing satisfying the in-row spacing setting in the active state.
2. The system for changing tread width of claim 1 , which further includes a steer angle sensor configured to generate steering data indicative of a steer angle of one of the opposing ground engaging elements.
3. The system for changing tread width of claim 2 , wherein the mitigation tread width command is based on the steer angle.
4. The system for changing tread width of claim 3 , wherein the mitigation tread width command is also based on a distance between at least one crop plant of the plurality of crop plants and the one of the opposing ground engaging elements, the distance determined from the crop plant data.
5. The system for changing tread width of claim 3 , wherein the mitigation tread width command is also based on a speed of the agricultural work vehicle.
6. The system for changing tread width of claim 1 , wherein the mitigation tread width controller transitions from the active state to the inactive state based upon a detection by the mitigation controller that the spacing between crop plants is approximately equal to the in-row spacing setting.
7. The system for changing tread width of claim 1 , wherein the agricultural work vehicle includes a vehicle controller, wherein the vehicle controller includes the mitigation tread width controller, and wherein the vehicle controller is configured to return the tread width of the opposing ground engaging elements to a default tread width when the mitigation tread width controller transitions from the active state to the inactive state.
8. The system for changing tread width of claim 1 , which further includes a tread width actuator coupled to at least one of the opposing ground engaging elements, wherein the mitigation tread width controller is configured to selectively change the tread width of the opposing ground engaging elements of the agricultural work vehicle using the tread width actuator, wherein when the mitigation tread width controller is in the inactive state, the tread width actuator is returned to a default state.
9. An agricultural tread width system comprising:
an agricultural work vehicle having opposing ground engaging elements;
a tread width actuator coupled to at least one of the opposing ground engaging elements and configured to change a tread width of the opposing ground engaging elements;
a first crop row sensor affixed to the agricultural work vehicle and configured to generate first crop plant data indicative of a location of each first crop plant of a plurality of first crop plants; and
a mitigation tread width controller configured to selectively change the tread width of the opposing ground engaging elements to avoid the plurality of first crop plants, the mitigation tread width controller inhibited from regulating the tread width of the opposing ground engaging elements when an evaluation of the first crop plant data indicates a spacing between adjacent first crop plants of the plurality of first crop plants does not satisfy an in-row spacing setting.
10. The agricultural tread width system of claim 9 , which further includes a first steer angle sensor configured to generate first steer angle data indicative of a first steer angle of a first ground engaging element of the opposing ground engaging elements, wherein the mitigation tread width controller is configured to command the tread width actuator based on the first steer angle of the first ground engaging element of the opposing ground engaging elements.
11. The agricultural tread width system of claim 9 , wherein the mitigation tread width controller commands the tread width actuator to change the tread width of the opposing ground engaging elements when the at least one of the opposing ground engaging elements is in proximity to at least one of the first crop plants of the plurality of first crop plants based on the first crop plant data.
12. The agricultural tread width system of claim 10 , wherein the first steer angle sensor is a sensor affixed to measure a first kingpin angle of the first ground engaging element of the opposing ground engaging elements.
13. The agricultural tread width system of claim 10 , wherein the first crop row sensor is affixed to the agricultural work vehicle in proximity to the first ground engaging element of the opposing ground engaging elements, and further including a second crop row sensor affixed to the agricultural work vehicle in proximity to a second ground engaging element of the opposing ground engaging elements and configured to generate second crop plant data indicative of a location of each second crop plant of a plurality of second crop plants, the mitigation tread width controller inhibited from regulating the tread width of the opposing ground engaging elements when the evaluation of the first crop plant data and an evaluation of the second crop plant data indicates at least one of the spacing between adjacent first crop plants of the plurality of first crop plants and a spacing between adjacent second crop plants of the plurality of second crop plants does not satisfy an in-row spacing setting.
14. The agricultural tread width system of claim 13 , which further includes a second tread width actuator coupled to the second ground engaging element and configured to change a tread width of the second ground engaging element.
15. The agricultural tread width system of claim 9 , which further includes a vehicle controller including the mitigation tread width controller.
16. A method for mitigating damage to a row crop by regulating a tread width of opposing ground engaging elements of an agricultural work vehicle, the opposing ground engaging elements each sized to traverse a field surface adjacent respective rows of crops, the method comprising:
sensing a location of each crop plant of a plurality of crop plants along at least one row of the respective rows of crops to generate crop plant data;
determining, using a computing system and based on an evaluation of the crop plant data, a spacing between crop plants of the plurality of crop plants along the at least one row;
comparing, using the computing system, the spacing to an in-row spacing setting stored in the computing system; and
upon determining, using the computer system, that the spacing fails to satisfy the in-row spacing setting, inhibiting the tread width of the opposing ground engaging elements to be changed by a mitigation tread width controller.
17. The method of claim 16 , which further includes determining a steer angle of at least one of the ground engaging elements of the opposing ground engaging elements.
18. The method of claim 17 , which further includes commanding a tread width actuator to change the tread width of the opposing ground engaging elements based on the steer angle when the opposing ground engaging elements are in proximity to at least one crop plant of the plurality of crop plants based on the crop plant data.
19. The method of claim 16 , which further includes commanding a tread width actuator to change the tread width of the opposing ground engaging elements based on a distance determined from the crop plant data between at least one of the opposing ground engaging elements and at least one crop plant of the plurality of crop plants.
20. The method of claim 16 , which further includes upon determining that the spacing fails to satisfy the in-row spacing setting, returning a tread width actuator to a default state.