Abstract: A controller communicates with a user interface and sends a first signal to a first actuator to unlock a first lock, sends a second signal to move a first ground-engaging implement into a stowed position, sends a third signal to the first actuator to lock first lock to retain the first ground-engaging implement in the stowed position, sends a fourth signal to inhibit flow through a first hose with a flow blocking element, sends a fifth signal to a second actuator to unlock a second lock, sends a sixth signal to move a second ground-engaging implement into a deployed position, sends a seventh signal to the second actuator to lock the second lock to retain the second ground-engaging implement in the deployed position, and sends an eighth signal to a second flow blocking element to permit flow through a second hose around the flow blocking element.

Abstract: A controller communicates with a user interface and sends a first signal to a first actuator to unlock a first lock, sends a second signal to move a first ground-engaging implement into a stowed position, sends a third signal to the first actuator to lock first lock to retain the first ground-engaging implement in the stowed position, sends a fourth signal to inhibit flow through a first hose with a flow blocking element, sends a fifth signal to a second actuator to unlock a second lock, sends a sixth signal to move a second ground-engaging implement into a deployed position, sends a seventh signal to the second actuator to lock the second lock to retain the second ground-engaging implement in the deployed position, and sends an eighth signal to a second flow blocking element to permit flow through a second hose around the flow blocking element.

Abstract: Wind speed, wind direction, and field boundary information are detected and used to identify a monitor area indicative of a likely overspray condition. Control signals are generated to obtain information from a sprayed substance sensor, in the monitor area. When an overspray condition is detected, an overspraying signal from the sprayed substance sensor indicating the detected overspray condition is received and overspray processing is performed, based upon the received overspray signal.

Abstract: An agricultural sprayer includes at least one nozzle configured to receive a liquid and direct atomized liquid to an agricultural field in a dispersal area. A thermal imager is operably coupled to the agricultural sprayer and has a field of view behind the agricultural sprayer. The thermal imager is configured to provide an indication of a thermal reaction of the agricultural field in response to application of the atomized liquid. An output of the thermal imager is used to characterize operation of the at least one nozzle.

Abstract: Wind speed, wind direction, and field boundary information are detected and used to identify a monitor area indicative of a likely overspray condition. Control signals are generated to obtain information from a sprayed substance sensor, in the monitor area. When an overspray condition is detected, an overspraying signal from the sprayed substance sensor indicating the detected overspray condition is received and overspray processing is performed, based upon the received overspray signal.