Methods for delayed harvesting of corn fields are provided herein. These methods provide an extended, flexible period of time to harvest corn. The methods allow growers to harvest their corn at the optimal time for drying down or accessing seed, without increasing the risk of losing yield to lodging.

A system for monitoring agricultural sprayer operation includes a boom and a nozzle mounted on the boom, with the nozzle configured to dispense a fan of an agricultural fluid as the agricultural sprayer travels across a field. Additionally, the system includes an imaging device configured to capture image data depicting the dispensed fan of the agricultural fluid and a controller communicatively coupled to the imaging device. The controller is, in turn, configured to analyze the captured image data to determine a parameter associated with a shape of the dispensed spray fan. Moreover, the controller is configured to compare the determined parameter to a predetermined parameter range. Furthermore, the controller is configured to; and initiate a control action when the determined parameter falls outside of a predetermined parameter range.

An unmanned aerial vehicle for application of an active ingredient to agricultural crops is configured to hold: a liquid comprising the active ingredient in at least one liquid reservoir housed within or attached to the unmanned aerial vehicle. At least one liquid application unit is housed within or attached to the unmanned aerial vehicle and in fluid communication with the at least one liquid reservoir. The housing of at least one sensor unit which is configured to determine sense information comprising sensing a functioning of one or more of: the at least one liquid reservoir, the at least one liquid application unit, the at least one operating unit. A processing unit determines an instruction to the unmanned aerial vehicle to dock with a base station and get a service from the base station. This determination step comprises utilization of sense information.

A system includes a fluid supply line, a plurality of nozzle assemblies positioned and oriented to spray portions of a target, and a plurality of electrically actuated valve assemblies configured to control fluid flow to the nozzle assemblies. The system also includes a controller connected in communication with the plurality of electrically actuated valve assemblies and configured to individually actuate the valve assemblies between a closed position and an open position. The controller is configured to receive an orientation of each nozzle assembly relative to the target and determine a duty cycle of each valve assembly based on the orientation of the respective nozzle assembly. The controller is configured to actuate each valve assembly based on the respective orientation to provide a desired fluid characteristic of the fluid emitted from the respective nozzle assembly.

A spray boom for spraying a fluid on a target includes a boom frame and a spray section coupled to the boom frame. The spray section includes a spray pipe configured to be fluidly coupled to a fluid source and a nozzle coupled to the spray pipe and configured to be fluidly coupled to the fluid source. An actuator is coupled at one end to the boom frame and at an opposite end to the spray section. The actuator is controllably extending and retracting to move the spray pipe and nozzle between a raised position and a lowered position. A trip assembly is coupled between the boom frame and actuator for biasing the spray section to a biased position in which the actuator and nozzle are substantially perpendicular to the underlying surface.

A wheel-mounting assembly for a utility vehicle includes a chassis and a wheel support assembly mounted to respective outboard ends of first and second telescopic axle assemblies. The first and second telescopic axle assemblies are laterally spaced from one another and are each secured to the chassis. The first and second telescopic axle assemblies each include a respective actuator arranged to control extension and retraction thereof for steering and track-width control.

An agricultural work vehicle is provided with crawler travel parts, support platform frames, a front/back structure, an engine, a hydraulic pump, a tank frame, and an injection nozzle unit. The crawler travel parts travel so as to hold a plant therebetween in the left/right direction. The support platform frames are disposed as a left/right pair, respectively overlapping with the left/right crawler travel parts in plan view. The front/back structures each include a left frame, a right frame, and a coupling frame. The engine is disposed at the left or right support platform frame. The hydraulic pump is disposed on the same side, out of the left and right support platform frames, as the engine, and is driven by the engine. A hydraulic oil tank is located on the opposite side in the left/right direction from the left support platform frame where the engine is disposed, and stores hydraulic oil to be supplied to the hydraulic pump.

A system and method of protecting plants while spraying having a hood mounted to a farm implement and positioned between plant rows and below plant vegetation. Extending through the hood into a hollow chamber is a hydraulic fitting having a spray nozzle. Heated water is supplied to the hydraulic fitting.

An agricultural device and a method for dispensing a liquid product over a surface. The device includes at least one boom and a plurality of nozzles positioned along the boom, a pressure regulation unit including a nozzle controller configured for controlling the opening and closing of one or more associated nozzles, and an inclination detection means for determining an inclination of the longitudinal supply line with respect to a horizontal. The pressure regulation unit and/or the at least one nozzle controller is configured to calculate nozzle operation data for each associated nozzle involving inclination data transmitted by the inclination detection means and the position of the nozzle on the longitudinal supply line, and the nozzle controller is configured to operate the nozzles based on the calculated nozzle operation data to obtain a homogeneous spraying of the liquid product over a surface of a field to be sprayed.

An agricultural machine includes a product application system comprising a plurality of actuatable applicator mechanisms. Each actuatable applicator mechanism configured to apply a substance on a field. An imaging system is configured to obtain image data indicative of plant matter on the field. A control system is configured to control one or more of the actuatable applicator mechanisms to apply the substance to a dispersal area on the field based on the image data, and generate a user interface display that displays a field map including a display element that represents the dispersal area on the field.