Abstract: An agricultural vehicle includes a frame, a first reservoir coupled to the frame with the first reservoir configured to hold a solvent, a second reservoir coupled to the frame with the second reservoir configured to hold a first solute, and a third reservoir coupled to the frame with the third reservoir configured to hold a second solute different than the first solute. The agricultural vehicle also includes a spray boom coupled to the frame. The spray boom includes a first spray nozzle and a second spray nozzle. The first spray nozzle is independently operable relative to the second spray nozzle such that the first spray nozzle is configured to dispense a first solution comprising the solvent and the first solute onto an agricultural surface and the second spray nozzle is configured to dispense a second solution comprising the solvent and the second solute onto the agricultural surface.

Abstract: A distributed pump system is disclosed. The distributed pump system comprises a supply source and a support structure arranged on or proximate an agricultural vehicle. At least two fluid distribution elements are mounted to the support structure and are coupled at an inlet to a first conduit to provide fluid communication between the fluid distribution elements and the supply source. An application system including at least two application units is coupled to one or more of the fluid distribution elements by a second conduit. A first monitoring device is associated with a respective application unit and fluid distribution element, and is configured to sense a downstream flow parameter of the second conduit and generate a corresponding output signal. An electronic control unit is communicatively coupled to each of the fluid distribution elements and is configured to dynamically adjust an input parameter of one or more of the fluid distribution elements.

Abstract: An agricultural vehicle includes a frame, a first reservoir coupled to the frame with the first reservoir configured to hold a solvent, a second reservoir coupled to the frame with the second reservoir configured to hold a first solute, and a third reservoir coupled to the frame with the third reservoir configured to hold a second solute different than the first solute. The agricultural vehicle also includes a spray boom coupled to the frame. The spray boom includes a first spray nozzle and a second spray nozzle. The first spray nozzle is independently operable relative to the second spray nozzle such that the first spray nozzle is configured to dispense a first solution comprising the solvent and the first solute onto an agricultural surface and the second spray nozzle is configured to dispense a second solution comprising the solvent and the second solute onto the agricultural surface.

Abstract: An example embodiment includes an agricultural sprayer having a boom that supports many sections of fluid distribution pipes and an even larger number of spray nozzles. Various activities related to the spray nozzles are enabled or disabled using infinity switches or slide configurations that are mounted an operator seat armrests or on remote controllers.

Abstract: A distributed pump system is disclosed. The distributed pump system comprises a supply source and a support structure arranged on or proximate an agricultural vehicle. At least two fluid distribution elements are mounted to the support structure and are coupled at an inlet to a first conduit to provide fluid communication between the fluid distribution elements and the supply source. An application system including at least two application units is coupled to one or more of the fluid distribution elements by a second conduit. A first monitoring device is associated with a respective application unit and fluid distribution element, and is configured to sense a downstream flow parameter of the second conduit and generate a corresponding output signal. An electronic control unit is communicatively coupled to each of the fluid distribution elements and is configured to dynamically adjust an input parameter of one or more of the fluid distribution elements.

Abstract: Invention comprises computer instructions that operate on a database so as to cause the computer to perform a cyclical process that utilize a user's information focus as well as the input and output data patterns of software tools to automatically suggest sequences of tools that can create objective datasets.

Abstract: An example embodiment includes an agricultural sprayer having a boom that supports many sections of fluid distribution pipes and an even larger number of spray nozzles. Various activities related to the spray nozzles are enabled or disabled using infinity switches or slide configurations that are mounted an operator seat armrests or on remote controllers.

Abstract: An example embodiment includes an agricultural sprayer having a boom that supports the fluid distribution pipes and spray nozzles. The boom is sectioned and folds in such a way to comply with transport dimension requirements or to facilitate storage. The spray nozzles are alternatively mounted underneath the boom or behind the boom in a way to avoid damage if the boom encounters obstacles; the mounting configurations do not hamper the boom folding for transport.

Abstract: A high power RF energy device component is disclosed that is exposed to high power RF energy in a vacuum environment, and includes a multipactor-inhibiting carbon nanofilm covering at least one surface of the component. A secondary electron emission (SEE) coefficient of the multipactor inhibiting carbon nanofilm is desirably less than a SEE coefficient of the underlying surface of the component.

Abstract: A high power RF energy device component is disclosed that is exposed to high power RF energy in a vacuum environment, and includes a multipactor-inhibiting carbon nanofilm covering at least one surface of the component. A secondary electron efficiency (SEE) coefficient of the multipactor inhibiting carbon nanofilm is desirably less than a SEE coefficient of the underlying surface of the component.

Abstract: A combine having an axial separator that is provided with an outlet. A discharge beater is located adjacent the outlet. The discharge beater can be selectively rotated in response to crop throughput volume. The discharge beater is arranged to convey crop remains thrown out of the axial separator downwardly. The discharge beater is spaced away from the outlet of the axial separator in such a way that it comes into contact with the crop remains only when the axial separator is operating at relatively high throughput volumes.