Abstract: A harvester including a frame supported by a drive assembly for movement along a support surface, a head unit coupled to the harvester and configured to selectively harvest crop material, a camera coupled to the frame and configured to generate one or more images of a field of view, and a controller in operable communication with the camera and the head unit, where the controller is configured to determine one or more crop attributes based at least in part on the one or more images produced by the camera.

Abstract: A method for mapping an agricultural crop in a field is provided. The method comprising receiving signals, with a control unit on an agricultural machine, from a yield sensor, which senses a yield characteristic of the crop, and a processing sensor, which senses a processing characteristic of the crop, associated with an agricultural work machine; determining the presence of a void crop plant using the received signals; determining a location of the void crop plant using at least a time and a location of the agricultural work machine; and generating a void crop map showing the location of the void crop within the field.

Abstract: A method of moving a component of a harvester that includes a topper for cutting top portions of crops, a conveyor for transporting the cut stalks of the crops, a primary hood, and a secondary hood, each of the primary and secondary hoods operable to direct the cut top portions of the crops away from the conveyor. The method includes selecting a cutting mode of operation from the following modes of operation: circular cutting mode and face cutting mode; selecting a crop position from the following crop positions: crop at right and crop at left; selecting at least one component from the following components: the conveyor, the primary hood, or the secondary hood; and in response to selecting at least one component, automatically moving the selected at least one component to one of a first operational position or a second operational position.

Abstract: A method of collecting material with a harvester when a storage vehicle is spaced from the harvester includes moving material from the field into the basket, actuating the conveyor for a first time period when the sensed parameter is above the set amount, transporting a first portion of the material a first distance with the actuated conveyor, after the first time period has elapsed, stopping the conveyor to store the first portion of the material on the conveyor, after the first time period has elapsed, if the conveyor can store more material, actuating the conveyor for a second time period, transporting a second portion of the material a second distance with the actuated conveyor and transporting the first portion of the material a third distance with the actuated conveyor, and if the conveyor cannot store more material, alerting an operator that the conveyor is full.

Abstract: A hood assembly for a fan that has a base section, a discharge nozzle pivotally coupled to the base section, and a motor coupled between the base section and the discharge nozzle.

Abstract: A harvester includes a main frame supported on a ground surface for transport along the ground surface, an inlet for receiving a crop, and a separator for separating the crop into a first portion and a second portion. The separator includes a hood having an outlet, and a fan operable to generate an airflow through the outlet. The hood of the separator is movable relative to the main frame between a transport position and a harvest position. In the transport position, the hood is positioned at a first height above the ground surface. In the harvest position, the hood is positioned at a second height, greater than the first height, above the ground surface.

Abstract: A method of moving a component of a harvester that includes a topper for cutting top portions of crops, a conveyor for transporting the cut stalks of the crops, a primary hood, and a secondary hood, each of the primary and secondary hoods operable to direct the cut top portions of the crops away from the conveyor. The method includes selecting a cutting mode of operation from the following modes of operation: circular cutting mode and face cutting mode; selecting a crop position from the following crop positions: crop at right and crop at left; selecting at least one component from the following components: the conveyor, the primary hood, or the secondary hood; and in response to selecting at least one component, automatically moving the selected at least one component to one of a first operational position or a second operational position.

Abstract: A harvester including a frame supported by a drive assembly for movement along a support surface, a head unit coupled to the harvester and configured to selectively harvest crop material, a camera coupled to the frame and configured to generate one or more images of a field of view, and a controller in operable communication with the camera and the head unit, where the controller is configured to determine one or more crop attributes based at least in part on the one or more images produced by the camera.

Abstract: A harvesting system includes a crop unloading machine having a volume measurement device configured to measure a volume of harvested crops, and a crop transport vehicle including a weight sensor configured to sense a weight of the harvested crops. The crop transport vehicle can receive crops from the crop unloading machine. The crop transport vehicle communicates the sensed weight to the crop unloading machine and the crop unloading machine calculates a crop yield based upon the sensed weight, the volume and a state of the crop unloading machine.

Abstract: A method of collecting material with a harvester when a storage vehicle is spaced from the harvester includes moving material from the field into the basket, actuating the conveyor for a first time period when the sensed parameter is above the set amount, transporting a first portion of the material a first distance with the actuated conveyor, after the first time period has elapsed, stopping the conveyor to store the first portion of the material on the conveyor, after the first time period has elapsed, if the conveyor can store more material, actuating the conveyor for a second time period, transporting a second portion of the material a second distance with the actuated conveyor and transporting the first portion of the material a third distance with the actuated conveyor, and if the conveyor cannot store more material, alerting an operator that the conveyor is full.

Abstract: A harvesting system includes a crop unloading machine having a volume measurement device configured to measure a volume of harvested crops, and a crop transport vehicle including a weight sensor configured to sense a weight of the harvested crops. The crop transport vehicle can receive crops from the crop unloading machine. The crop transport vehicle communicates the sensed weight to the crop unloading machine and the crop unloading machine calculates a crop yield based upon the sensed weight, the volume and a state of the crop unloading machine.

Abstract: A control system for a sugarcane harvester. The sugarcane harvester comprises lower feed rollers and upper feed rollers configured to feed cut sugarcane through the sugarcane harvester. An elevator is configured to transport sugarcane out of the sugarcane harvester at an elevator speed. The control system controls the elevator speed based on a crop mass flow through the plurality of lower and upper feed rollers. The control system comprises at least one crop mass flow feedback device providing a crop mass flow feedback signal indicative of the crop mass flow. A controller is in communication with the at least one crop mass flow feedback device and configured to lower the elevator speed when the crop mass flow feedback signal indicates a lower crop mass flow and raise the elevator speed when the crop mass flow feedback signal indicates a higher crop mass flow.

Abstract: A control system for a sugarcane harvester. The sugarcane harvester comprises lower feed rollers and upper feed rollers configured to feed cut sugarcane through the sugarcane harvester. An elevator is configured to transport sugarcane out of the sugarcane harvester at an elevator speed. The control system controls the elevator speed based on a crop mass flow through the plurality of lower and upper feed rollers. The control system comprises at least one crop mass flow feedback device providing a crop mass flow feedback signal indicative of the crop mass flow. A controller is in communication with the at least one crop mass flow feedback device and configured to lower the elevator speed when the crop mass flow feedback signal indicates a lower crop mass flow and raise the elevator speed when the crop mass flow feedback signal indicates a higher crop mass flow.

Abstract: A multi-purpose flexible clip for gripping a medium to which it is affixed consisting of a thin, one-piece high density material shaped in a rectangle having a front facing side and being folded over to form a backside thereby creating a resistant clip, said backside having two holes formed therein for access to said medium for gripping said medium for removal from said medium.