Cnh Industrial America LLC

Cnh America LLC

New Holland North America, Inc.

Cnh Industrial Belgium Nv

Clayton E Banks

William Mark McCully

Eric Emerson Veikle

Denver Romayne Yoder

Frank R G Duquesne

Curtis F Hillen

Pieter Vandevelde

Karl Linde

Todd Cannegieter

Robert D Kurtz, Jr

Bart M A Missotten

Herbert Max Farley

Mark David Dilts

Dré W J Jongmans

Irwin D McIlwain

Thomas Mahieu

Cale Boriack

Michael Minnich

Nathan Carl Grotelueschen

Jonathan Eugene Ricketts

Nathan Edward Isaac

Cooper Wilhelm Linde

Dale A Ashcroft

Austin L Jackson

Michael Conrad

Andrew J Horst

Kevin Frederick Knapp

Braden G Cammauf

Justin Becker

Justin M Becker

Brian R Doutrich

William M Mccully

Todd Allen Cannegieter

Mark Mccully

Nathan C Grotelueschen

William Mark Mccully

Cooper W Linde

Denver R Yoder

Dré WJ Jongmans

Frank RG Duquesne

Bart MA Missotten

Karl Robert Linde

Curtis Frederick Hillen

An embodiment includes a system for sensing harvested grain levels within an agricultural harvester. The system including a grain tank configured to receive harvested grain, a sensor configured to emit a sensor beam into the grain tank for reflection off of the top surface of the harvested grain, and a reflective target integrated into a bottom surface of the grain tank at a minimum detectable grain level within the grain tank. The bottom surface of the grain tank being angled towards the sensor, the minimum detectable grain level being defined by a minimum grain level within the grain tank at which the top surface of the harvested grain is contacted by the sensor beam, and the reflective target being configured to reflect the sensor beam when the current grain level is vertically below the minimum detectable grain level.

Target for grain tank level sensor integrated into the grain tank

A system for controlling the aggressiveness of a tailings processor that re-threshes tailings received from the grain cleaning system in an agricultural harvester is provided with at least one imaging device to image a grain sample. At least a portion of the grain sample has at least once passed through the tailings processor. A controller is connected to the imaging device and to an arrangement to automatically adjust the aggressiveness of the tailings processor. The controller is configured to automatically adjust the aggressiveness of the tailings processor using the arrangement, based on based on the level of broken grain and/or unthreshed grain determined from the image from the at least one imaging device by comparing the level of broken grain and/or unthreshed grain to the desired level.

Closed loop control of tailings processor aggressiveness

An agricultural harvester includes a chassis, a cleaning system carried by the chassis, and a crop material elevator for receiving crop material that has passed through the cleaning system. The crop material elevator has a top-most end, a bottom-most end, a first inlet between the top-most end and the bottom-most end, and a second inlet between the top-most end and the first inlet. The agricultural harvester also includes an auger system for supplying crop material from the cleaning system to the crop material elevator. The auger system includes a first auger defining an auger axis for supplying crop material to the first inlet, a second auger defining a second auger axis, and a crop material conveyor for supplying crop material from the second auger to the second inlet.

Agricultural elevator supplied by multiple cross augers

A system for controlling the aggressiveness of a tailings processor that re-threshes tailings received from the grain cleaning system in an agricultural harvester is provided with at least one imaging device to image a grain sample. At least a portion of the grain sample has at least once passed through the tailings processor. A controller is connected to the imaging device and to an arrangement to automatically adjust the aggressiveness of the tailings processor. The controller is configured to automatically adjust the aggressiveness of the tailings processor using the arrangement, based on information provided by the at least one imaging device.

A foldable auger having a first and second auger assemblies, each having a respective housing, auger screw and rotation axis. A pivot joins the assemblies, and is configured to permit the second auger assembly to fold relative to the first auger assembly. A first drive coupler is located at an end of the first auger screw and offset from the first axis, and a second drive coupler is located at an end of the second auger screw and offset from the second axis. A drive sleeve is rigidly connected to the end of the second auger screw. The drive sleeve has at least one slot that slidingly receives the second drive coupler. The second drive coupler is movable between a first position in driving connection with the first drive coupler, and a second position not in driving connection with the first drive coupler.

Folding auger coupling mechanism

An unloading auger locking mechanism for use by an agricultural harvester, allowing the secure retainment of an unloading auger while it is in its stored position, accomplished by the passive locking between a latch assembly mounted on the unloading auger and an actuated hook assembly on the chassis, further allowing the unlocking of the mechanism by remote actuation. Locking and unlocking of the unloading auger can therefore be accomplished without the operator leaving the cab.

Automatically securing unloading auger support

A system for sensing harvested crop levels within an agricultural harvester may include a crop tank configured to receive harvested crop. The system may further include a sensor configured to emit a sensor beam into the crop tank for reflection off of the top surface of the harvested crop. Additionally, the system may include a reflection panel positioned at a minimum detectable crop level within the crop tank. The reflection panel may be configured to reflect the sensor beam when the current crop level is vertically below the minimum detectable crop level. A center of the reflection panel may be positioned closer to the sensor than an outer edge of the reflection panel such that the reflection panel diffuses the sensor beam as it reflects off of the reflection panel.

System and method for sensing harvested crop levels within an agricultural harvester

An agricultural harvester includes a chassis, a cleaning system carried by the chassis, a crop material elevator supplied with crop material that has passed through the cleaning system and has a first inlet and a second inlet, and an auger system supplying the crop material from the cleaning system to the crop material elevator. The auger system includes a first auger defining an auger axis that extends in a conveying direction toward the crop material elevator and is configured to supply crop material to the first inlet, a second auger defining a second auger axis that extends in the conveying direction, and a crop material conveyor configured to supply crop material from the second auger to the second inlet generally transverse to the second auger axis.

A system for discharging residue from an agricultural combine to a ground surface. The system including a spreader operatively connected to a rear end of the agricultural combine. The spreader having one or more impellers each having an axis of rotation and a housing. The impellers are operatively connected to the housing for rotating therein. The housing has an inlet for receiving a flow of residue, an outlet configured about a lateral side of the housing for discharging the flow of residue, and one or more residue flow distributors each pivotably movable in a direction generally parallel with the axis of rotation. Each flow distributor is configured to guide the discharged flow of residue sidewardly away from the spreader to the ground surface. The rotation of the one or more impellers discharge a flow of residue received through the inlet out through the outlet.

Method and apparatus to control residue width

A combine harvester having a crop processing mechanism and an elevator assembly is provided. The elevator assembly conveys harvested crop to the crop processing mechanism. The elevator assembly includes an elevator housing, an endless conveyor mounted for rotation within the elevator housing about a shaft, and a sprocket stripper mounted adjacent the shaft. The sprocket stripper includes a beveled or tapered edge.

Grain elevator for an agricultural combine

A grain tank level sensing system for a combine which harvests grain. The combine includes an upwardly open grain tank fillable with harvested grain and a cover that is displaceable for closing off the open grain tank. An actuator displaces the cover between an open and close position and either single or dual ultrasonic sensors continuously detect the level of grain in the tank and generate a signal proportional to the level of grain in the grain tank. A control system receives the signal from the ultrasonic sensors and generates an indication of the level in the tank to a monitor and/or disables the actuator to initiate the closing function when the grain tank is full.

Equipment protection using a grain tank level sensor

An agricultural harvester includes: a chassis; a cleaning system carried by the chassis; a crop material elevator supplied with crop material that has passed through the cleaning system; and an auger supplying the crop material from the cleaning system to the crop material elevator. The auger includes: an auger axle configured to rotate and defining an auger axis of rotation; a first flighting having a first helical direction and configured to be rotated by the auger axle; a second flighting having a second helical direction opposite to the first helical direction, the second flighting configured to be rotated so as to direct crop material conveyed by the first flighting back toward the first flighting; and a thrower connected to the first flighting and the second flighting and configured to convey crop material transversely relative to the auger axis of rotation.

Auger for transverse crop material movement

A bubble up auger includes a tubular housing, a screw auger and a baffle. The tubular housing includes an inlet opening having a first width end adjacent a first end of the tubular housing and a second width end opposite the first width end. The baffle extends from the inlet opening, outwardly from the central longitudinal axis of the tubular housing and towards the first end of the tubular housing.

Bubble up auger for agricultural combines

A grain conveyor for a combine harvester capable of increasing capacity and reducing component wear is disclosed. The grain conveyor includes a grain elevator, a transition chamber and an auger assembly. The grain elevator has an inlet for receiving a flow of grain. The transition chamber includes an inlet and an outlet in fluid communication with the transition chamber inlet and the grain elevator inlet. The transition chamber outlet has an asymmetric non-circular opening larger than the non-cylindrical opening of the transition chamber inlet. The auger assembly is operatively connected to the transition chamber and includes an inlet for receiving a flow of grain and an outlet in fluid communication with the transition chamber inlet.

Grain conveyor for a combine havester

A grain conveyor for a combine harvester capable of increasing capacity and reducing component wear is disclosed. The grain conveyor includes a grain elevator, a transition chamber and an auger assembly. The grain elevator has an inlet for receiving a flow of grain. The transition chamber includes an inlet and an outlet in fluid communication with the transition chamber inlet and the grain elevator inlet. The transition chamber outlet has an asymmetric non-circular opening larger than the non-circular opening of the transition chamber inlet. The auger assembly is operatively connected to the transition chamber and includes an inlet for receiving a flow of grain and an outlet in fluid communication with the transition chamber inlet.

Transition chamber from auger to elevator in combine harvester

Growing community of inventors

Brownstown, PA, United States of America

Clayton E Banks