Deere + Company

Volker Fuchs

Corwin Marcus Puryk

Martin Rittershofer

Peter Mischler

Oliver Klein

Christopher J Faulkner

Gregor Diessner

David W Peters

Mark L Mattson

Nathan R Vandike

James Kelley Adamson

Kevin P Hurley

Wentao W Yu

Karthikeyan Narayanan

Johannes Juelke

Noel Wayne Anderson

Gurmukh H Advani

Bradley K Yanke

Christina Fries

Thomas Herlitzius

Arjan Mulder

Harm-Jan Van Wolde

Dirk Schubert

Philipp Veit

Stephan Kirstein

Sebastian Müller

Christian Korn

Johan Adrichem

Van Wolde Harm-Jan

Anil Kumar Beeka

Hans W Schaeffer

A combine harvester includes a housing having a rear hood and defining an interior, a blower for generating an air stream in a substantially rearward direction, and a cleaning system separating residue from a crop material such that the residue is transported via the air stream rearwardly to be discharged from the housing. A chopper rotor assembly is disposed within the interior below the rear hood and includes a chopper rotor having a plurality of blades for chopping the residue as it is received via the air stream. A chopper housing is disposed within the interior and defines an inlet of the chopper rotor for receiving the residue and an outlet spaced rearward from the chopper rotor for discharge of the chopped residue from the interior of the housing. An air gap through which the air stream may exit the interior is defined between the rear hood and chopper rotor.

Cross vented residue disposal system for an enclosed combine body

A radio frequency (RF) grain mass and constituent measurement system utilized onboard a combine harvester includes an RF sensor subsystem for capturing RF sensor readings of a harvested grain within an area of the combine harvester. A memory stores an RF characteristic database, which contains RF characteristic testing data collected for tested grain samples over one or more tested frequency ranges. A controller, operably coupled to the RF sensor subsystem and to the memory, is configured to: (i) receive the RF sensor readings from the RF sensor subsystem; (ii) determine grain mass and a first constituent content of the currently-harvested grain based, at least in part, on an analytical comparison between the RF sensor readings and the RF characteristic testing data; and (iii) perform at least one action in response to determining the grain mass and the first constituent content of the harvested grain.

Radio frequency grain mass and constituent measurement systems for combine harvesters

A combine harvester includes a housing, a separating system mounted within the housing for separating a seed material from a straw material, a cleaning system including a cleaning fan configured to produce a motive flow of air, a straw chopper operable to chop the straw material from the separating system into a chopped straw material, a spreading system positioned downstream of the straw chopper and configured to disperse the chopped straw material outside of the housing of the combine harvester, and an air discharge channel located downstream of the straw chopper and above the spreading system and configured to discharge a portion of the motive flow of air produced by the cleaning fan.

Combine harvester and discharge assembly of the same

A harvester includes a chassis, a separation frame movably supported by the chassis and upon which crop material is deposited, a reciprocating drive operably coupled to the separation frame to reciprocate the separation frame, a control system, a sensor programmed to produce a signal indicative of a tilt of the chassis relative to a gravitational direction, and programmed to provide the signal to the control system, and an adjustable link operably coupled between the separation frame and the chassis to adjust a pivot point of the separation frame. The control system is programmed to determine a change in tilt of the chassis based on the signal from the sensor. The controller is programmed to adjust the adjustable link to modify the pivot point of the separation frame in response to the change in tilt of the chassis.

Harvester separation frame orientation adjustment

A self-learning grain sensing system for an agricultural harvester includes a first grain sensor having a first sensing surface responsive to first impacts of grain upon the first sensing surface, wherein the first grain sensor generates first electrical pulses in response to the first impacts; a second grain sensor having a second sensing surface responsive to second impacts of grain upon the second sensing surface, and wherein the second grain sensor generates second electrical pulses in response to the second impacts; and a control system configured to receive the first electrical pulses from the first grain sensor, derive control parameters from the first electrical pulses, and apply those control parameters to the second electrical pulses.

Self-learning grain sensing system

A separating and cleaning mechanism for an agricultural combine may include: a return pan. The return pan includes a textured floor, two augers, and two motors coupled to the two augers, respectively, to selectively drive the motors in rotation independently. The textured floor may oscillate in a fore-and-aft direction to move grain toward the two augers.

Return pan for an agricultural combine

A sensor assembly for attachment underneath a screen of a combine harvester is provided with a plurality of sensor units having sensor elements, a plurality of which sensor units are arranged one behind the other within a hollow profile which extends in the longitudinal direction of the screen.

Sensor assembly for a combine harvester screen

A conveyor drum () for an endless belt conveyor () for a feederhouse of an agricultural combine () includes an elongate drum (), cogs () fixed to the drum for driving endless belts (), and retainers () fixed to the drum () to maintain the endless belts () in a proper operating position.

Cogged feederhouse front drum

An agricultural combine has a chassis that supports a feederhouse receiving cut crop material from an agricultural harvesting head. A rotor and concave arrangement receives the cut crop material to thresh the cut crop material and to separate the cut crop material into a flow of grain and a flow of straw. A cleaning shoe receives the flow of grain from the threshing and separating mechanism to clean the flow of grain and to provide a flow of clean grain and a flow of chaff. A residue management system receives the flow of straw and the flow of chaff. The residue management system has a straw chopper that rotates in a first direction in a windrowing mode to windrow the flow of straw and rotates in a second direction opposite the first direction in a chopping mode to chop the flow of straw.

Agricultural combine with reversing chopper rotor

A harvester may include a chassis, a first separation frame movably supported by the chassis and upon which crop material is deposited, a second separation frame movably supported by the chassis and upon which the crop material is deposited; a reciprocating drive operably coupled to the separation frame to reciprocate the separation frame and an adjustable link operably coupled between the separation frame and the chassis. The adjustable link facilitates adjustment of an orientation of the first separation frame independent of an orientation of the second separation frame without altering a reciprocation stroke distance.

A belt and coupler arrangement for a conveyor includes an elongate belt having an elongate web with a first end and a second end, wherein the first end and the second end are thicker than the elongate web; and a coupler having a first elongate recess to receive and enclose the first end, and a second elongate recess to receive and enclose the second end. The belt has a first hole at the first end and a second hole at the second end and the coupler comprises a first pin extending through the first hole and a second pin extending through the second hole when the belt ends are coupled by the coupler.

Feed conveyor belt and coupler

A wear strip arrangement for an endless belt conveyor for a feederhouse of an agricultural combine includes a first body that is configured to be attached to a slat that in turn is attached to the endless belt.

Slat insert for noise/wear attenuation in a feederhouse conveyor

A combine harvester has a straw chute with a straw conveyor which comprises a conveyor rotor which can be set into rotation and has dogs distributed helically around the conveyor rotor.

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Bettendorf, IA, United States of America

Volker Fuchs