Deere + Company

Other

Nathan E Krehbiel

Duane M Bomleny

Nathan R Vandike

Bhanu Kiran Reddy Palla

Steve A Coon

Troy M Heims

Dennis P Silver

Eric D Windsor

Todd M Verhoef

Andrew J Braet

Nathaniel R Bernklau

Eric Hans Stone

Noel Wayne Anderson

Michael L Vandeven

Gurmukh H Advani

Mohamad S El-Zein

Shantanu Acharya

Curtis R Hammer

Matthew T Wold

Nathan F Tortorella

Sanjeev M Hallale

Sankaran Subramaniam

Bradley K Yanke

Hector Portillo

Hema V Guthy

Alexander B Lassers

Austin M Laugen

Heather G Laugen

Douglas Van Meter

Amol M Sawale

Daniel J Cox

Ryan M Gneiting

Jacob P Hartman

Mitchel J Lindberg

Scott E Faulkner

Daniel A Hartschuh

Christopher J McKelvey

Jacob Hartman

One or more information maps are obtained by an agricultural work machine. The one or more information maps map one or more agricultural characteristic values at different geographic locations of a field. An in-situ sensor on the agricultural work machine senses an agricultural characteristic as the agricultural work machine moves through the field. A predictive map generator generates a predictive map that predicts a predictive agricultural characteristic at different locations in the field based on a relationship between the values in the one or more information maps and the agricultural characteristic sensed by the in-situ sensor. The predictive map can be output and used in automated machine control.

Machine control using a predictive map

An information map is obtained by an agricultural system. The information map maps values of a characteristic to different geographic locations in a field. An in-situ sensor detects machine setting values as a mobile machine moves through the field. A predictive map generator generates a predictive map that predicts the machine setting at different locations in the field based on a relationship between the values of the characteristic and the machine setting values detected by the in-situ sensor. The predictive map can be output and used in automated machine control.

Predictive machine setting map generation and control system

An agricultural system includes a corn head with an end divider and an actuator that moves the end divider between a raised position and a retracted position. An actuator controller receives an input and automatically controls the actuator to move the end divider to a position based upon the input.

Controllable end dividers

Systems and methods for controlling agricultural headers based on crop movement relative to a portion of the agricultural header are disclosed. The presence or movement of crop material, such as a crop material representing grain (e.g., ears, heads, or pods of crops ('EHP')), relative to the harvester header or a portion of the harvester header may be detected, such as by analyzing image data representing one or more images collected over time. Based on a position or movement or both of the crop material relative to the header, one or more parameters of the harvester header may be adjusted, for example, to reduce an amount of grain loss.

Agricultural header control

A corn head corn head includes a first wing segment and a center segment. A corn head adjustment system includes a first fold actuator; a first deck plate actuator mounted on at least one of the first wing segment frame or the center frame and configured to reposition at least one of the first deck plate rod or the center deck plate rod; and corn head hydraulics. During a fold process, the corn head hydraulics is configured to actuate the first fold actuator in order to fold the first wing segment relative to the center segment and to actuate the first deck plate actuator in order to decouple the first deck plate rod from the center deck plate rod. During an unfold process, the corn head hydraulics is configured to actuate the first fold actuator in order to unfold the first wing segment relative to the center segment.

Corn head adjustment system with integrated actuation

A crop head for a harvester includes a folding frame having a first frame portion and a second frame portion configured to be folded in a transport state and unfolded in a harvesting state. The first and second frame portions are lockable with respect to each other to inhibit folding and unlockable with respect to each other to allow folding. A plurality of crop dividers is supported by the first frame portion. The plurality of crop dividers includes at least one movable crop divider that is movable with respect to the first frame portion. The crop head also includes a cylinder and a piston movable with respect to the cylinder. The piston is operable to move the movable crop divider between the first and second positions and is configured to directly engage the first and second frame portions to lock the first and second frame portions with respect to each other.

Folding harvester with crop divider lift and frame lock

A row unit assembly for use with a corn harvester includes a first drive having an output shaft, a stalk roll that extends along a first axis and rotates about the first axis via the output shaft of the first drive. A second drive rotates a first drive member about a second axis that is substantially perpendicular to the first axis. A first conveyor extends around the first drive member and moves about the first drive member in response to rotation of the first drive member. A third drive rotates a second drive member about a third axis that is substantially parallel to the second axis. A second conveyor extends around the second drive member and moves about the second drive member in response to rotation of the second drive member.

Corn stalk roll drive system

row crop heads and pivoting assemblies associated with the row crop heads operable to displace a crop divider of the row crop heads during folding of a portion of the row crop head are disclosed. In some implementations, a pivoting assembly may include a first bracket coupled to a center frame of a row crop head, a second bracket coupled to a wing frame of the row crop head, and a rotatable locking component rotatably coupled to the first bracket. The rotatable locking component is operable to lock a row divider disposed at an interface between the wing frame and the center frame when the wing frame is moved from an unfolded position to a folded position relative to the center frame.

Pivoting apparatus for row head

Frame assemblies for a corn row head formed from components formed from different materials may include a frame portion having a first beam leg and a second beam leg formed of a first material and a skid plate attached to each of the first beam leg and the second beam leg formed from a second material different than the first material. The first material may be aluminum, and the second material may be steel. In some implementations, a breast plate joining the first beam leg and the second beam leg may be formed from the first material and may be welded to the first beam leg and the second beam leg. In other implementations, the breast plate may be formed from the second material and may be adhesively bonded to the first and second beam legs.

Harvester row head

A corn harvester includes a first stalk roll having a plurality of first blades circumferentially spaced apart by a first angle. A second stalk roll has a plurality of second blades circumferentially spaced apart by a second angle. The first and second stalk rolls are rotatable about parallel first and second axes that are separated by a centerline therebetween. In an operational state when a tip of one first blade is aligned with the centerline, a tip of one second blade is angularly offset from the centerline by a third angle. The third angle is less than 45% of the second angle. The one first blade forms a cross section perpendicular to the first axis having an altitude extending from the tip toward the first axis along a first blade altitude. The cross section of the one first blade is asymmetric about the first blade altitude.

Corn stalk roll arrangement

A stalk roll for a corn harvester has a first portion including a first material having a first material density, and a second portion including a second material having a second material density. The first density is at least fifty percent greater than the second density, or the first tensile strength is at least fifty percent greater than the second tensile strength. The first portion includes a support portion that engages a drive shaft, a first radial portion extending radially outward from the support portion, a first blade connected to the first radial portion, a second radial portion extending radially outward from the support portion opposite the first radial portion, and a second blade connected to the second radial portion. The first and second blade portions engage a corn stalk. The second portion is positioned between the first radial portion and the second radial portion.

Composite stalk roll

A harvester includes a main frame, first side frame, and a second side frame. The first and second side frames are rotatable about the main frame between a deployed position and a stowed position. A first crop divider is rotatable with respect to the first side frame to change an angle between the first crop divider and the ground. A first biasing member biases the first crop divider into the raised position. A second crop divider is rotatable with respect to the second side frame to change an angle between the second crop divider and the ground. A second biasing member biases the second crop divider into the raised position. During movement of the first and second side frames into the stowed position, the first and second crop dividers are moved into the lowered position against the biasing force of the respective biasing member.

Corn harvester

Growing community of inventors

Bettendorf, IA, United States of America

Nathan E Krehbiel