Deere + Company

Andrew J Peterson

Shawn Jeremy Becker

Mark Donald Beeck

Jarrod Ray Ruckle

David Lee Steinlage

Greg T Buse

Brian J McEvoy

John W Gisler

Nathan R Vandike

Luc Janelle

Narayanan E Esakkimuthu

Duane M Bomleny

Cary S Hubner

Benjamin M Lovett

William Douglas Graham

Darin Ledru Roth

Martin Unterpaintner

Brian McEvoy

Narayanan Esakkimuthu

An implement has an implement frame and a wheel for supporting the implement frame on a ground surface for movement in a direction of travel. The implement also includes a first basket coupled to the implement frame by a first arm and configured to work a portion of the ground surface, and a second basket coupled to the implement frame by a second arm and positioned rearward of the first basket relative to the direction of travel. The second basket is configured to work the portion of the ground surface after the first basket. A hydraulic cylinder is operatively coupled to the first arm and/or the second arm and configured to lift and lower the respective basket with respect to the ground surface to and from a raised position for travel. The hydraulic cylinder is further configured to regulate a pressure of the respective basket against the portion of the ground surface.

Dual basket attachment

An agricultural system obtains a residue map that maps residue characteristics of a field, wherein the residue map is based on data collected at or prior to a first time. The agricultural system obtains supplemental data indicative of characteristics relative to the worksite, the supplemental data collected after the first time. A residue characteristic confidence output, indicative of a confidence level in the residue characteristics indicated by the residue map, is generated based on the residue map and the supplemental data. In some examples, a mobile machine is controlled based on the residue characteristic confidence output.

Residue characteristic confidence and control

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

Systems and methods for predictive tractive characteristics and control

A tillage implement includes an implement frame having a first lengthwise frame member, a second lengthwise frame member, and a lateral frame member connected to and extending between the first and second lengthwise frame members. A hitch assembly is rotatably connected to the implement frame. A wheel assembly is connected to the implement frame and moveable between a raised position and a lowered position. A rockshaft is rotatably connected to the implement frame and connected to the wheel assembly. A leveling assembly is connected to the implement frame, the rockshaft, and the hitch assembly. The leveling assembly is configured to adjust the position of the hitch assembly based on movement of the rockshaft. The leveling assembly includes an actuator connected to and aligned with a leveling link.

Frame and leveling assembly for agricultural implement

A tillage machine includes a main frame, a gang rotatably coupled to the main frame, and an arcuately-shaped adjustment rail coupled to the main frame. At least a portion of the adjustment rail is spaced from the main frame. The adjustment rail includes a plurality of apertures each configured to receive a locking structure, and the adjustment rail defines an open space adjacent the main frame.

Rail roller pin gang adjustment system

An agricultural implement includes a transversely extending frame forming at least a first frame section, a second frame section, and a third frame section, where the first frame section is disposed between the second and third frame sections. A pair of elongated gang assemblies are on the first frame section, an elongated gang assembly is on the second frame section, and an elongated gang assembly is on the third frame section. Each of the gang assemblies is horizontally adjustable relative to the frame. An actuator for each gang assembly operably controls the angular adjustment of the gang assemblies, and a fluid source supplies fluid to the actuators. The actuator on the second frame section is a master actuator for one of the actuators on the first frame section, and the actuator on the third frame section is a master actuator for the other actuator on the first frame section.

Gang angle adjustment for a work machine and method thereof

A hinge assembly for an agricultural implement having inner and outer wing frame sections has an inner pivot bracket pivotally coupled to the inner wing frame section at a fold pivot location, and an outer pivot bracket pivotally coupled to the outer wing frame section at a flex pivot location and coupled to the inner pivot bracket. An inner pivot link pivotally couples to the inner pivot bracket and the outer pivot bracket, and an outer pivot link pivotally couples to the outer pivot bracket and the outer wing frame section. The inner and outer pivot brackets pivot relative to each other at the fold pivot location between a working state and a folded state, and the flex pivot location moves relative to the fold pivot location during the relative pivoting. When in the working state, the fold pivot location is higher than a top side of the inner wing frame section and the flex pivot location is lower than a bottom side of the inner wing frame section.

Hinge assembly for wing frame sections of agricultural implement

An implement has an implement frame, a wheel for supporting the implement frame on soil in a direction of travel, a first basket coupled to the implement frame, and a second basket coupled to the implement frame. The first basket works the soil such that any convolutions in the soil are reoriented to be substantially perpendicular to the direction of travel of the implement. The second basket is positioned rearward of the first basket, and works the soil such that the convolutions in the soil that are substantially perpendicular to the direction of travel of the implement are flattened.

A tillage implement having a frame member extending in a fore-aft direction of the implement, the frame member pivotally connected in a foldable configuration, the frame member comprising a main frame section; a first wing section and a second wing section, each being pivotally connected at opposing lateral sides of the main frame section in the fore-aft direction; and a middle breaker including a first disc coupled to the main frame section, the first disc laterally offset from a centerline of the middle breaker extending in the fore-aft direction, the first disc having a concave side facing towards the centerline, and a second disc coupled to the main frame section, laterally offset from the centerline of the middle breaker, the second disc having a concave side facing towards the centerline.

Middle breaker for a tillage implement

A tillage implement is configured to be towed behind an agricultural vehicle. An implement frame has a first lengthwise frame member, a second lengthwise frame member, and a lateral frame member connected to and extending between the first and second lengthwise frame members. A tool assembly is pivotally connected to the implement frame and includes a ground engaging member. An actuator has a first portion connected to the implement frame and a second portion connected to the tool assembly. Movement of the actuator adjusts the position of the tool assembly relative to the implement frame. The lateral frame member includes an actuator opening and at least a portion of the actuator extends into the actuator opening and the lateral frame member.

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Ankeny, IA, United States of America

Andrew J Peterson