Deere & Company

Jeffrey Robert Fox

Mark Samuel Philips

Michael Lee Pearson

Robert Matthew Bares

Timothy Arthur Deutsch

Jeffrey Scott Wigdahl

Scott David Weber

Daniel John Johannsen

Kevin Jacob Goering

Joel M Schreiner

Robert J Meegan

Mark Alan Cracraft

Sean McKay

John O Rumohr

Justin E Hummel

Benjamin Neermann

Nile T Ackerman

Margaux M Price

Steven R Procuniar

Sarah L Schinckel

Jeffrey J Ringwald

Scott Francis Stueck

Mark B Vollmers

Hans Juergen Nissen

Daniel A Krieg

Tom R Walmsley

Wesley G Carney

Donald B Brooks

Peter J Jensen

Kent Cleo Mckee

Dan L Heggen

A wrap feed arrangement is disclosed for an agricultural harvester having a module-forming chamber. The arrangement includes a conveyor arrangement, which delivers crop to the module-forming chamber, and a module-forming arrangement which, at least in part, builds the module. The conveyor arrangement has a first roll and a first endless member disposed about the first roll for rotation. The module-forming arrangement has a second roll and a second endless member disposed about the second roll for rotation. At least one of the first and second rolls is movable from a first position in which the first and second endless members are disengaged to a second position in which the first and second endless members are engaged.

Module wrap feed arrangement

A method and system for managing settings on a single vehicle/implement system and across a fleet of vehicle/implement systems. Each vehicle/implement system includes a plurality of Embedded Systems having configurable settings, a Precision Agriculture Server having configurable settings, and a Telematics Server having configurable settings. All of the servers are connected by a plurality of vehicle data busses. The Telematics Server is connected to Cloud-Based Servers via the Internet. Vehicle/implement system settings are managed by the Precision Ag Server and shared with other vehicle/implement systems via the Cloud-based Server. Flexibility for different vehicle/implement models and options is provided by a distributed system using Client Software in the Precision Ag Server or Client Software in the Embedded Systems and by a settings identification and versioning schema.

Settings manager&#x2014;distributed management of equipment and display settings via centralized software application

A cotton accumulator system for a cotton harvester. The cotton accumulator system includes a cotton storage structure having an upper inlet and a lower outlet. A paddle shaft is coupleable to the cotton storage structure and configured to rotate about an axis. A plurality of paddles is coupleable to the paddle shaft. The plurality of paddles is configured to rotate with the paddle shaft to disperse cotton substantially evenly in the cotton storage structure.

Cotton accumulator system with paddles and upper inlet vane

A light-weight upright shaft () supports cotton harvester doffers (). An internally threaded mounting end () receives a bolt () which is stretchable to a greater degree than the shaft to provide a reliable shaft preload condition that prevents the doffers from spinning relative to the shaft. The shaft may be hollow and may have a diameter greater than conventional shafts to reduce weight and increase the stiffness and thereby increase critical speed. The preload structure does not require a nut and has increased thread engagement.

Reduced mass high speed doffer column with improved shaft preload

A picker bar includes spindles which are nonaligned in the vertical direction to define two or more offset sets of spindles on the bar and increase the number of spindles per unit length of the spindle bar. A spindle assembly includes a support carrying two spindles driven from a picker bar drive shaft by a single drive gear. Driven spindle gears are spaced on opposite sides of the shaft axis to facilitate close spacing of the spindles. A doffer column includes doffer pads of differing diameters to optimize doffing of the offset sets of spindles.

High density cotton picker bar and spindle assembly therefor

A picker bar includes spindles which are nonaligned in the vertical direction to define two or more offset sets of spindles on the bar and increase the number of spindles per unit length of the spindle bar. A spindle assembly includes support carrying two spindles driven from a picker bar drive shaft by single drive gear. Driven spindle gears are spaced on opposite sides of the shaft axis to facilitate close spacing of the spindles.

Cotton harvester frame structure includes main structural members elevated to approximately cab floor level and extending horizontally rearwardly in a planar fashion over the engine compartment and the rear axle. The structural members attach to the central portion of the rear axle to provide added clearance for larger wheels and tires. The single elevated plane of the main frame structure provides simplified attachment of a power module including a transversely mounted engine. Access areas under the main structural members are of sufficient minimum width and height to allow an operator or an assembler to stand fairly erect while accessing most areas of the power module and a harvester fan.

Cotton harvester chassis configuration

To reduce destructive effects of cotton picker high speed drum rotation, rearward spindle tip motion is adjusted in part by angularly positioning the spindles in the picking zone with an improved cam track arrangement. The cam rotates the picker bar about the upright axis of the bar to vary the speed of the spindle tip in the picking zone and allow a higher drum speed. In a first portion of the picking zone the spindle tips are closer together than the spindle bases at the picker bar. The spindle tip spacing in a second portion of the picking zone is approximately equal to spindle base spacing in the extremities. The resulting spindle tip movement facilitates higher cotton picker vehicle ground speed without picking efficiency loss or additional damage to the cotton plants.

High speed cotton picker drum

One or two conventional picking units are mounted on a two-wheel, high clearance running gear or frame. A two-point hitch is coupled to the draft links of a tractor or an equal-angle hitch is coupled to the tractor drawbar. Hitch and tongue interface on the harvester facilitates sharp turn angles between the implement and the tractor through use of a pivoting member containing the driveline powering the units from the tractor. A center pivot tongue allows offset for appropriate row alignment and provides improved maneuverability and implement steering on headlands and turn rows. A hydraulic cylinder connected to the tongue or a crossed four-bar linkage structure controls tongue angle. A basket is supported at the rear of the frame and the row units are located forwardly of the frame to provide counterbalancing forces about the wheel axis.

Drawn cotton picker

A conditioning mechanism is placed forwardly of the cotton harvesting mechanism on a cotton harvester. Opposing elements compress portions of the cotton plant to compress the cotton bolls and deform the cotton boll hulls. The deformation loosens the cotton fiber relative to the hulls to improve the ability of the harvesting mechanism to harvest the seed and fiber. In one embodiment, differential surface velocity of the opposing elements improves boll opening and fiber orientation for more effective spindle contact.

Cotton conditioner for a cotton harvester

A chassis-mounted round baler particularly useful with an on-board cotton module building system includes a bale release gate frame section connected to a forward frame section by a four bar linkage to define a gate path that allows the folding of the baler into both field transport and shipping configurations while maintaining desirable operating, transport and shipping heights. The gate linkage incorporates a self latching feature wherein a small vertical movement of the gate as the gate cylinders are operated releases a gate latch member from a forward frame member during gate opening and reengages the gate latch with the forward frame member during closing. The gate interacts with the bale handler to provide a stop for the baler gate when the baler gate is placed into a cradle on the handler.

Baler gate linkage and latch structure

A hood receives a stream of material including a mix of cotton, air and debris from an air delivery system on a cotton harvester. A forward deflector directs the mixture towards the rear of an accumulator. The deflected mixture passes under finger grates which retains cotton but allows some of the air and light trash to pass through out of the stream. A curved rear deflector forces the remaining mix downwardly towards the accumulator and prevents build-up on receptacle walls. Air and light debris change direction abruptly at the bottom of the rear deflector and exit through an inlet area and upwardly directed path at the back of the deflector. The momentum of the heavier cotton prevents cotton from making the tight turn around the bottom of the deflector and directs the cotton towards the receptacle or accumulator. The inlet area can be adjusted or closed completely to prevent cotton loss in certain conditions.

Separation hood for a cotton harvester

Lower spiked rollers in the bottom of a cotton accumulator are inclined in the downstream direction towards an opening and rotate in the same direction to pull cotton down to the opening. An upper spiked roller located above the opening and above the last of the lower spiked rollers is only partially exposed to the cotton in the accumulator. The upper roller meters the cotton and tears apart clumps. An opening above the upper roller defines an upper discharge opening over the main discharge opening. When in a non-rotating condition, the spiked rollers act as a floor for the accumulator and prevent egress of the cotton through the openings.

Cotton feeding roller structure

A scrapping plate for improving cotton picker efficiency incorporate an angle in the bottom profile which forces cotton into the spindle before being released from the picking zone. The scrapping plate ribs which are spaced vertically from each other and located between adjacent rows of spindles are tapered so that rib surfaces are generally parallel to the spindle tapered surfaces in the picking zone. The parallel arrangement places cotton equidistant from the spindle along the length of the picking zone. In one embodiment, the ribs are tapered in the fore-and-aft direction to better hold cotton bolls in the picking zone. The forward portion of alternating ribs can also be terminated rearwardly of the leading portion of the plate to allow the cotton bolls to gather more easily.

Scrapping plate for a cotton harvester

A tandem spindle drum row unit arrangement includes a rotary knife offset ahead of the forward drum to sever plants. A feeder rotor with fingers projecting through grid bar structure gently directs plants laterally into a standing row prior to substantial engagement by the spindles on the forward drum. Feeder column rotational speed is synchronized with ground speed. The knife, having a common axis with the rotor, operates at a higher speed for an efficient cut. The feeder column includes curved fingers which project through vertically spaced bars on a guard assembly to positively separate the plant from the fingers. The feeder column and rotary knife are driven through separate slip clutches. A kicker wheel between the drums moves plant material rearwardly.

Growing community of inventors

Minburn, IA, United States of America

Jeffrey Robert Fox