Cnh Industrial America LLC

Cnh America LLC

Cnh Industrial Belgium Nv

Cnh Belgium N.v.

Tyler L Nelson

Craig Elwyn Murray

Kevin S Schwinn

Dale W Panoushek

Clay Alan Reinecke

Kai Zhao

Orlin Wayne Johnson

Jishan Jin

Bin Lou

Jonathan Eugene Ricketts

Curtis F Hillen

Eric Emerson Veikle

Jay David Schroeder

Justin L Montenguise

Joshua D Werning

John J Borsdorf

Kenneth W Brown

Venugopal Chiratanagandla

Clay Reinecke

An agricultural harvester includes a grain processing section having a sieve. The sieve is driven in fore and aft oscillation while permitting side to side movement by a pair of cast members interconnected each having three mounting points. Two of the mounting points of the members are interconnected by flexible rubber bushings and the third mounting point of one of the members receives fore and aft oscillating movement and the third mounting point on the second of the members pivotally interconnects to the sieve to drive it into fore and aft oscillation while permitting side to side movement.

Linkage for agricultural harvester cleaner

An agricultural harvester includes a grain processing section having a sieve assembly. The sieve assembly is connected to mechanism for producing a side to side oscillation by a single cast structural link having an input through slotted openings to the drive mechanism to accommodate misalignment. The link has vertical and horizontal flanges connected to a main body for interconnection between the right and left frames and structural supports interconnecting the right and left frames. The main body of the link extends through a slot in a rubber wall to accommodate the movement and seal against loss of grain.

Side shaker link for agricultural harvester sieve assembly

A sieve arrangement for an agricultural combine harvester includes a sieve frame for carrying a sieve, a side shaker arm, and a plurality of elongate structural members. The sieve frame includes a first side frame member and a second side frame member. The side shaker arm is connected with the first side frame member. Each structural member has a first end connected to the side shaker arm, and a second end connected with the second side frame member.

Structural members for a side shaking sieve arrangement in an agricultural harvester

An agricultural harvesting system including a chassis, an agricultural product moving device coupled to the chassis, an airflow system, a cleaning system and an airflow characterizing system. The cleaning system is configured to receive the agricultural product from the moving device. The cleaning system is configured to receive an airflow from the airflow system. The airflow characterizing system is at least partially positioned in the airflow, and is configured to measure an airflow profile across the cleaning system. The airflow characterizing system includes a plurality of sensors that determine airflow by measuring a thermal transfer from the sensors to the airflow. The airflow characterizing system being configured to maintain a substantially constant electrical resistance of the sensors as the airflow varies. The airflow characteristics are measured in the cleaning system and are used to improve the cleaning capacity of the harvesting system.

System and method of controlling airflow characteristics in an agricultural harvester

A combine side-shaking control system and a method for controlling operation of a side-shaking mechanism in a combine. The control system includes at least one sieve for separating crop material from other materials and a movable side-shaking mechanism coupled to the at least one sieve and configured to move the at least one sieve in a side-to-side motion. The control system also includes at least one sensor for sensing at least one operating condition of a combine system. The control system further includes a controller for receiving the at least one operating condition and causing the side-shaking mechanism to stop moving the at least one sieve in the side-to-side motion or start moving the at least one sieve in the side-to-side motion based on the at least one operating condition.

Combine side shake cleaning control system

A combine side-shaking control system that includes a sieve for separating crop material from other material, located in a plane having an X dimension and a Y dimension and configured to move in a fore-aft direction in the X dimension, in a side-to-side direction in the Y dimension and in an up-down direction in a Z dimension. The system also includes a side-shaking assembly configured to move the sieve in the side-to-side direction in the Y dimension. The fixed arm is attached to the sieve and configured to move with the sieve in (i) the fore-aft direction in the X dimension, (ii) the side-to-side direction in the Y dimension and (iii) the up-down direction in the Z dimension. The side-shaking coupling portion comprises a moving portion configured to move in a diagonal direction having a fore-aft component in the X dimension and an up-down component in the Z dimension.

Combine side-shake control system slider joint

A combine side-shaking control system includes a sieve for separating crop material from other materials and configured to move in a fore-aft direction. At least one side-shaking assembly includes a mounting device attached to a combine chassis, a lower plate configured to rotate about a lower plate axis and an upper plate configured to (i) have an upper plate rotational motion and rotate responsive to the rotation of the lower plate and (ii) have an upper plate substantially linear motion in a substantially linear direction. A fixed arm is rotatably coupled to the upper plate and attached to the sieve. An actuation device is configured to rotate the lower plate about the lower plate axis. Responsive to the rotation of the upper plate, the sieve is controlled to move diagonal to the fore-aft direction in the substantially linear direction of the upper plate substantially linear motion.

Combine linear side-shake cleaning control system

An evaluation tool related to operation of a combine is provided to aid an operator of the combine. A processing device implements the evaluation tool by receiving an input related to an evaluation to be performed from the operator of the combine. The processing device initializes the evaluation to be performed. A plurality of sensors are operably connected to the processing device and collect data related to the operation of the combine during the evaluation. The processing device analyzes the collected data and presents the analyzed data to the operator of the combine. As such, the operator may review the analyzed data and make an informed choice in proceeding with the combine operation, such as changing settings or operating components to affect the combine performance.

Combine performance evaluation tool

The cob cleaning conveyor system provides a capability for positively removing or cleaning lighter crop residue from a flow of cobs. The system can be incorporated with a cob collection device, such as on a trailer, and can be adjustable in several ways for accommodating varying corn varieties, conditions and the like. The system includes a first conveyor which propels the flow into a gap or passage toward a second conveyor, while a flow of air is directed downwardly through the passage to remove or clean the lighter residue material from the cobs. The angle of attack of the air flow can be selectable, and optionally be directed downwardly along the second conveyor to the passage, and upwardly along the second conveyor to travel with or follow the residue flow, to suit present conditions.

Corn cob cleaning conveyor system

An apparatus and method for automatically controlling the settings of an adjustable crop residue discharge system of an agricultural combine is provided. The apparatus includes a sensor, an actuator, and a controller. The sensor detects a position of a residue deflector and/or a speed of the residue discharge system. The actuator operatively controls the residue deflector to adjustably position the residue deflector. The controller is operatively connected to the sensor and actuator. The controller includes a memory, a speed input device, a position input device, and a mode input device. The controller is configured to store in memory a plurality of positions and speeds of the residue discharge system and automatically adjust the positions and speeds of the residue discharge system upon receiving an input to change to headland mode.

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Rochester, MN, United States of America

Tyler L Nelson