Cnh Industrial America LLC

Animas Corporation

Carl M Brewer

Kevin Michael Smith

Mark K Chow

John R McClure

Ulrich Kraft

James D Walker

Manfred Ebner

David K Hohl

Larry L Hoover

Krzysztof Z Brukalo

Steven Getz

Sieghard Hasenzahl

Mark DeStefano

Justin J Snook

Scott C Simmons

Gregory T Fasick

Chandrashekhar K Singh

Katherine D Crothall

Chandrashekhar Singh

Barbara A Montgomery

An agricultural baler towable by a vehicle that includes a frame and a baler hydraulic system. The baler hydraulic system includes a plurality of hydraulically operated subsystems, a plurality of hydraulic subsystem lines being fluidly connected to the plurality of hydraulically operated subsystems, and a hydraulic manifold fluidly connected to the plurality of hydraulic subsystem lines and configured for connecting to the vehicle hydraulic system. The agricultural baler also includes an electrical processing circuit operably connected to the hydraulic manifold and configured for switching the hydraulic manifold for connecting at least one hydraulic subsystem line of the plurality of hydraulic subsystem lines to the vehicle hydraulic system.

Hydraulic system for agricultural baler

A calibration system for an agricultural vehicle includes: a motor-driven component; a motor coupled to the motor-driven component and configured to move the motor-driven component between a maximum distance position and a home position; and a controller operatively coupled to the motor. The controller is configured to: enter a component calibration mode; output a first movement signal to the motor to cause the motor to carry the motor-driven component toward the maximum distance position; determine that the motor-driven component has reached the maximum distance position; output a second movement signal to the motor to cause the motor to carry the motor-driven component toward the home position; and determine that the motor-driven component has reached the home position.

Agricultural vehicle with automatic motor-driven component calibration

A hydraulic system for an agricultural baler includes: a hydraulic motor; a hydraulically driven component fluidly coupled to the hydraulic motor such that fluid flow between the hydraulic motor and the hydraulically driven component causes the hydraulically driven component to move between a first position and a second position; a flow sensor associated with the hydraulically driven component; and a controller operatively coupled to the flow sensor and the hydraulic motor. The controller is configured to: enter a learning mode to learn a driven movement of the hydraulically driven component from the first position to the second position; determine fluid flow between the hydraulic motor and the hydraulically driven component during the driven movement while in the learning mode; associate the determined fluid flow with the driven movement; and output control signals to the hydraulic motor to reproduce the associated fluid flow and reproduce the driven movement.

Agricultural baler with hydraulic flow controller

Monitoring current draw of an actuator associated with a rotating arm on a round baler during a net wrapping cycle is used to determine the position of the rotating arm and actuator, as well as to determine the net tension. The current draw of the actuator may be correlated with the home and insert positions of the rotating arm during the net wrapping cycle; thus by monitoring the current draw, the rotating arm and actuator position is determined and may be provided to aid an operator. The net tension during the net wrapping cycle is a function of the rotating arm and actuator current. A calculation of net tension is determined and provided to an operator, allowing the operator to verify performance issues related to the net tension.

Current sensing of actuators on a round baler

The disclosure relates to a harvester control system that allows for the operation and control of a bottom floor assembly by an operator of a harvester, such as a round baler. The harvester control system generally comprises at least one rotation sensor configured to measure the rotation angle of the bottom floor assembly during the harvesting process, a controller that receives information from the rotation sensor(s), and an operator interface configured to display warning information to the operator if the bottom floor assembly meets certain rotation and time parameters.

Operation and control of bottom floor assembly

A system is provided that automatically stops a tractor based on position of a twine arm assembly in a round baler. A control system monitors position(s) of the twine arm assembly when an automatic twine-wrapping cycle is initiated. This may include starting a twine arm position monitoring procedure when an initial position change of the twine arms is detected. One or more sensors may be mounted on the baler to detect position characteristics of twine arm assembly, which may include presence or absence of the twine arm assembly at certain locations relative to a bale chamber of the baler and/or movement of the twine arm assembly. When the control system determines that the twine arm assembly is in an insert preparatory position, the control system sends a tractor halt command which automatically stops tractor at the same time that the wrapping procedure begins.

Baler automatic stopping sequence

A system is provided that automatically stops a tractor as a function of a status of a round baler. This may include a controller such as a baler controller directly or indirectly detecting initial movement of an actuator that moves a wrapper assembly. Based on this detection, conditions for starting a wrap procedure may be determined either by actuator position or by a time period required for moving the wrapper assembly from a home position to a wrap start position. A time period required to bring the tractor to stop may be determined and compared with the time period required for the wrapper assembly to move from the home position to the wrap start position. The baler controller may send a tractor halt command signal for stopping the tractor to coordinate and synchronize bringing the tractor to a complete stop at the same time that the wrapping material is inserted and applied onto the bale at the beginning of a wrapping procedure.

A disease management system, methods, and devices are shown and described. In one embodiment, the system includes an infusion pump and a remote controller with the ability to be paired to each other. A method to verify a wireless connection between an infusion pump and a remote controller is shown and described herein. In a further embodiment, a method to verify a wireless connection between an infusion pump and a remote controller is provided. In addition, a method of operating a diabetes management system is provided in which the system includes an infusion pump and at least a remote controller.

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Ephrata, PA, United States of America

Carl M Brewer