Abstract: A row unit system for a seeder includes a frame, a parallel linkage configured to couple the frame to a mount associated with a toolbar of the seeder, an opener disc rotatably coupled to the frame, and a packer wheel assembly. The packer wheel assembly includes a packer wheel arm pivotally coupled to the frame, a packer wheel rotatably coupled to the packer wheel arm, and a packer wheel actuator pivotally coupled to the packer wheel arm and the frame, wherein the packer wheel actuator is configured to control a downforce applied by the packer wheel to soil.

Abstract: A plug detection system for an agricultural system includes a controller configured to receive first sensor signals indicative of a set of upstream air pressures. The controller is configured to receive second sensor signals indicative of a set of downstream air pressures. The controller is configured to determine a downstream pressure variance based on the set of downstream air pressures. The controller is configured to determine a set of pressure drops based on the set of upstream air pressures and the set of downstream air pressures, and the controller is configured to determine a pressure drop variance based on the set of pressure drops. The controller is configured to determine a variance delta based on the pressure drop variance and the downstream pressure variance, and the controller is configured to identify an impending plugging condition in response to determining the variance delta is greater than a threshold value.

Abstract: An air flow calibration system for an agricultural system includes a controller configured to receive first sensor signals indicative of a set of upstream air pressures and second sensor signals indicative of downstream air pressures. The controller is also configured to iteratively determine a variance delta based on the pressures, compare the variance delta to a threshold value, and output a first output signal to decrease an air flow rate by a first amount until the variance delta is greater than the threshold value. The controller is configured to iteratively output a second output signal to increase the air flow rate by a second amount, determine the variance delta, and compare the variance delta to the threshold value until the variance delta is less than or equal to the threshold value. The controller is configured to determine a plugging condition is terminated, and store a calibration value.

Abstract: In one aspect, a system for providing downforce control includes a seeder including a plurality of row units. One or more actuators are operably coupled with the plurality of row units and configured to adjust a downforce of the plurality of row units. A sensor is configured to detect one or more seeding parameters. A computing system is configured to control the operation of the plurality of row units. The computing system is further configured to receive an input associated with a target depth range of the row unit into an underlying field, receive data related to one or more seeding parameters, receive data related to an actual seeding depth; generate a command signal based on a differential between the actual seeding depth and the target depth range; and generate a force command for the one or more actuators to adjust a downforce of the plurality of row units.

Abstract: A method for controlling a material flow rate from a metering system of an agricultural system includes receiving at a controller, a weight of a material in a storage tank. The method also includes receiving, at the controller, a volume of the material in the storage tank. The method also includes determining, via the controller, a density of the material in the storage tank using the weight of the material in the storage tank and the volume of the material in the storage tank. The method further includes determining, via the controller, a calibration of the metering system based on the density of the material in the storage tank.

Abstract: An agricultural system includes an agricultural implement having a plurality of ground engagement tools. Each of the plurality of ground engagement tools is configured to engage a field and is associated with a respective location on the agricultural implement. The agricultural system also includes a control system with a memory storing instructions and a processor configured to execute the instructions to determine a parameter value associated with slip is outside of a range of values, determine a location on the agricultural implement associated with the parameter value that is outside of the range of values, and output a signal based on the location associated with the parameter value that is outside of the range of values.

Abstract: An agricultural system includes an agricultural implement comprising a plurality of ground engagement tools, wherein each ground engagement tool of the plurality of ground engagement tools is configured to engage soil of a field. Additionally, the agricultural system includes a controller with a memory and a processor, wherein the controller is configured to receive a signal indicative of a speed of a rotational element of the agricultural implement, determine that a difference between the speed of the rotational element and an expected speed of the rotational element of the agricultural implement is greater than a threshold, wherein the expected speed of the rotational element is associated with a no-slip operating condition of the agricultural implement, and reduce an engagement between at least one ground engagement tool of the plurality of ground engagement tools and the soil in response to the difference being greater than the threshold.

Abstract: An agitator for an agricultural system includes a shaft configured to rotate about a rotational axis during operation of the agricultural system, and an extension coupled to the shaft. The extension includes a hoop and a tine extending from the hoop, and the tine extends acutely relative to the rotational axis of the shaft.

Abstract: In one aspect, a system for providing downforce control includes a seeder including a plurality of row units. One or more actuators are operably coupled with the plurality of row units and configured to adjust a downforce of the plurality of row units. A sensor is configured to detect one or more seeding parameters. A computing system is configured to control the operation of the plurality of row units. The computing system is further configured to receive an input associated with a target depth range of the row unit into an underlying field, receive data related to one or more seeding parameters, receive data related to an actual seeding depth; generate a command signal based on a differential between the actual seeding depth and the target depth range; and generate a force command for the one or more actuators to adjust a downforce of the plurality of row units.

Abstract: A method for controlling the speed of a work vehicle towing an implement that is movable between a working position, in which ground engaging tools of the implement are configured to perform a field operation, and a transport position, in which the ground engaging tools are raised relative to the ground. The method may include monitoring, with a computing device, an implement weight supported by the implement while the implement is in the transport position. The method may further include comparing, with the computing device, the implement weight to a predetermined threshold weight. Additionally, the method may include, when the implement weight differs from the predetermined threshold weight, adjusting, with the computing device, a maximum speed limit for the work vehicle.

Abstract: An agricultural system includes a controller comprising a memory and a processor. The controller is configured to receive a sensor signal, determine a current flow based on the sensor signal, determine whether the current flow exceeds a current threshold for a time threshold, and operate a drive system of the agricultural system in an alternative operation instead of a normal operation in response to determining the current flow exceeds the current threshold for the time threshold.

Abstract: A meter roller for an agricultural metering system includes multiple flutes and corresponding recesses. The flutes and the corresponding recesses are configured to meter flowable particulate material from a storage tank to a material distribution system via rotation of the meter roller. The meter roller also includes multiple air passages formed within a body of the meter roller. Each air passage is fluidly coupled to a central cavity of the meter roller and extends to a base of a respective recess, and the air passage is configured to flow air from the central cavity into the respective recess.

Abstract: A method for controlling a material flow rate from a metering system of an agricultural system includes receiving at a controller, a weight of a material in a storage tank. The method also includes receiving, at the controller, a volume of the material in the storage tank. The method also includes determining, via the controller, a density of the material in the storage tank using the weight of the material in the storage tank and the volume of the material in the storage tank. The method further includes determining, via the controller, a calibration of the metering system based on the density of the material in the storage tank.

Abstract: A particulate material sensing and agitation control system of an agricultural system having a drive system configured to operate an agitating system, and a controller having a memory and a processor. The controller is configured to receive at least one sensor signal indicative of a profile of a particulate material within the agricultural system, and output a control signal to instruct the drive system to operate the agitating system in a selected operating mode of a plurality of operating modes based on the profile of the particulate material. The agitating system is configured to interact with the particulate material in each operating mode of the plurality of operating modes, and the plurality of operating modes includes an agitation mode and a leveling mode.

Abstract: A downforce monitoring system for an agricultural row unit includes a controller configured to receive a first input signal indicative of torque applied to a gauge wheel support arm. The controller is also configured to receive a second input signal indicative of an angle of the gauge wheel support arm relative to a frame of the agricultural row unit. In addition, the controller is configured to determine a determined downforce applied to a soil surface by a gauge wheel rotatably coupled to the gauge wheel support arm based on the torque and the angle. The controller is also configured to output a first output signal of the determined downforce, to output a second output signal to a downforce actuator to control a downforce applied to the soil surface by the gauge wheel based on the determined downforce and a target downforce, or a combination thereof.

Abstract: Embodiments of the present disclosure include an agitating system of an agricultural system having a drive system configured to operate an agitator and a controller comprising a memory and a processor. The controller is configured to alternatingly instruct the drive system to operate the agitator in an active operation for an active time and instruct the drive system to suspend operation of the agitator for a dwell time after the active time.

Abstract: An agitator for an agricultural system includes a shaft configured to rotate about a rotational axis during operation of the agricultural system, and an extension coupled to the shaft. The extension includes a hoop and a tine extending from the hoop, and the tine extends acutely relative to the rotational axis of the shaft.

Abstract: A method for controlling the speed of a work vehicle towing an implement that is movable between a working position, in which ground engaging tools of the implement are configured to perform a field operation, and a transport position, in which the ground engaging tools are raised relative to the ground. The method may include monitoring, with a computing device, an implement weight supported by the implement while the implement is in the transport position. The method may further include comparing, with the computing device, the implement weight to a predetermined threshold weight. Additionally, the method may include, when the implement weight differs from the predetermined threshold weight, adjusting, with the computing device, a maximum speed limit for the work vehicle.

Abstract: A meter roller for an agricultural metering system includes multiple flutes and corresponding recesses. The flutes and the corresponding recesses are configured to meter flowable particulate material from a storage tank to a material distribution system via rotation of the meter roller. The meter roller also includes multiple air passages formed within a body of the meter roller. Each air passage is fluidly coupled to a central cavity of the meter roller and extends to a base of a respective recess, and the air passage is configured to flow air from the central cavity into the respective recess.

Abstract: An agricultural system includes a controller comprising a memory and a processor. The controller is configured to receive a sensor signal, determine a current flow based on the sensor signal, determine whether the current flow exceeds a current threshold for a time threshold, and operate a drive system of the agricultural system in an alternative operation instead of a normal operation in response to determining the current flow exceeds the current threshold for the time threshold.