A seed placement unit including a body, a seed channel and a placement chamber, the seed channel extending from a first end, open to the exterior of the body for seed input, to a second end, open to the exterior of the body adjoining the placement chamber, for seed output. A guidance wheel intersects the seed channel and has at least one opening to receive a seed within the seed channel and carry it through the seed channel as the guidance wheel is rotated by a Geneva gear or other suitable mechanism. A closing wheel mechanism in the placement chamber rotates in synchronism with the guidance wheel to receive a seed from the seed channel and transfer the seed to the seed output opening. The seed placement unit may be carried on an agricultural vehicle or other mobile conveyance.

A seed placement unit including a body, a seed channel and a placement chamber, the seed channel extending from a first end, open to the exterior of the body for seed input, to a second end, open to the exterior of the body adjoining the placement chamber, for seed output. A guidance wheel intersects the seed channel and has at least one opening to receive a seed within the seed channel and carry it through the seed channel as the guidance wheel is rotated by a Geneva gear or other suitable mechanism. A closing wheel mechanism in the placement chamber rotates in synchronism with the guidance wheel to receive a seed from the seed channel and transfer the seed to the seed output opening. The seed placement unit may be carried on an agricultural vehicle or other mobile conveyance.

A spreader with a material divider that is adjustable by movement of a plurality of internally movable parts therein to change a stream of material which flows in an arbitrary manner to the centrifugal disk(s) to achieve a desired symmetrical or asymmetrical spread pattern.

A spreader with a material divider that is adjustable by movement of a plurality of internally movable parts therein to change a stream of material which flows in an arbitrary manner to the centrifugal disk(s) to achieve a desired symmetrical or asymmetrical spread pattern.

A planter system includes a planter having an unloading valve and a controller. The unloading valve is fluidly coupled between an inlet and an outlet of a pump. The unloading valve is configured to receive a fluid at a supply pressure, to supply a first portion of the fluid from the inlet to a hydraulic planter system at an unloading pressure less than the supply pressure, and to recirculate a remainder of the fluid to the pump via the outlet. The controller is communicatively coupled to the unloading valve and to the pump. The controller is configured to control the pressure of the fluid supplied to the inlet and to control the unloading pressure of the first portion supplied to the hydraulic planter system.

Systems and methods provide automatic assignment of control of a plurality of hydraulic circuits of an associated work vehicle to a plurality of operation systems of an implement. A hydraulic circuit assignment control unit includes a processor, a memory device, logic stored in the memory device, and a communication circuit operatively coupled with the processor. The processor executes the logic to associate an activation of a first hydraulic circuit of the plurality of hydraulic circuits of the associated work vehicle with a physical exercise of an operation system of the plurality of operation systems of the associated implement, and generates pairing assignment data representative of the association of the activated first hydraulic circuit with the physical exercise of the operation system of the implement. The logic generates directionality confirmation and calibration data that is communicated to the plurality of operation systems with the pairing assignment data.

A particulate material sensing and agitation control system of an agricultural system includes a drive system configured to operate an agitating system, a plurality of sensors, in which each sensor of the plurality of sensors may detect presence of particulate material at the sensor, and a controller. The controller is configured to determine a functional status of each sensor of the plurality of sensors, and, in response to determining the functional status of a respective sensor of the plurality of sensor is functioning, determine a detection status of the respective sensor. The controller is further configured to 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 a position within the agricultural system, the functional status, and the detection status of each sensor of the plurality of sensors.

A hydraulic system for an air cart includes a primary hydraulic assembly and a secondary hydraulic assembly. The hydraulic system also includes a first valve configured to block a flow of a hydraulic fluid flowing in a first direction from the primary hydraulic assembly and a second valve configured to block a flow of the hydraulic fluid flowing in a second direction from the secondary hydraulic assembly.

A hydraulic system for an air cart includes a primary hydraulic assembly and a secondary hydraulic assembly. The hydraulic system also includes a first valve configured to block a flow of a hydraulic fluid flowing in a first direction from the primary hydraulic assembly and a second valve configured to block a flow of the hydraulic fluid flowing in a second direction from the secondary hydraulic assembly.

A planting unit includes a seed meter for singulating and dispensing seed. Opening wheels or discs are included to create an opening in the field, such as a furrow. The unit includes one or more continuous tracks for supporting the row unit as it moves through the field. The tracks can be positioned on opposite sides. The tracks reduce compaction around the created furrow and provide better control of seed depth placement. One or more motors are included to operate the tracks to move the planting unit through a field for planting independent of a tow vehicle.