A pre-metering system for feeding different types of seed into a seed meter of a planter includes separate feeder wheels that are selectively rotated to deliver different types of seed from on-row storage into the seed meter at a given time. The feeder wheels may be supported by a feeder wheel carrier that may also support various wall and ramped structures, such as upright divider walls and sloped walls that maintain separation between the different types of seeds in the on-row storage and direct the different types of seed toward the individual feeder wheels.

A seed meter assembly for a seeding machine. The seed meter assembly has a metering member mounted for rotation about a meter axis and driven to rotate in a direction of travel, the metering member having an inner surface configured to receive seeds and an outer surface and apertures passing through the metering member between the inner surface and the outer surface at a radial distance from the meter axis. The seed meter assembly also has a seed delivery mechanism configured to discharge the seeds from the seeding machine, and a loader including at least one non-cylindrical loader surface movable into and out of a position in which the loader surface is disposed at the radial distance adjacent one of the apertures.

A profile insert for a meter roller of an agricultural metering system includes a flute and a recess positioned adjacent to one another along a circumferential axis of the profile insert. The flute and the recess are configured to meter flowable particulate material from a storage tank to a material distribution system via rotation of the profile insert. The profile insert also includes at least one locking element configured to substantially block circumferential rotation of the profile insert relative to a spindle. In addition, the profile insert is configured to extend about only a portion of a circumference of the spindle.

An agricultural metering system includes a driven shaft having a first engagement feature configured to selectively engage a second engagement feature of a drive shaft mounted within a meter box of the agricultural metering system to non-rotatably couple the driven shaft to the drive shaft. The agricultural metering system includes a meter roller non-rotatably coupled to the driven shaft. The meter roller is configured to be selectively disposed within the meter box, and the first engagement feature is configured to engage the second engagement feature while the meter roller is disposed within the meter box to facilitate rotation of the meter roller in response to rotation of the drive shaft.

A planting system and method for planting multiple seed varieties includes a planter having a plurality of tanks and a plurality of row units. A plurality of seed meters are included in of the plurality of the row units. The seed meters are selectively operated at a time to plant a seed variety associated with the meter being operated. The determination of the seed meter used is based, in part, upon the location of the planter in the field. A cleanout system removes any unplanted seed before a different variety of seed is to be planted based upon an updated location.

An agricultural machine includes a motor configured to drive a seeding system that is, itself, configured to meter and deliver seed from the agricultural machine. The agricultural machine also includes a sensor configured to sense a characteristic of the seeding system and a skip detector component, that receives the sensor signal and detects a seed skip in the seeding system. Based on the detected seed skip, a processing system generates an operating parameter of the motor, and controls the motor based on the operating parameter.

A seed delivery apparatus and methods in which a seed conveyor delivers seed from a metering device to a furrow in a controlled manner to maintain seed placement accuracy within the furrow.

In one aspect, a system for spraying a fluid onto or near seeds may include a planter having a seed meter configured to dispense seeds from a hopper, a seed tube extending from the seed meter toward a furrow, and a rotationally-driven belt positioned within the seed tube. The belt may be configured for conveying the seeds from the seed meter through the seed tube to the furrow. The planter also includes a sprayer assembly having a nozzle configured to spray a fluid on or near the seeds dispensed from the seed meter. The system may further include a controller configured to determine a current speed of the belt relative to the seed tube and control the sprayer assembly based on the current speed of the belt such that the nozzle sprays the fluid at least one of onto or near each of the seeds.

A method of operating a volumetric metering system for a work vehicle includes detecting, with a sensor as the work vehicle moves, a tilt condition of the volumetric metering system relative to a reference horizontal plane. The method also includes generating, by a processor, a control command for a metering element based, at least partly, on the detected tilt condition. Furthermore, the method includes varying an actuation speed of the metering element according to the control command. A system for this method is also disclosed.

Disclosed is a manual granule spreader including: a main body including a wheel and a handle bar; a hopper having a plurality of discharge chutes; a spreading module having a spreading roller so as to spread the granules via first spreading means; a power transmission means.

According to the granule spreader, manpower applied to the wheel is used to spread granules in the hopper in a predetermined amount in a single direction or opposite directions for drill seeding or for broadcast seeding, whereby workforce is saved, granules are prevented from being wasted, and the direction, angle, and length of the spreading means are adjusted, and a flexible driving wire is used to transmit power for spreading granules, which allows a vertical spreading position of the granules to be easily controlled by a vertical position adjustment of the hopper.