Patent classifications
A01C7/18
Seed dispersion unit
A seed dispersion unit for distributing a plurality of seeds includes a single inlet for the plurality of seeds, a chamber in communication with the single inlet, and a plurality of outlet conduits in communication with the chamber. Each of the plurality of outlet conduits is configured to transfer a portion of the plurality of seeds from the chamber. An annular base defines a portion of the chamber. Each of the outlet conduits extends radially from the base.
Seeding system
A seeding system includes a storage tank operable to store a plurality of seeds and a dispersion unit configured to disperse some of the plurality of seeds amongst a plurality of conduits. The dispersion unit includes a sensor. A meter is operable to transfer the some of the plurality of seeds from the storage tank to the dispersion unit. The sensor is operable to produce a signal to control the transfer from the storage tank to the dispersion unit.
MULTIPLE AGRICULTURAL PRODUCT APPLICATION METHOD AND SYSTEMS
A method and system for planting one of a plurality of seed types, hybrids and/or varieties is provided. A planter is provided with a plurality of row units. The row units include metering systems, which can include multiple seed meters at a particular row unit, as well as a queuing system. The metering systems including more than one seed meters are configured such that the seed meters will plant a different seed types or varieties. The operation of one or more of the seed meters at a time will provide for the planting of a particular seed variety. The invention provides for on-the-go changing of a seed being planted by changing the operation of one or more of the seed meters at each of the row units and provides for almost infinite variation among the row units for planting particular seed varieties or not planting at all.
Multiple agricultural product application method and systems utilizing drum metering system
A method and system for planting one of a plurality of seed types, hybrids and/or varieties is provided. A planter is provided with a plurality of row units. The row units include metering systems, which can include a drum meter capable of metering multiple types of seed at the single drum. The metering system including the drum is configured such that the seed meter will plant different seed types or varieties. The operation the drum meter will provide for the planting of a particular seed variety. The invention provides for on-the-go changing of a seed being planted by the operation of the drum seed meter at each of the row units and provides for almost infinite variation among the row units for planting particular seed varieties or not planting at all.
Agricultural inter-seeder rotor
A system for planting cover crop seeds in fields with standing row crops, including a high-clearance agricultural vehicle with a high-clearance toolbar, soil sealers, and a seeder with a reciprocator above the soil sealers to deliver various types of seeds onto the disrupted soil after which the soil sealers cover the seeds with soil.
Agricultural inter-seeder rotor
A system for planting cover crop seeds in fields with standing row crops, including a high-clearance agricultural vehicle with a high-clearance toolbar, soil sealers, and a seeder with a reciprocator above the soil sealers to deliver various types of seeds onto the disrupted soil after which the soil sealers cover the seeds with soil.
Air seeder for singulated and bulk seeding
An air seeder apparatus has a frame and a plurality of furrow opener assemblies spaced across a width of the frame at a narrow row spacing, and a plurality of bulk product containers and a bulk meter mounted on each, one of which dispenses seeds through a distribution network to a seed tube on each furrow opener assembly. A plurality of singulating meter is provided, each dispensing singulated seeds to the furrow opener on one of the furrow opener assemblies. During singulating operation seeds are delivered to the singulating furrow opener assemblies only by the singulating seed meter, and during conventional operation seeds are delivered to the singulating furrow opener assemblies only by the bulk meter. A lift system, when in a singulating mode, maintains idle conventional furrow opener assemblies in the transport position while moving singulating furrow opener assemblies between the operating position and the transport position.
Air seeder manifold system
A manifold system for balancing particle delivery from multiple discharge outlets includes a diverter subassembly movably mounted in a manifold for balancing discharge from the outlets. The manifold system is disclosed in an agricultural air seeder application, with the particles comprising tubes and the discharge outlets being connected to ground-engaging tools for depositing seeds in space, subsurface locations in a crop field. Automated and manually-adjustable embodiments are disclosed.
Agricultural product application in overlap areas
By varying the agricultural product application rates when a product delivery system travels through predetermined overlap areas, the drawbacks of over seeding such overlap areas may be substantially reduced. As a result, a product delivery system may travel without stopping meter sections and without dragging a seeding tool through a completely seeded region.
Distributing unit for granular material, in particular a seeding unit
A distributing unit (10) for granular material such as seed grains (12), fertilizers or the like is disclosed, in particular a seeding unit (11) of a distributing or seeding machine. The unit (10) comprises a housing (14) with at least one inlet opening (18) for conveying granular material or conveyed seed grains (12) and an outlet opening (26) and also a rotating conveying device (24) with at least one rotating conveying element (28) for taking hold of the granular material or the seed grains (12), which conveying element is arranged or extends approximately axially with respect to the housing (14). The grains are held by centrifugal forces on an inner lateral surface region (16) of the housing (14), are crowded together there and are aligned with respect to one another and are ordered in a line or are rowed at an angle which corresponds to an angular position between the lateral surface and the radial conveying element (28), with the result that in each case only one single grain (12) at the end of the row extends in a predefined path along the lateral surface (16) and, at the end of the separation process, leaves the outlet opening (26) approximately tangentially.