A compost and planting system and a method thereof are disclosed, wherein a sewage produced from the organic waste contained in a composting container during decomposition is drained into circulation hubs positioned below a filtering bottom of a composter arrangement and flows into an air-water flowing chamber of an air-water source arrangement through liquid slots of a plurality of circulation hubs positioned in the air-water flowing chamber. A liquid is fed into the air-water flowing chamber of the air-water source arrangement via a liquid inlet to carry the sewage to flow in a lower portion of the air-water flowing chamber while an upper portion of the air-water flowing chamber is maintained to have a flow of air, such that the liquid in the lower portion of the air-water flowing chamber enters the circulation hubs through the liquid slots thereof to be absorbed by the planting soil contained in a soil tub and the circulation hubs positioned below the soil tub.

An autonomous vehicle platform system and method configured to perform various in-season management tasks, including selectively applying fertilizer, mapping growth zones and seeding cover crop within an agricultural field, while self-navigating between rows of planted crops and beneath the canopy of the planted crops on the uneven terrain of an agricultural field, allowing for an ideal in-season application of fertilizer to occur once the planted crop is well established and growing rapidly, in an effort to limit the loss of fertilizer.

A grass seeding assembly for reseeding a lawn with grass seed includes an insertion tool that has a handle and a cup disposed on the handle. A cone is engaged with the cup on the insertion tool for driving the cone into ground. The cone is foraminous to facilitate water to pass through the cone. A planting mixture is placed within the cone and the planting mixture comprises a chemical fertilizer, grass seed and soil. A mesh screen is wrapped around the cone such that the mesh screen inhibits the planting mixture from passing through the cone.

Described herein are implements and applicators for placement of fluid applications with respect to agricultural plants of agricultural fields. In one embodiment, a fluid applicator for applying fluids to plants in rows in a field includes a base, at least one flexible or pivoting application member connected to the base and disposed to apply fluid to the plants, and a stabilizer associated with the at least one flexible or pivoting application member. The stabilizer can reduce movement of the application member to provide a more consistent fluid application to the plants.

An aperture assembly for use with a subsurface ejection vessel includes an electromagnet, a first dynamic aperture, a second dynamic aperture, a hollow shaft injection drill bit, a third dynamic aperture, collar perforations, and closed window apertures. The electromagnet actuates a closing of the first dynamic aperture. The electromagnet actuates an opening of the second dynamic aperture. The third dynamic aperture dynamically opens when triggered by a first pre-determined depth achievement counting by the encoder of the lead screw or distance traveled by a platform (505A) triggered by the limit switch that are communicated to the AI robot, the computer, and the PLC. The third dynamic aperture dynamically opens when the camera lens has a second pre-determined depth penetration of the hollow shaft injection drill bit and that the limit switch information is communicated to the computer, or the PLC.

A hollow shaft injection drilling array enables sequential dispensing of a plurality of constituents at targeted depths. The hollow shaft injection drilling array includes an artificial intelligence (AI) robot (1507C); a lens (1405); a computer (1511C); a programmable logic controller (PLC) (1505C); one or more encoders (1605B); one or more limit switches (1809B); a sensor; a plurality of hollow shaft drill bits (503); a plurality of guide rail(s) (917); a plurality of matching platforms comprising elastomers (903, and 909), and granite (905); and a plurality of lead screws (913). The elastomers (903, and 909), granite (905), and the lead screws (913) enable sequential dispensing of the constituents within a plurality of different targeted depths controlled via the AI robot (1507C), the lens (1405), the computer (1511C), the PLC (1505C), the encoder (1605B), the limit switch (1809B), and the sensor. The limit switches (1809B) and the encoders (1605B) enable the hollow shaft injection drilling array to sequence the constituents to be injected at one or more specific depths.

A device disperses a plurality of constituent materials by one or more of weight, volume, flow, time interval, and depths through one or more actuated dispenser openings connected to one or more of a plurality of chambers and a plurality of vessels. The device includes a gate (411B); an actuator a physical gate (405B); one or more load cells (605A, 605B. and 713); an artificial intelligence (AI) robot (807C); a lens (905); a computer (811C); a programmable logic controller (PLC) (805C); an encoder (1005B); a limit switch (1209B); and a sensor. The gate (411B), the actuator a physical gate (405B); and the load cell (713) enable a sequential dispensing of one or more constituents at targeted depths via the AI robot (807C), the lens (905), the computer (811C), the PLC (805C); the encoder (1005B), the limit switch (1209B), and/the sensor. The gate (411B), the actuator a physical gate (405B); and the load cell (713) are used to dispense by the load cell (605A) measuring the constituents by weight.

Implements include application units for placement of fluid applications with respect to agricultural plants of agricultural fields. In one embodiment, an application unit includes a frame to be positioned in operation between two rows of plants and a plurality of flexible members coupled to the frame in operation such that the plurality of flexible members guide a lateral position of the frame to be approximately equidistant from the two rows of plants based upon whether at least one flexible member of the plurality of flexible members contacts one or more plants of the two rows of plants. The plurality of flexible members include a plurality of fluid outlets for spraying crop input in close proximity to the rows of plants.

Technologies for generating sprayer routes based on corresponding seeder routes. In some embodiments, a method includes receiving, by a computing system, predetermined sprayer wayline information. The predetermined sprayer wayline information includes predetermined waylines for a sprayer to be operated in a field. The method also including receiving, by the computing system, seeder location information. The seeder location information includes locations of a seeder moving and operating within the field at regular intervals of time. And the method also including using, by the computing system, the received information as two separate inputs for a model to generate sprayer route information for the field.

Device for shaping the profile of a furrow, sensing soil properties and dosing fluids in the soil of an agricultural field, includes a body comprising an upper portion and lower portion defining a right lateral face and a left lateral face that are laterally opposite, a front face and a rear face that are longitudinally opposite, and an upper face and lower face that are vertically opposite, wherein the laterally opposite faces at the lower portion of the body are angled relative to a vertical direction forming a V-shaped profile cross section for V-shaping furrows; damping and biasing means linked to the upper face of the body; a fluid dosing conduit including an inlet and an outlet, and being longitudinally arranged within the body; sensing means on a face of the body for measuring soil properties; and a sensing unit for commanding the sensing means and receiving information thereof.