A01B15/18

Field cultivation combined with fertilizer placement

A standard fertilizer applicator with coulters and shank assemblies with knives for placement of fertilizer below the soil surface is equipped with cultivator shank assemblies for tillage between the fertilizer shanks. Each cultivator shank is mounted by a plate having notches therein for adjusting the vertical height of the assembly. The plate is attached to a support bracket placed around a square beam or tool bar. When used for spring application, leveling of uneven soil is accomplished and weeds are eliminated with the same pass made to apply the fertilizer.

Field cultivation combined with fertilizer placement

A standard fertilizer applicator with coulters and shank assemblies with knives for placement of fertilizer below the soil surface is equipped with cultivator shank assemblies for tillage between the fertilizer shanks. Each cultivator shank is mounted by a plate having notches therein for adjusting the vertical height of the assembly. The plate is attached to a support bracket placed around a square beam or tool bar. When used for spring application, leveling of uneven soil is accomplished and weeds are eliminated with the same pass made to apply the fertilizer.

VARIABLE TOOTH COULTER BLADE WITH SIZED INSERTS
20190008087 · 2019-01-10 ·

A system and method cuts and increases surface area of surface stubble material while contemporaneously mulching, tiling and aerating the soil. A discoidal coulter blade is configured with sharpened areas at the circumference for cutting the surface stubble as well as reducing the downward pressure required for the blade to enter the type and depth of soil desired. The sharpened areas include a first long bevel, a second shorter bevel and an optional opposite counter bevel. The first and second bevels aid in coulter blade lifespan ensuring a self-sharpened blade while the counter-bevel allows mating with a second coulter blade at a sharpened point.

VARIABLE TOOTH COULTER BLADE WITH SIZED INSERTS
20190008087 · 2019-01-10 ·

A system and method cuts and increases surface area of surface stubble material while contemporaneously mulching, tiling and aerating the soil. A discoidal coulter blade is configured with sharpened areas at the circumference for cutting the surface stubble as well as reducing the downward pressure required for the blade to enter the type and depth of soil desired. The sharpened areas include a first long bevel, a second shorter bevel and an optional opposite counter bevel. The first and second bevels aid in coulter blade lifespan ensuring a self-sharpened blade while the counter-bevel allows mating with a second coulter blade at a sharpened point.

Variable tooth coulter blade with sized inserts

A system and method are disclosed for cutting and increasing surface area of surface stubble material while contemporaneously cutting and aerating the soil. A discoidal coulter blade is configured with a plurality of circumferential teeth for cutting the surface stubble as well as reducing the downward pressure required for the blade to enter the type and depth of soil desired. The circular coulter blade is configured with a plurality of inserts oriented normal to the rotational movement of the blade as the blade cuts the soil. Each insert is shaped to aerate a specific type of soil anticipated by an operator. The inserts are positioned on the blade for desired impact with the soil and angled in placement on the blade to maintain the desired effect on the soil.

Variable tooth coulter blade with sized inserts

A system and method are disclosed for cutting and increasing surface area of surface stubble material while contemporaneously cutting and aerating the soil. A discoidal coulter blade is configured with a plurality of circumferential teeth for cutting the surface stubble as well as reducing the downward pressure required for the blade to enter the type and depth of soil desired. The circular coulter blade is configured with a plurality of inserts oriented normal to the rotational movement of the blade as the blade cuts the soil. Each insert is shaped to aerate a specific type of soil anticipated by an operator. The inserts are positioned on the blade for desired impact with the soil and angled in placement on the blade to maintain the desired effect on the soil.

GROUND-ENGAGING IMPLEMENT WITH LATERAL POSITION ADJUSTMENT

A first rear member is spaced apart from the front member and positioned generally parallel to the front member. A first pair of first pivotable arms are generally parallel to each other. The first pair of first pivotable arms are rotatably connected to the front member at two front pivot points. The first pair of first pivotable arms are rotatably connected to the rear member at two rear pivot points. At least one first opener (e.g., nutrient knife or projecting, ground-engaging member) extends downward from or with respect to the first rear member.

GROUND-ENGAGING IMPLEMENT WITH LATERAL POSITION ADJUSTMENT

A first rear member is spaced apart from the front member and positioned generally parallel to the front member. A first pair of first pivotable arms are generally parallel to each other. The first pair of first pivotable arms are rotatably connected to the front member at two front pivot points. The first pair of first pivotable arms are rotatably connected to the rear member at two rear pivot points. At least one first opener (e.g., nutrient knife or projecting, ground-engaging member) extends downward from or with respect to the first rear member.

GROUND-ENGAGING IMPLEMENT WITH LATERAL POSITION ADJUSTMENT

A row frame is coupled to the rear member. A first opener is configured to open the soil; the first opener is supported by or from a first support extending downward from the frame member. A first outlet is configured to dispense or apply a nutrient strip. A laterally movable carrier is associated with the row frame. The carrier supports the first opener and the first outlet. A second outlet can dispense or plant seed, wherein the first outlet and the second outlet have a lateral separation that is dynamically adjustable during the simultaneous application of seed and the nutrient strip.

GROUND-ENGAGING IMPLEMENT WITH LATERAL POSITION ADJUSTMENT

A data processor determines whether a draft force on the implement is unbalanced based on an error between the observed implement angle and a target implement heading exceeding a threshold deviation. The data processor is adapted to generate a control signal to compensate for the imbalance in the draft force by adjusting the first lateral position via the first actuator, or by adjusting the second lateral position via the second actuator, the first actuator and the second actuator being positioned on opposite lateral sides of the implement.