A single-grain seeder including a chassis that supports at least one seeding element including a dispensing housing, at least one opening disk for opening a furrow in the ground, and at least one depth control wheel, the dispensing housing delivering seeds one by one via a rotary dosing element configured to turn about a rotation axis, each seed being ejected from the rotary dosing element at an ejection point extending in a lower portion of the rotary dosing element. The ejection point is disposed in an external diameter of the opening disk, when viewed along the rotation axis of the rotary dosing element.

A tillage apparatus for selective primary tillage and seed bed preparation makes use of a selectively moveable primary tillage shank to provide seasonal, in-field and/or on-the-fly flexibility of tillage operation. The tillage apparatus has a cultivator frame, at least one secondary tillage tool mounted on the frame and a primary tillage shank mounted on the frame, the primary tillage shank selectively moveable between a lowered soil engaging position and a raised disengaged position. In a method of tilling or preparing a seed bed, the tillage apparatus is dragged around a field with the at least one secondary tillage tool engaged with the field when secondary tillage of the field is desired, and the selectively moveable primary tillage shank lowered to be engaged with the field when the field is in need of primary tillage or raised to be disengaged from the field when primary tillage is not desired.

A plough assembly (10) to be drawn by a plough frame that is attached to a prime mover. The assembly (10) includes a digging shank (14) attached to a clamp (11) that is to be attached to the plough frame. Attached to the lower end of the shank (14) is a digging assembly (21). The digging assembly (21) includes a mounting (22) and a digging blade (23). Behind the digging blade (23) is a twin road seeding boot (76). Following the boot (76) is a press wheel (68), with the seeding boot (76) having a transverse width greater than the transverse width of the blade (23).

A plough assembly (10) to be drawn by a plough frame that is attached to a prime mover. The assembly (10) includes a digging shank (14) attached to a clamp (11) that is to be attached to the plough frame. Attached to the lower end of the shank (14) is a digging assembly (21). The digging assembly (21) includes a mounting (22) and a digging blade (23). Behind the digging blade (23) is a twin road seeding boot (76). Following the boot (76) is a press wheel (68), with the seeding boot (76) having a transverse width greater than the transverse width of the blade (23).

A power seeder may include a frame, one or more wheels, one or more blades capable of cutting into soil, an engine capable of powering the one or more blades, and a seed hopper. The seed hopper may have an opening capable of dispensing seed located forward of the one or more blades. The one or more blades may rotate in an opposite direction to a forward rotation of the one or more wheels. In some embodiments, the seeder may further include a handle for adjusting the height of the one or more blades, a plurality of interlocking teeth, and a spring. The spring may provide a load to counteract the force of gravity on the one or more blades. The aerator may also include a flap located between the opening and the one or more blades.

A row unit for a seeding machine includes a ground view sensor coupled to the frame. The ground view sensor is operable to sense the furrow and generate depth signals corresponding to actual sensed depth of the furrow. The row unit also includes a controller configured to receive the signals, and a downforce adjustment mechanism coupled to the frame and to the controller. The controller is configured to activate the downforce adjustment mechanism to adjust a downforce on the frame based on the signals received by the controller.

A row unit for a seeding machine includes a ground view sensor coupled to the frame. The ground view sensor is operable to sense the furrow and generate depth signals corresponding to actual sensed depth of the furrow. The row unit also includes a controller configured to receive the signals, and a downforce adjustment mechanism coupled to the frame and to the controller. The controller is configured to activate the downforce adjustment mechanism to adjust a downforce on the frame based on the signals received by the controller.

A system for detecting the operational status of a seed-planting implement. The system includes a row unit including a frame and a residue removal device coupled to the frame. The residue removal device is configured to remove residue from a path of the row unit. The system further includes a sensor configured to capture data indicative of at least one of a position or an acceleration of the residue removal device. The system further includes a controller configured to monitor the data received from the sensor and compare at least one monitored value associated with the at least one of the position or the acceleration of the residue removal device to a predetermined threshold value set for the residue removal device. The controller is further configured to identify the residue removal device as being plugged when the at least one monitored value differs from the predetermined threshold value.

A system for detecting the operational status of a seed-planting implement. The system includes a row unit including a frame and a residue removal device coupled to the frame. The residue removal device is configured to remove residue from a path of the row unit. The system further includes a sensor configured to capture data indicative of at least one of a position or an acceleration of the residue removal device. The system further includes a controller configured to monitor the data received from the sensor and compare at least one monitored value associated with the at least one of the position or the acceleration of the residue removal device to a predetermined threshold value set for the residue removal device. The controller is further configured to identify the residue removal device as being plugged when the at least one monitored value differs from the predetermined threshold value.

An agricultural planting system for controlling the depth of an opener device in an agricultural planter includes an agricultural planter, an opener device, a gauge wheel, a GPS device, and a controller. The opener device is mounted on the agricultural planter for engaging the ground of a field. The gauge wheel is mounted on the agricultural planter for rotating on the ground of the field. The GPS device is coupled to the agricultural planter. The GPS device is configured to determine a location of the agricultural planter in the field. The controller is in electrical communication with the agricultural planter and the GPS device. The controller has predetermined settings associated with a map of the field. The controller is configured to select a relative elevation of the opener device and the gauge wheel based at least in part on the location determined by the GPS device.