Abstract: In one aspect, a system for dispensing agricultural products into a field using an agricultural machine may include a metering device configured to control a rate at which an agricultural product is dispensed into the field. Furthermore, the system may include a controller configured to determine a density of a cover crop present within the field as the agricultural machine is moved across the field. Moreover, the controller may be configured to determine an adjustment to be made to the rate at which the agricultural product is being dispensed for use in growing a primary crop within the field based on the determined density. Additionally, the controller may be configured to control the operation of the metering device to execute the adjustment of the rate at which the agricultural product is being dispensed.

Abstract: A plugging control system for an agricultural implement includes a sensor configured to output a sensor signal indicative of plugging of a ground engaging component and a controller having a processor and a memory. The processor is configured to receive the sensor signal indicative of plugging of the ground engaging component from the sensor, determine whether the plugging exceeds a threshold value, and in response to the plugging exceeding the threshold value, output a monitoring signal to perform a monitoring operation, output a control signal to perform a control operation, or both.

Abstract: In one aspect, a row unit for use on an agricultural implement may include a furrow-forming tool coupled to a frame. The furrow-forming tool may be configured to form a furrow in soil present within the field as the row unit is moved across the field. The row unit may also include a first dispensing device configured to dispense a first agricultural product into the furrow. Furthermore, the row unit may include a cultivator coupled to the frame and positioned aft of the furrow-forming tool relative to a direction of travel of the row unit. The cultivator may, in turn, be configured to agitate a lateral swath of the soil. Additionally, the row unit may include a second dispensing device positioned aft of the first dispensing device relative to the direction of travel, with the second dispensing device configured to dispense a second agricultural product into the field.

Abstract: A soil resistivity detection system for an agricultural implement includes a row unit having row unit components. The row unit components include a residue management system configured to condition soil at a leading edge of the row unit, an opening system configured to form a furrow in the soil, a closing assembly configured to close the furrow, and a press wheel assembly configured to compact the soil. The soil resistivity detection system also includes a control assembly configured to output an electrical current to a first pair of the row unit components, receive voltages from a second pair of the row unit components, determine a voltage differential based on the voltages, and determine a soil resistivity based on the voltage differential.

Abstract: In one aspect, a system for dispensing agricultural products into a field using an agricultural machine may include a metering device configured to control a rate at which an agricultural product is dispensed into the field. Furthermore, the system may include a controller configured to determine a density of a cover crop present within the field as the agricultural machine is moved across the field. Moreover, the controller may be configured to determine an adjustment to be made to the rate at which the agricultural product is being dispensed for use in growing a primary crop within the field based on the determined density. Additionally, the controller may be configured to control the operation of the metering device to execute the adjustment of the rate at which the agricultural product is being dispensed.

Abstract: In one aspect, a row unit for use on an agricultural implement may include a furrow-forming tool coupled to a frame. The furrow-forming tool may be configured to form a furrow in soil present within the field as the row unit is moved across the field. The row unit may also include a first dispensing device configured to dispense a first agricultural product into the furrow. Furthermore, the row unit may include a cultivator coupled to the frame and positioned aft of the furrow-forming tool relative to a direction of travel of the row unit. The cultivator may, in turn, be configured to agitate a lateral swath of the soil. Additionally, the row unit may include a second dispensing device positioned aft of the first dispensing device relative to the direction of travel, with the second dispensing device configured to dispense a second agricultural product into the field.

Abstract: A plugging control system for an agricultural implement includes a sensor configured to output a sensor signal indicative of plugging of a ground engaging component and a controller having a processor and a memory. The processor is configured to receive the sensor signal indicative of plugging of the ground engaging component from the sensor, determine whether the plugging exceeds a threshold value, and in response to the plugging exceeding the threshold value, output a monitoring signal to perform a monitoring operation, output a control signal to perform a control operation, or both.

Abstract: A soil resistivity detection system for an agricultural implement includes a row unit having row unit components. The row unit components include a residue management system configured to condition soil at a leading edge of the row unit, an opening system configured to form a furrow in the soil, a closing assembly configured to close the furrow, and a press wheel assembly configured to compact the soil. The soil resistivity detection system also includes a control assembly configured to output an electrical current to a first pair of the row unit components, receive voltages from a second pair of the row unit components, determine a voltage differential based on the voltages, and determine a soil resistivity based on the voltage differential.

Abstract: A method for managing substances in a plant root zone, including the steps of providing a fluid distribution system, controlling the fluid distribution system, modeling the plant root zone, and distributing the substances thereto. The fluid distribution system is associated with an agricultural area. The fluid distribution system is controlled by way of a controller. The plant root zone is modeled for a plurality of locations in the agricultural area. The modeling step incorporates a desired three-dimensional distribution of the substances for each of the plurality of locations for a future time period. Substances are distributed to the plurality of locations by way of the fluid distribution system under control of the controller. The controller is dependent upon the desired three-dimensional distribution and the future time.

Abstract: A method for managing substances in a plant root zone, including the steps of providing a fluid distribution system, controlling the fluid distribution system, modeling the plant root zone, and distributing the substances thereto. The fluid distribution system is associated with an agricultural area. The fluid distribution system is controlled by way of a controller. The plant root zone is modeled for a plurality of locations in the agricultural area. The modeling step incorporates a desired three-dimensional distribution of the substances for each of the plurality of locations for a future time period. Substances are distributed to the plurality of locations by way of the fluid distribution system under control of the controller. The controller is dependent upon the desired three-dimensional distribution and the future time.