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 embodiment, an agricultural implement system includes a product tank configured to carry a product during farming operations. The product tank includes a quick fill port system. The quick fill port system includes a first wall defining a first opening leading to an inside of the product tank. The quick fill port system further includes a first cover member disposed on the first opening and configured to at least partially cover and to uncover the first opening, wherein the first opening comprises a first size larger than a diameter of a product dispenser configured to be inserted into the first opening.

Abstract: A method includes receiving a first signal indicative of an implement pitch angle from a sensor, determining whether the pitch angle is within a pitch angle range, generating a first control signal indicative of instructions to adjust a hitch actuator if the pitch angle is not within the pitch angle range, and communicating the first control signal to the hitch actuator.

Abstract: A system includes an agricultural implement, a sensor, and a control system. The agricultural implement is configured to be coupled to an agricultural vehicle. The sensor is coupled to the agricultural implement and configured to output a signal indicative of a current pitch angle of the agricultural implement. The control system is configured to receive the signal indicative of the current pitch angle from the sensor, determine an anticipated pitch angle for traversing an upcoming topographical feature, define an anticipated pitch angle range based on the anticipated pitch angle, determine whether the current pitch angle is within the anticipated pitch angle range, generate a hitch height control signal indicative of instructions to predictively adjust a hitch height actuator if the current pitch angle is not within the anticipated pitch angle range, and communicate the hitch height control signal.

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 embodiment, an agricultural implement system includes a product tank configured to carry a product during farming operations. The product tank includes a quick fill port system. The quick fill port system includes a first wall defining a first opening leading to an inside of the product tank. The quick fill port system further includes a first cover member disposed on the first opening and configured to at least partially cover and to uncover the first opening, wherein the first opening comprises a first size larger than a diameter of a product dispenser configured to be inserted into the first opening.

Abstract: A method includes receiving a first signal indicative of an implement pitch angle from a sensor, determining whether the pitch angle is within a pitch angle range, generating a first control signal indicative of instructions to adjust a hitch actuator if the pitch angle is not within the pitch angle range, and communicating the first control signal to the hitch actuator.

Abstract: A system includes an agricultural implement, a sensor, and a control system. The agricultural implement is configured to be coupled to an agricultural vehicle. The sensor is coupled to the agricultural implement and configured to output a signal indicative of a current pitch angle of the agricultural implement. The control system is configured to receive the signal indicative of the current pitch angle from the sensor, determine an anticipated pitch angle for traversing an upcoming topographical feature, define an anticipated pitch angle range based on the anticipated pitch angle, determine whether the current pitch angle is within the anticipated pitch angle range, generate a hitch height control signal indicative of instructions to predictively adjust a hitch height actuator if the current pitch angle is not within the anticipated pitch angle range, and communicate the hitch height control signal.

Abstract: A system includes an agricultural implement, a sensor, and a control system. The agricultural implement is configured to be coupled to an agricultural vehicle. The sensor is coupled to the agricultural implement and configured to output a signal indicative of a pitch angle of the agricultural implement. The control system is configured to receive the signal indicative of the pitch angle from the sensor, determine whether the pitch angle is within a pitch angle range, generate a hitch height control signal indicative of instructions to adjust a hitch actuator if the pitch angle is not within the pitch angle range, and communicate the hitch height control signal.

Abstract: A system includes an agricultural implement, a sensor, and a control system. The agricultural implement is configured to be coupled to an agricultural vehicle. The sensor is coupled to the agricultural implement and configured to output a signal indicative of a pitch angle of the agricultural implement. The control system is configured to receive the signal indicative of the pitch angle from the sensor, determine whether the pitch angle is within a pitch angle range, generate a hitch height control signal indicative of instructions to adjust a hitch actuator if the pitch angle is not within the pitch angle range, and communicate the hitch height control signal.

Abstract: A gaseous fuel mixer for an internal combustion engine includes a mixer body and a mixer element supported in a mixer passage formed in the mixer body. The gaseous fuel mixer attaches to an intake manifold at a first end and receives intake air at a second end. A distal end of the mixer element accepts gaseous fuel from a manifold passage extending from a port positioned in the intake manifold. The gaseous fuel flows through the mixer element and then through a plurality of openings formed in an exposed proximate end of the mixer element. The gaseous fuel mixes with the intake air, and the mixture of intake air and gaseous fuel flows from the second end of the mixer body to the first end of the mixer body and then to the intake manifold.

Abstract: A gaseous fuel mixer for an internal combustion engine includes a mixer body and a mixer element supported in a mixer passage formed in the mixer body. The gaseous fuel mixer attaches to an intake manifold at a first end and receives intake air at a second end. A distal end of the mixer element accepts gaseous fuel from a manifold passage extending from a port positioned in the intake manifold. The gaseous fuel flows through the mixer element and then through a plurality of openings formed in an exposed proximate end of the mixer element. The gaseous fuel mixes with the intake air, and the mixture of intake air and gaseous fuel flows from the second end of the mixer body to the first end of the mixer body and then to the intake manifold.