Abstract: A tangible non-transitory computer readable medium includes instructions that, when executed by a processor, are configured to cause the processor to detect a movement state of an agricultural implement and automatically retract a stabilizer of a stabilization system from an extended position to a retracted position in response to detecting the movement state of the agricultural implement. The stabilizer is connected to a rear portion of a frame of the agricultural implement, and the stabilizer is configured to support a weight of the rear portion while in the extended position.

Abstract: An agricultural implement towable by an agricultural vehicle. The agricultural implement includes a frame with a front portion and a rear portion, a plurality of ground engaging tools connected to the rear portion, and a stabilization system. The stabilization system includes at least one stabilizer connected to the rear portion. The at least one stabilizer is remotely operated for selectively supporting the rear portion relative to the front portion and leveling the frame.

Abstract: An agricultural implement towable by an agricultural vehicle. The agricultural implement includes a frame with a front portion and a rear portion, a plurality of ground engaging tools connected to the rear portion, and a stabilization system. The stabilization system includes at least one stabilizer connected to the rear portion. The at least one stabilizer is remotely operated for selectively supporting the rear portion relative to the front portion and leveling the frame.

Abstract: In one aspect, a system for reducing variations in the penetration depths between ground-engaging tools of an agricultural implement may include an implement having tires spaced apart from each other. The system may also include pressure sensors provided in operative association with the tires, each pressure sensor being configured for detecting an air pressure within the associated tire. Additionally, the system may include a controller communicatively coupled to the pressure sensors. The controller may be configured to monitor an air pressure differential between a pair of tires based on measurement signals received from the pressure sensors. The air pressure differential may be indicative of variability in the penetration depths of the ground-engaging tools.

Abstract: A row unit assembly may generally include a clamp mount configured to be coupled to a frame member of an agricultural implement. The clamp mount may include a first clamp member and a second clamp member pivotally coupled to the first clamp member. The first clamp member may include a first clamp wall spaced apart from a second clamp wall of the second clamp member such that the frame member is clamped between the first and second clamp walls. In addition, the second clamp member may include a flange extending outwardly relative to the second clamp wall such that the flange overlaps the frame member along at least a portion of a top side of the frame member. Moreover, the row unit assembly may include an agricultural row unit including at least one support arm pivotally coupled to the clamp mount.

Abstract: An agricultural tillage implement with a hydraulic system coupled to actuators of foldable wing sections and to actuators of wheel assemblies associated with each wing section. The hydraulic system having a wing sensor detecting an inner wing section being folded and at least one valve coupled to the wing sensor. The valve being activated by the wing sensor enabling a hydraulic fluid flow to the actuators associated with the wheel assemblies of the wing sections causing the wheel assemblies associated with the wing sections to thereby retract.

Abstract: A row unit assembly may generally include a clamp mount configured to be coupled to a frame member of an agricultural implement. The clamp mount may include a first clamp member and a second clamp member pivotally coupled to the first clamp member. The first clamp member may include a first clamp wall spaced apart from a second clamp wall of the second clamp member such that the frame member is clamped between the first and second clamp walls. In addition, the second clamp member may include a flange extending outwardly relative to the second clamp wall such that the flange overlaps the frame member along at least a portion of a top side of the frame member. Moreover, the row unit assembly may include an agricultural row unit including at least one support arm pivotally coupled to the clamp mount.

Abstract: An agricultural tillage implement with a hydraulic system coupled to actuators of foldable wing sections and to actuators of wheel assemblies associated with each wing section. The hydraulic system having a wing sensor detecting an inner wing section being folded and at least one valve coupled to the wing sensor. The valve being activated by the wing sensor enabling a hydraulic fluid flow to the actuators associated with the wheel assemblies of the wing sections causing the wheel assemblies associated with the wing sections to thereby retract.

Abstract: A two-stage wingless reusable aerospace vehicle having upper and lower stages that take off from a take-off area and separate at a separation point along a first trajectory. The separation forces are generated by air retained between the upper and lower stages, which is at a pressure higher than ambient pressure at the separation point. The lower stage is then propelled along a return trajectory to a landing area. After separation from the lower stage, the upper stage continues to an Earth orbit for deployment of a payload. After deploying the payload, the upper stage moves out of the Earth orbit, re-enters the Earth's atmosphere, and returns to the take-off and landing area. The upper and lower stages are powered by liquid oxygen and kerosene engines.