Abstract: A grain fill sensing system and method for monitoring grain levels during transfer from a grain cart to a grain trailer. The system includes at least one long-wave infrared (LWIR) sensor positioned to view an interior of a grain trailer and a processor configured to process thermal image data to determine grain fill levels. In some implementations, the system includes cylindrical visual aids (CVAs) mounted within the grain trailer. The processor detects the visibility of the CVAs to determine fill levels and may generate alerts or automatically control grain flow rates to prevent overfilling or spillage. The LWIR sensors may be mounted on the grain cart unload auger or on the grain trailer, and may include gimbal systems for maintaining optimal positioning during operation.

Abstract: An agricultural row unit having a coulter assembly comprising a pair of gauge wheels and a coulter between the pair of gauge wheels, wherein the coulter is configured to penetrate soil and cut debris. The row unit also having a soil engaging assembly comprising a sweep and a seed tube, wherein the sweep is configured to open a seed channel and the seed tube is configured to deposit seeds into the seed channel. The row unit also including a closing assembly configured to replace soil displaced by the coulter and sweep. The row unit configured for independent and optionally automatic variable depth control of the seed channel.

Abstract: An agricultural row unit having a coulter assembly comprising a pair of gauge wheels and a coulter between the pair of gauge wheels, wherein the coulter is configured to penetrate soil and cut debris. The row unit also having a soil engaging assembly comprising sweep and a seed tube, wherein the sweep is configured to open a seed channel and the seed tube is configured to deposit seeds into the seed channel. The row unit also including a closing assembly configured to replace soil displaced by the coulter and sweep. The row unit configured for independent and optionally automatic variable depth control of the seed channel.

Abstract: An air seed meter for an agricultural planter includes a vacuum cover which has a central opening which exposes the central portion of the seed disc to the exterior. The central opening of the vacuum cover is centered on a location offset from the axis of rotation of the seed disc. This reduces disc wear at the disc-vacuum cover interface, and renders the disc more accessible for self-cleaning, visual inspection and verification of the proper disc. Openings in the central, open portion of the disc, the back wall of the seed housing and the side wall of the seed housing cooperate to equalize the air pressure in the seed reservoir to atmospheric pressure and reduce or eliminate reverse air currents in the discharge chute. An adjustable brush with three separate stations cooperates with an edge-release, beveled disc to apply a progressively more forceful singulation force to eliminate duplicate seeds.

Abstract: An air seed meter for an agricultural planter includes a vacuum cover which has a central opening which exposes the central portion of the seed disc to the exterior. The central opening of the vacuum cover is centered on a location offset from the axis of rotation of the seed disc. This reduces disc wear at the disc-vacuum cover interface, and renders the disc more accessible for self-cleaning, visual inspection and verification of the proper disc. Openings in the central, open portion of the disc, the back wall of the seed housing and the side wall of the seed housing cooperate to equalize the air pressure in the seed reservoir to atmospheric pressure and reduce or eliminate reverse air currents in the discharge chute. An adjustable brush with three separate stations cooperates with an edge-release, beveled disc to apply a progressively more forceful singulation force to eliminate duplicate seeds.