Cnh Canada, Ltd.

Cnh Industrial Canada, Ltd.

Cory Adrian Yuen

Nicholas George Alfred Ryder

Anthony Charles Rapley

Michael J Bloom

Martin Jean Roberge

Dennis George Thompson

Robin Bruno Schilling

Graham Douglas Stuart

Darwin Lloyd Zacharias

Nicholas George Ryder

Terrance Alan Friggstad

Nicholas Ryder

Terrance A Friggstad

An air cart system includes a container assembly mounted on wheels and including a primary product container and an air distribution network including a product conduit that delivers a first agricultural product and a second agricultural product to an agricultural implement. The air cart system includes a first metering device to meter the first agricultural product from the primary product container to the product conduit. A fill hopper mounts on a side of the container assembly, and a secondary product container mounts beneath a portion of the primary product container. The secondary product container receives the second agricultural product from the fill hopper, which receives the second agricultural product at an opening and conveys the second agricultural product to the secondary product container. The air cart system includes a second metering device to meter the second agricultural product from the secondary product container to the product conduit.

Secondary seed tank for air cart system

An agricultural implement is provided that includes a ground engaging tool configured to engage soil in a working position and to disengage the soil in a non-working position. The agricultural implement also includes an actuating cylinder coupled to the ground engaging tool and configured to transition the ground engaging tool between the working position and the non-working position based on a flow of fluid from a fluid supply system. In addition, the agricultural implement includes at least one sensor configured to output a signal indicative of a fluid pressure within the fluid supply system, and a controller configured to determine whether the ground engaging tool is in the working position or the non-working position based on the first signal.

System and method for determining ground engaging tool position based on fluid pressure

An agricultural implement is provided that includes a ground engaging tool configured to engage soil in a working position and to disengage the soil in a non-working position. The agricultural implement also includes an actuating cylinder coupled to the ground engaging tool and configured to transition the ground engaging tool between the working position and the non-working position based on a flow of fluid from a fluid supply system. In addition, the agricultural implement includes at least one sensor configured to output a signal indicative of a fluid pressure within the fluid supply system, and a controller configured to determine whether the ground engaging tool is in the working position or the non-working position based on the signal.

A farm implement has a frame that is foldable between an extended, working position and a folded, for-transport position has a hydraulic system that controls the flow of hydraulic fluid to a series of actuators that raise and lower the implement. The hydraulic system is controlled by a control lever or arm that rotates a rockshaft to open and close hydraulic valves to change the flow of hydraulic fluid to the actuators. To prevent the unintentional lowering of the implement frame when the implement is in transport, a lockout arrangement engages the rockshaft to prevent rotation of the rockshaft when the frame is in the folded position. The lockout arrangement locks out the rockshaft automatically when the frame is raised to the folded position.

Lockout system for hydraulic valves of an agricultural implement

A hydraulic control apparatus for a foldable farm includes first hydraulic control system is used to control weight transfer to ground engaging tools mounted to a stationary and foldable wing frame sections. A second hydraulic system is used to fold and unfold the wing sections. A hydraulic control is provided that interfaces with both hydraulic systems to control sequencing of the functions provided by the first and second hydraulic systems. The first and second hydraulically systems have mechanically controlled valves to control the flow of hydraulic fluid to various lifting, folding, and down pressure cylinders.

Mechanically controlled hydraulic system for an agricultural implement

In an embodiment, an agricultural implement includes a tool bar and a tool frame rotatably coupled to the tool bar. The agricultural implement also includes multiple row units coupled to the tool frame, and a frame actuator extending between the tool bar and the tool frame. The frame actuator is configured to rotate the tool frame between a lowered position that places each row unit in contact with soil and a transport position that raises each row unit above the soil. The frame actuator is also configured to transfer weight from the tool bar to the tool frame while the tool frame is in the lowered position. Each row unit includes a ground engaging tool configured to selectively engage and disengage the soil while the tool frame is in the lowered position.

Agricultural implement tool frame actuating system

A hydraulic control apparatus for a foldable farm implement has a first hydraulic control system is used to control weight transfer to a plurality of ground engaging tools mounted to stationary and wing frame sections of the farm implement. A second hydraulic system is used to fold and unfold the wing sections for placing the implement in a compact position for transport and storage. A hydraulic control is provided that interfaces with both hydraulic systems to control sequencing of the functions provided by the first and second hydraulic systems.

Hydraulic remote control for hydraulic system of an agricultural implement

A hydraulic control apparatus for a foldable farm includes first hydraulic control system is used to control weight transfer to ground engaging tools mounted to a stationary and foldable wing frame sections. A second hydraulic system is used to fold and unfold the wing sections. A hydraulic control is provided that interfaces with both hydraulic systems to control sequencing of the functions provided by the first and second hydraulic systems. The first and second hydraulic systems have electronically controlled valves to control the flow of hydraulic fluid to various lifting, folding, and down pressure cylinders.

Growing community of inventors

Martensville, Canada

Cory Adrian Yuen