Abstract: A run selection mechanism is provided for selectively directing the flow of particulate material from an air cart. The mechanism includes a chute for receiving metered particulate material. The chute has an output. A first primary conduit has an output communicating with a first pneumatic primary run and a second primary conduit has an output communicating with a second pneumatic primary run. A selector selectively directs the metered particulate material to one of the output of the chute, the first pneumatic primary run and the second pneumatic primary run.

Abstract: A run selection mechanism is provided for selectively directing the flow of particulate material from an air cart. The mechanism includes a chute for receiving metered particulate material. The chute has an output. A first primary conduit has an output communicating with a first pneumatic primary run and a second primary conduit has an output communicating with a second pneumatic primary run. A selector selectively directs the metered particulate material to one of the output of the chute, the first pneumatic primary run and the second pneumatic primary run.

Abstract: A run selection mechanism is provided for selectively directing the flow of particulate material from an air cart. The mechanism includes a chute for receiving metered particulate material. The chute has an output. A first primary conduit has an output communicating with a first pneumatic primary run and a second primary conduit has an output communicating with a second pneumatic primary run. A selector selectively directs the metered particulate material to one of the output of the chute, the first pneumatic primary run and the second pneumatic primary run.

Abstract: A commodity tank for use with an air seeding implement includes a series of panels arranged to form an enclosure defining a volume configured to hold a supply of commodity. At least one or more of the panels has a warping-reducing bend formed therein. The commodity tank further has a series of tubular members with each tubular member located between adjacent and perpendicular panels to define a respective corner of the enclosure.

Abstract: A run selection mechanism is provided for selectively directing the flow of particulate material from an air cart. The mechanism includes a chute for receiving metered particulate material. The chute has an output. A first primary conduit has an output communicating with a first pneumatic primary run and a second primary conduit has an output communicating with a second pneumatic primary run. A selector selectively directs the metered particulate material to one of the output of the chute, the first pneumatic primary run and the second pneumatic primary run.

Abstract: A commodity tank for use with an air seeding implement includes a series of panels arranged to form an enclosure defining a volume configured to hold a supply of commodity. At least one or more of the panels has a warping-reducing bend formed therein. The commodity tank further has a series of tubular members with each tubular member located between adjacent and perpendicular panels to define a respective corner of the enclosure.

Abstract: A commodity tank for use with an air seeding implement includes a series of panels arranged to form an enclosure defining a volume configured to hold a supply of commodity. At least one or more of the panels has a warping-reducing bend formed therein. The commodity tank further has a series of tubular members with each tubular member located between adjacent and perpendicular panels to define a respective corner of the enclosure.

Abstract: A commodity tank for use with an air seeding implement includes a series of panels arranged to form an enclosure defining a volume configured to hold a supply of commodity. At least one or more of the panels has a warping-reducing bend formed therein. The commodity tank further has a series of tubular members with each tubular member located between adjacent and perpendicular panels to define a respective corner of the enclosure.

Abstract: In an embodiment, an agricultural implement includes a first wing tool bar and a second wing tool bar on each lateral side of the implement. The first wing tool bar and the second wing tool bar are configured to rotate from a working position to a transport position. The first wing tool bar and the second wing tool bar each include a respective tool frame configured to rotate upwardly from a working position to a transport position. In addition, the second wing tool bar is configured to articulate with respect to the first wing tool bar during transport. A fold-away frame section is rotatably coupled to the first wing tool frame and configured to rotate out of a plane formed by the first and second wing tool frames to avoid contact between the tool frames during transport.

Abstract: In an embodiment, an agricultural implement includes a first wing tool bar and a second wing tool bar on each lateral side of the implement. The first wing tool bar and the second wing tool bar are configured to rotate from a working position to a transport position. The first wing tool bar and the second wing tool bar each include a respective tool frame configured to rotate upwardly from a working position to a transport position. In addition, the second wing tool bar is configured to articulate with respect to the first wing tool bar during transport. A fold-away frame section is rotatably coupled to the first wing tool frame and configured to rotate out of a plane formed by the first and second wing tool frames to avoid contact between the tool frames during transport.