Abstract: A system includes an agricultural implement and a tractor for pulling the implement. The implement includes a frame supporting at least one ground-engaging tool and at least one image imager system coupled to a longitudinal end of the frame. The tractor includes a central controller, wherein the at least imager system is operably coupled to the central controller. The central controller is configured to receive image data from an imager system, analyze the image data to identify at least one mark formed in a soil surface, and responsive to identifying the at least one mark, cause feedback regarding a current position and orientation of the implement and an ideal position and orientation of the implement to be output via an input/output device.

Abstract: A mask forming system for protecting a structure and a method of forming a mask for protecting the structure includes a masking material having a first layer, a second layer, and a third layer sandwiched together. The masking material is unrolled across a platform and a plurality of features are generated in the masking material, wherein the features include printing, kiss cutting, and double-kiss cutting the masking material. Data is printed on the first layer of the masking material. The first layer of the masking material is kiss cut. The second layer of the masking material is double-kiss cut. The third layer remains uncut and unprinted on during the formation of the mask. The masking material remains in the same orientation during printing and kiss cutting of the first layer, and the masking material remains in the same orientation during double-kiss cutting of the second layer.

Abstract: The present disclosure relates to an axial flux motor comprising a stator assembly and a rotor assembly. The axial flux motor includes stator cores having enlarged end plates. The axial flux motor also includes a cooling jacket including fins that extend between electromagnets of the stator assembly. The axial flux motor rotor assembly also includes an air cooling arrangement to provide air cooling to the stator assembly.

Abstract: The present disclosure relates to an axial flux motor comprising a stator assembly and a rotor assembly. The axial flux motor rotor assembly also includes an air cooling arrangement to provide air cooling to the stator assembly. The axial flux motor includes stator cores having enlarged end plates. The axial flux motor also includes a cooling jacket including fins that extend between electromagnets of the stator assembly.

Abstract: The present disclosure relates to an axial flux motor comprising a stator assembly and a rotor assembly. The axial flux motor also includes a cooling jacket including fins that extend between electromagnets of the stator assembly. The axial flux motor rotor assembly also includes an air cooling arrangement to provide air cooling to the stator assembly. The axial flux motor also includes stator cores having enlarged end plates.

Abstract: A development environment includes a graphical design tool and a build agent. The graphical design tool allows a designer to design a primary logic component of a circuit. The graphical design tool generates modules using a hardware description language to represent the primary logic component of the circuit. The modules include abstract references to infrastructure for the circuit. The build agent synthesizes the modules into netlists and merges the netlists with a description of the infrastructure for the circuit. The infrastructure is generated in a development environment separate from the graphical design tool. The build agent includes an adjuster that adjusts the modules. The adjustment to the modules includes replacing the abstract references to the infrastructure with actual references utilized within the infrastructure.