Abstract: An outlet assembly for a row unit of an agricultural harvester includes an input portion configured to be coupled to a frame of the row unit. The input portion includes an inlet configured to receive agricultural product and an outlet configured to expel the agricultural product. The outlet assembly also includes an output portion having an inlet configured to receive the agricultural product from the outlet of the input portion and an outlet configured to direct the agricultural product into a duct of an air-assisted conveying system. The output portion and the input portion are at least selectively coupled to one another and configured to at least selectively rotate relative to one another.

Abstract: A method for manufacturing a moistener column assembly for a row unit of an agricultural header includes forming a moistener column of the moistener column assembly via an additive manufacturing process. The moistener column includes an inlet region configured to receive fluid while installed on the row unit. The moistener column includes a body formed via the additive manufacturing process that extends from the inlet region. The inlet region is disposed on a first end of the body and includes a fluid passages formed via the additive manufacturing process that extend through the body to fluid outlets formed via the additive manufacturing process. Each of the fluid passages is configured to receive the fluid from the inlet region and to expel the fluid through a respective fluid outlet of the fluid outlets.

Abstract: An apparatus for cutting up biological sample material, including a sample container, a rotary drive device separate from the sample container, and a shaft rotatably arranged in the sample container, wherein the shaft has a laterally projecting cutting device in the region of a working end and has a coupling piece in the region of a coupling end, said coupling piece being accessible from outside and being designed for coupling engagement with a coupling counterpart of the rotary drive device, wherein the shaft (14) is arranged with lateral guidance and in an axially displaceable manner in the sample container (10), the coupling piece (19) and the coupling counterpart (21) are designed for producing coupling engagement which is positive-locking in the direction of rotation (23) and permits an axial displacement, and the cutting device (16) is designed in a propeller shape in such a way that, during rotation of the shaft (14) in the working direction, it exerts a propulsive force on the latter in the direction

Abstract: An apparatus for cutting up biological sample material, including a sample container, a rotary drive device separate from the sample container, and a shaft rotatably arranged in the sample container, wherein the shaft has a laterally projecting cutting device in the region of a working end and has a coupling piece in the region of a coupling end, said coupling piece being accessible from outside and being designed for coupling engagement with a coupling counterpart of the rotary drive device, wherein the shaft (14) is arranged with lateral guidance and in an axially displaceable manner in the sample container (10), the coupling piece (19) and the coupling counterpart (21) are designed for producing coupling engagement which is positive-locking in the direction of rotation (23) and permits an axial displacement, and the cutting device (16) is designed in a propeller shape in such a way that, during rotation of the shaft (14) in the working direction, it exerts a propulsive force on the latter in the direction