Abstract: A clamp assembly comprising a pair of clamps may couple to an assembly body. The clamps may pivot to receive material beneath the assembly body. The clamps may include opposing surfaces that define a scoop space beneath the assembly body. Each of the clamps may include a cutting plate. The cutting plate may include a perforating edge configured to extend into the scoop space relative to a corresponding one of the opposing surfaces. The clamp may further include a retention plate. The retention plate may include an inner surface that faces the cutting plate. The cutting plate and the retention plate further define the scoop space between the clamps. The clamp assembly may couple to a lift assembly. The lift assembly may include a hydraulic actuator configured to raise and lower the clamp assembly.

Abstract: A clamp assembly comprising a pair of clamps may couple to an assembly body. The clamps may pivot to receive material beneath the assembly body. The clamps may include opposing surfaces that define a scoop space beneath the assembly body. Each of the clamps may include a cutting plate. The cutting plate may include a perforating edge configured to extend into the scoop space relative to a corresponding one of the opposing surfaces. The clamp may further include a retention plate. The retention plate may include an inner surface that faces the cutting plate. The cutting plate and the retention plate further define the scoop space between the clamps. The clamp assembly may couple to a lift assembly. The lift assembly may include a hydraulic actuator configured to raise and lower the clamp assembly.

Abstract: An adjustable tunnel for a bagging machine that enables a variety of bag sizes to be fitted to the tunnel is disclosed. The adjustable tunnel has a height adjustable overhead panel, an adjustable width base, a first and second side panel, a first and as second intermediate panel, and a surface tensioning assembly.

Abstract: A rotor for bagging silage is disclosed. The rotor has at least four sets of tines forming double helixes with angular spacing between each set of tines. In some embodiments, the tines are spaced further apart and the rotor is rotated at a higher rotational speed.

Abstract: Bag installation for bagging machines may include bag installation systems and/or methods that provide efficient, convenient, safe, and/or simplified means and/or steps for installing a bag on, and/or maintaining bag on, a bagging machine.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Bagging machines may include a packing density measurement system. The packing density measurement system includes an anchor assembly and a force measurement assembly. The anchor assembly includes at least one drag member adapted to be operatively coupled to the bagging machine and to extend rearwardly beneath at least a portion of a bag to resist forward movement of the bagging machine. The force measurement assembly is operatively coupled to the anchor assembly and is adapted to measure the anchoring force applied to the bagging machine. The anchor assembly may be adjustable, either manually or automatically, to allow control over the anchoring force.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: Mobile bagging machine systems and methods may relate to a mobile bagging machine that includes a variable-width tunnel, a variable-speed rotor, a relatively narrow rotor of large diameter and increased effective surface area, at least one material reservoir, a material conveyor system capable of continuous material processing during exchange of unloading vehicles, and/or an overall width less than approximately three meters.

Abstract: A bagging machine for packing agricultural or compost material into bags includes a tunnel defined at least partially by flexible material. The tunnel may include perimeter members and support members spanned by a flexible material. Alternatively, the tunnel may include a flexible sleeve and a shaping assembly adapted to define the shape of the tunnel passageway. The tunnel may be configurable in a variety of cross-sections to enable the tunnel to be used with different sizes of bags. Additionally, the tunnels may be collapsible for convenient storage and transportation.

Abstract: Bagging machines may include a packing density measurement system. The packing density measurement system includes an anchor assembly and a force measurement assembly. The anchor assembly includes at least one drag member adapted to be operatively coupled to the bagging machine and to extend rearwardly beneath at least a portion of a bag to resist forward movement of the bagging machine. The force measurement assembly is operatively coupled to the anchor assembly and is adapted to measure the anchoring force applied to the bagging machine. The anchor assembly may be adjustable, either manually or automatically, to allow control over the anchoring force.

Abstract: Bagging machines for bagging agricultural, compost, or other materials into an elongate bag for storage and/or composting are disclosed. The bagging machines include a mobile frame, a hopper, a rotary packing apparatus, and a material forming enclosure. The bagging machine is adapted to move forward as the loose material is packed into the bag against the closed end thereof. The bagging machines also may include a packing density measurement system including an anchor assembly and a force measurement assembly. The anchor assembly is adapted to be operatively coupled to the bagging machine and to engage packed material within the material forming enclosure. The anchor assembly engaging the packed material is adapted to apply an anchoring force to the bagging machine against the forward movement thereof. The force measurement assembly is operatively coupled to the anchor assembly and adapted to measure the anchoring force applied to the bagging machine.