A height-adjustable wrapping arm moves between positions to adapt to bale sizes while resting on the base frame.
A baler system estimates plunger load using drive element speed measurements.
An electric motor replaces belt drives to control wrap roller speed and direction, reducing mechanical complexity and calibration time.
Geometric displacement tensions the drive belt, eliminating idler wear and actuator force sensitivity.
A pivotally mounted conveying unit engages a receiving aperture to form bales and disengages to create an ejecting opening.
Baling chamber walls resist Poisson effect forces to produce rectangular bales at optimal transport densities.
A bale engagement roller actuator moves perpendicular to its axis to directly compress crop material within the chamber.
A cross-strapping device integrates lateral and longitudinal strapping mechanisms into a single unit for simultaneous package securing.
Dynamic floor positioning combined with an intermediary mat guides the leading edge of the wrap across the transition gap to prevent misalignment.
A freely rotating roller guides the press needle, eliminating direct friction with pinion teeth to reduce surface wear and maintain movement precision.
A controller adjusts the movable wall force to reduce propelling peaks, enabling high bale density without increasing drive torque.
Dynamic torque control maintains spool roller acceleration based on supply roll weight, ensuring wrap material enters the baling chamber without blockage.
Independent tensioning arms reduce belt slack during uneven bale expansion to prevent mistracking.
An access panel latch interlock mechanism prevents opening while the flywheel rotates.