A pivotally connected hopper features an adjustable unloading conveyor that repositions to a horizontal orientation for safe crop discharge.
Optical sensors detect bale position and size to automate pick-up timing, eliminating manual operator intervention and reducing accident risks.
Sled assembly transports heavy round bales across soft terrain using side runners that distribute weight and slide on the ground surface.
Single actuator adjusts receiving device height and moves wheel along spatial path, resolving vehicle width constraints during road travel.
Pivotable grid unloading aid exerts hydraulic force on cargo front end to maintain package shape during discharge.
Mirrored bounding shapes enable automatic engagement of product flow, reducing agricultural loss caused by manual calibration misalignment.
A cylindrical bale wrapping apparatus uses a pantographic sub-frame linkage to lift bales onto the rotating table.
Dual-range hold-down device resolves material supply reliability versus jam clearance ease by enabling controlled vertical movement for unblocking wedged crop.
Rigidly connecting tines within ring segments increases lateral stability, reducing mounting complexity and improving cutting conditions.
A harvester uses acceleration and inclination sensors to correct mass measurements during field operations.
A round baler unloads bales onto a field using calculated timing to position them close together.
A wind guard height control mechanism uses a linear actuator and control arm to adjust the pickup assembly guard position.
A stuffer unit tine arm trips via a spring-loaded arrangement to adjust bale density during the stuffing cycle.
Freely rotatable cutting elements maintain optimal angles against a shearbar, extending service life while reducing maintenance effort.
Optimizing bale density and moisture content reduces fossil fuel consumption while maximizing transport efficiency.
A towable implement uses sequential rotors to pulverize windrowed flax and hemp straw into fine particulate.
A controller adjusts unloading spout attributes using path information signals and image data.
Radially expanded housing wall forms air catch that redirects high-speed chopping currents to blow recirculated crop material out of the cutting chamber.
A branched relay shaft transmits engine power to grain discharging and travel driving devices, simplifying transmission structure complexity.
Differentiated roller surfaces minimize friction against binding material, preventing damage from elastic expansion while maintaining bale density.
Automated control coordinates unloading feed speed with driving speed to maintain uniform carpet thickness across varying crop compositions.
Actuated wheel steering maintains orthogonal alignment with target lines, preventing lateral drift that causes swath contamination.
A modular bale feeder uses a motor-driven roller chain to push feed bales along a sliding assembly for controlled dispensing.
A forage pick-up device back-plate secures stripper bands using integrated teeth and a tab plate structure.
A controller adjusts unloading spout angles based on material build-up speed detected by cameras.
A baler rotor reversing mechanism uses a throttled passage to connect hydraulic cylinder chambers, enabling rapid spring return.
Electronic control unit adjusts rotational speed of draper belt and augers to transport crop material evenly.
Rolling crop packages along a flexible member reduces friction damage and handling effort during transfer.
A spring tine leg features a relief notch adjacent to its base to clear support bar edges during oscillation.
A tilting bale support frame lifts and shifts bales onto a transport trailer.
A pivoting junction box enables an auger housing to pivot between lowered and elevated positions.
Dynamic magnification switching resolves the trade-off between field of view and measurement precision during windrow formation.
A hydraulic control system merges spill saver door actuation with auger belt drive tensioning using parallel cylinders.
Electronic control replaces mechanical dispensers to align agent release with rotor activity, reducing wastage and improving distribution uniformity.
Rigidly connecting axially spaced bearing points on the elastic shaft distributes operational forces, reducing wear and extending service life.
Lateral pivoting of the roller conveyor prevents bale cover damage and rolling accidents during unloading.
Segmented compartments and a sliding pusher mechanism dispense bales evenly, reducing manual labor intensity while preventing string entanglement.
Torsion joints in support arms allow vertical and tilting movements to prevent blockages from uneven crop flow.
Independent tine springs allow the bale sweep to adapt to uneven terrain while maintaining structural stability during operation.
Pivotable legs with beveled feet dig into the ground to prevent forward jerking and transmission damage.
Segmented bearings stabilize the auger tube orientation, preventing bending and twisting forces that damage supporting arms.
A hay bale feeder uses counter-rotating shredder drums to break down compacted square bales into manageable pieces for livestock.
A grain auger frame uses telescoping axle arms to adjust width and height while a support cradle minimizes conveyor cantilever length during transport.
Hydraulic actuators rotate bale layers ninety degrees on a turntable, resolving inefficiencies in traditional non-rotating receiving tables.
Dynamic volume control via movable walls and scrapers resolves compression trade-offs for higher bale quality.
Pivotable skid shoes with biasing members maintain consistent height on uneven terrain, preventing tilting damage to the pickup assembly.
Alternating hydraulic actuation redirects bales between accumulation zones, ensuring gate clearance and continuous cycle operation.
A gripper with tines and a cutting device prevents accidental bale splitting during transport while enabling efficient wrapping removal.
Segmented clamping and cutting elements operate independently to maintain bale integrity while reducing labor intensity.