179 results about "Crop harvester" patented technology

A device for detection and determination of a composition of a bulk material, has an image recording unit, at least one control unit, at least one memory unit, and a selection unit to enable a qualified determination to be made, during a transfer of a crop material flow into a container of an agricultural harvesting machine, of a composition of a crop during processing of the crop material, so that adjustment parameters of working assemblies of the agricultural harvesting machine are changeable during the processing of the crop material, wherein the image recording unit has at least two image detectors for recording images or image series of the crop material flow at equidistant intervals or permanently, wherein one of the image detectors is disposed substantially perpendicularly to a top side of a surface of the crop material flow emerging from a grain elevator head or a discharge chute, and another one of the two image detectors is disposed substantially perpendicularly to an underside of a surface of the crop material flow.

A harvester for crops including biomass crop material and seed heads. The harvester includes a base unit, a biomass harvester sub-system for harvesting the biomass crop material, and a seed harvester sub-system for harvesting the seed heads. The biomass harvester sub-system includes a biomass harvester carried by the base unit. The seed harvester sub-system is carried by the base unit and operable independent from the biomass harvester sub-system, whereby the biomass crop material and seed heads are processed independently from each other within the harvester.

The method is for harvesting a crop. A harvesting device (10) is provided that has an upper harvesting device (16) and a lower harvesting device (16). The upper harvesting device is in front of the lower harvesting device. The upper harvesting device detaches crop sections (24) of stalk sections (26) of crops (18). An intermediate engagement member (42) bends the stalk sections forwardly and the lower harvesting device cuts root sections (28) of the crops.

The invention relates to a high and thick-stalk crop harvester belonging to the technical field of agricultural machinery. The high and thick-stalk crop harvester comprises cutting apparatuses, a lower crop poking apparatus, a transverse forced clamping and conveying device, a conveyer chain type longitudinal forced clamping and conveying device and a stalk collecting box. The high and thick-stalk crop harvester further comprises an upper crop poking device positioned above the lower crop poking device, wherein the upper crop poking device comprises a crop poking shaft, two ends of the crop poking shaft are respectively fixedly connected with a center plate, horizontal crop poking rods are hinged between the two center plates, radially extending scrabbling teeth are distributed on the crop poking rods at intervals, eccentric center plates are movably sleeved on the crop poking shaft, the peripheries of the eccentric center plates are hinged with one ends of crank throws, corresponding to the crop poking rods, and the other ends of the crank throws are connected with the end of an adjacent crop poking rod in angular positions that the scrabbling teeth always face downwards. According to the high and thick-stalk crop harvester, the alternating stress is avoided, and the harvester can reliably and stably work for a long time.

Pollen is harvested from plants by mounting a suction nozzle on a vehicle such as a crop harvester or crop sprayer so as to be carried thereby and arranged on the vehicle so as to be located in the field adjacent the plants as the vehicle moves across the ground. A suction pump is mounted on a trailer behind the vehicle for communicating, though a series of ducts passing along side the vehicle, an air stream through the nozzle such that the air stream causes the pollen from the plants to be drawn into the nozzle. A separating system including cyclones and filtration bags is mounted on the trailer for extracting the pollen from the air stream.

The invention discloses a tall rod crop harvester, comprising a vehicle and a horizontal cutting knife horizontally arranged at the front of the vehicle, wherein a crop channel along the driving direction of the vehicle is arranged at the center of the vehicle body of the vehicle. When in harvest, the crop moves toward the rear part of the harvester through the crop on the harvester, for collecting the crop at the rear part of the harvester, no manual is required to clear the way before harvesting the crop, and the crop is arranged at the rear part of the harvester in bunch after the harest, and no manual removal is required, the next harvest is not affected. The invention is suitable for the tall rod crop of the reed and the corn straw and the like.

A pull-type crop engaging machine such as a rotary mower comprises a frame mounted on transversely spaced field ground wheels for movement with a hitch arm extending to a tractor and a transport assembly attached behind the frame for moving downwardly to a transport position so that in the transport position the hitch arm extends from one end of the frame generally in the transverse direction for towing the machine in the transverse direction. The transport includes a transport ground wheel which acts to raise the frame to pass underneath the crop engaging system to support the machine on the wheel, on a second wheel behind the frame and on the hitch. The movement of the hitch and the wheel is connected and started at a position of the hitch so that the machine remains balanced. A shield behind the frame includes a portion which moves with the transport wheel.

A crop harvesting machine with a cutter bar on a header frame has a height control system which uses depending sensor fingers arranged in contact with the ground so as to measure a height of the cutter bar above the ground. The sensor fingers are controllably retractable under actuation from an operator in the cab or automatically in response to prescribed conditions being met. The actuator used in retracting the sensor fingers can also be used to adjustably control ground pressure of the sensor fingers in the deployed position of the sensor fingers engaging the ground. The header height is adjusted using laterally spaced apart hydraulic linkages which can be operated at different elevations relative to one another responsive to different height signals relating height of opposing ends of the header frame relative to the ground to also control tilt of the header relative to the harvester frame.

The invention discloses a high stalk crop harvester. The high stalk crop harvester is characterized by comprising a motor vehicle and a cutting knife device, the motor vehicle is provided with a crop channel and a crop clamping and delivering device, and further comprises toggling cylinder devices, two toggling cylinder devices are located at the two sides, in the width direction, of the crop clamping and delivering device, and the toggling cylinder devices comprise fixed shafts, guide sleeves, toggling pointers and driving components; the fixing shafts and the guide sleeves are parallel and eccentric, one end of each fixed shaft is fixedly connected with the motor vehicle, the other end of each fixed shaft is provided with a crank to be rotatably connected with the corresponding guide sleeve, one end of each crank is fixedly connected with the corresponding fixed shaft, the other end of the crank is rotatably connected with the center axial line of the corresponding guide sleeve, and when the driving components drive the guide sleeves to rotate along the center axial lines of the guide sleeves, the toggling pointers rotatably connected to the fixed shafts can slide axially in slide holes. According to the high stalk crop harvester, when high stalk crops are conveyed to a conveying chain, the high stalk crops can be effectively prevented from being directly hit to the conveying chain, and therefore the harvest of the high stalk crops has a good effect.

The invention relates to a multifunction underground crop harvester which comprises a vehicle body, a power system, a guiding mechanism, a walking mechanism, a conveying sifting mechanism, a vibration device and a soil scraping mechanism. The conveying sifting mechanism is arranged on the lower portion of the vehicle body. The vibration device enables the conveying sifting mechanism to carry out vibration soil sifting. The soil scraping mechanism is arranged on the front portion of the conveying sifting mechanism. The conveying sifting mechanism comprises a plurality of grid-shaped rollers which are arrayed in the vehicle body length direction in parallel and are connected with the vehicle body in a rotating mode. Adjacent rollers are in transmission connection through chains and chain wheels. The harvester is reasonable in structure, a roller type separating sieve is used, flexibility and convenience are achieved, maintaining is convenient, and good practical value is achieved.

The conditioning rolls of a crop harvester have intermeshing metal ribs arranged in a herringbone pattern, each rib comprising a pair of end-to-end segments that converge spirally from opposite ends of the roll to a centermost apex. Alternative embodiments provide a single pair of metal herringbone rolls, two pairs of metal herringbone rolls, or a front pair of metal herringbone rolls and a rear pair of compressible surface herringbone rolls.

In a crop harvesting machine there is provided a pair of hydraulic float cylinders for a header relative to a vehicle, where a float pressure to the cylinders is directly controlled by an electronic control supplying a variable control signal to a PPRR valve arrangement to maintain the float pressure at a predetermined value. At the set pressure a predetermined lifting force is provided to the header. A position sensor is used to generate an indication of movement and/or acceleration. The electronic control is arranged, in response to changes in the sensor signal, to temporarily change the control signal to vary the lifting force and thus change the dynamic response of the hydraulic float cylinder. In order to reduce static friction so that the system can react quickly, an arrangement is provided for causing relative reciprocating movement in an alternating wave pattern between the piston and cylinder.

The invention relates to a picking device used in a crop harvester, in particular to a picking head used in a tomato harvester. The picking head comprises a frame, a seedling separator, a contour wheel, a conveying device, a cutting knife mechanism and a shifting fork mechanism. The picking head is characterized in that: the frame is provided with a frame steering mechanism; the frame steering mechanism comprises a rotary sleeve arranged at the rear part of the frame and a rotary shaft; circular connecting plates are arranged at two ends of the rear part of the frame respectively; the frame is connected with a bracket through the rotary sleeve and the rotary shaft; the bracket is a connecting member for connecting the frame and a main truck frame; the middle part of the bracket is hinged with the main truck frame; two ends of the bracket are respectively hinged with the circular connecting plates arranged on the frame; and the two ends of the bracket are respectively connected with the main truck frame through fixed seats. The picking head has the advantages of reasonable structure, few faults, high work efficiency, good harvesting quality, economic efficiency and practicability.

A measurement device for detecting agricultural crops located within a conveyor channel. The measurement device includes a light-transmitting panel positioned adjacent to the conveyor channel and is configured to be movable between an operational position and a cleaning position. The measurement device includes a sensor positioned with respect to the light-transmitting panel so as to detect the agricultural crops in the conveyor channel through the light-transmitting panel. A harvesting machine is particularly adapted to utilize the measurement device.

The invention discloses a technology for manufacturing a stationary cam and movable disk cam component of a transmission box of a crop harvester. The stationary cam and movable disk cam component of the transmission box of the crop harvester is made from an alloy powder material according to the processes of mixing, primarily pressing, pre-sintering, re-pressing, re-sintering, finishing, machining and surface steam blacking, wherein the alloy powder material comprises the following components by weight pecent: 6-8% of Cu, 1-4% of Ni, 0.5-1% of Mo, 0.2-0.5% of S, 1-2% of C, 0.5% of zinc stearate and the balance of Fe powder. The technology disclosed by the invention is simple, technology difficulty is low, materials can be obviously saved, and the stationary cam and movable disk cam component of the transmission box of the crop harvester which has high compactness, high strength and high abrasion resistance and can not cause mutual seizure phenomenon during meshing friction under higher load can be manufactured by adopting the manufacturing technology.