Abstract:
This invention comprises a device for measuring root pulling force (RPF) in a plant. The RPF device comprises a plant grasping mechanism, as well as a force measurement sensor. In certain embodiments, the device is automatic, so that the “hand of man” is not required to exert force on the plant while the root pulling force of the plant is being measured. Also disclosed is a root pulling force motion mechanism, which brings the RPF device into proximity of a plant to be measured. Further disclosed is a method for measuring root pulling force of a plant.
Abstract:
The present invention relates to a no-till stem and root extractor system that has directionality, extracting the root ball from the soil. A conveyor chain crop remnant extractor assembly has a pair of flexible conveyor chains, a pair of coupling conveyor arms, two pairs of rotatable wheels, a pinch cylinder, and a plurality of cross-slat bars. As the device moves along the crop remnants, the pair of flexible conveyor chains, guided and retained by the two pairs of rotatable wheels, pull the stalks and root balls from the earth, pinch, and pulverize the complete crop remnants.
Abstract:
A sugar beet harvest apparatus provides in sequence a pair of field cultivator teeth, a pair of discs, and subsequent thereto a V-shaped basket of helical screw propellers. The field cultivator teeth and discs may be spaced nominally to engage both sides of a single crop row, or in an alternative embodiment may be spaced nominally to engage one side of a first crop row, and the opposed side of a second adjacent crop row. In either case, the field cultivator teeth pierce the soil and gently lift the root crop. The discs may flip the beets and soil into the helical screw propellers. A pair of ground-level helical screw propellers lift the root crop, while pulverizing the soil and cleaning the root crop in the process. Each of the helical screw propellers lift the root crop, while pushing rocks and soil rearward proximate to the soil surface.
Abstract:
A pick-up arrangement for picking up harvested crop, comprises a pick-up device which has a pick-up device frame defining a pick-up opening located on a pick-up side of the pick-up device and a pick-up member, located on the pick-up side and, adapted to pick-up harvested crop and defining a pick-up width, and a guiding device adapted to guide harvested crop located outside the pick-up width into the pick-up opening. The pick-up device defines a pick-up direction. The guiding device comprises a guiding device frame and a first guiding member extending outside the pick-up width, being rotatably mounted with respect to the guiding device frame, and being adapted to transport harvested crops located outside the pick-up width into the pick-up opening.
Abstract:
A device and method for automated, mechanical harvesting of plants having differing heights and stem lengths, wherein a stem portion of the plant must be severed at a uniform, predetermined length from the top of the plant. The inventive method comprises the steps of (i) guiding the stems of the plants into a first severing blade (ii) severing a lower portion of the stems at an excess length to the free the plant from its root and form a precut stem length greater than the predetermined length required for the harvested plant, (iii) guiding the precut stem along a guide track toward a second severing blade which is positioned at a separation distance below the guide track which will cause severance of the stem at the predetermined length, (iv) vertically positioning the precut stem within the guide track such that the top of the plant is at a predetermined elevation with respect to the second severing blade, and (v) severing an additional portion of the stem from the plant by advancing the vertically positioned precut stem to the second severing blade to yield a harvested plant having a uniform, predetermined stem length. Structural components for implementing these steps are disclosed as well as the features of a conveyor belt useful for controlling stem movement, orientation and position displacement through the process.
Abstract:
A device and method for automated, mechanical harvesting of plants having differing heights and stem lengths, wherein a stem portion of the plant must be severed at a uniform, predetermined length from the top of the plant. The inventive method comprises the steps of (i) guiding the stems of the plants into a first severing blade (ii) severing a lower portion of the stems at an excess length to free the plant from its root and form a precut stem length greater than the predetermined length required for the harvested plant, (iii) guiding the precut stem along a guide track toward a second severing blade which is positioned at a separation distance below the guide track which will cause severance of the stem at the predetermined length, (iv) vertically positioning the precut stem within the guide track such that the top of the plant is at a predetermined elevation with respect to the second severing blade, and (v) severing an additional portion of the stem from the plant by advancing the vertically positioned precut stem to the second severing blade to yield a harvested plant having a uniform, predetermined stem length. Structural components for implementing these steps are disclosed as well as the features of a conveyor belt useful for controlling stem movement, orientation and position displacement through the process.
Abstract:
During the first pass across a field of row-planted sugar or red beets, the apparatus digs the beets from a specific number of rows (six being illustrated but the apparatus herein disclosed can be structured for four or five rows as well), elevates the beets at one side of the apparatus to a given height and discharges the elevated beets into a tank from which they are periodically re-elevated and discharged into a truck at the side of the apparatus opposite the side at which they are elevated and re-elevated, the truck trailing the apparatus over rows from which beets have been removed when not receiving re-elevated beets. On the next pass in a reverse direction across the field, the truck runs in the swath where the beets have been removed during the first pass, and the beets during the second pass are continually discharged into the truck without resort to storage and without re-elevating the beets as done on the first pass. In this way, beets are run over by the truck only on the first pass, and even then to a minimum degree. Also the apparatus is better balanced by elevating beets at one side of the apparatus, and discharging them at the other side. A hydraulic system automatically controls certain motors in determining whether beets are to be discharged into a truck or stored. The apparatus additionally includes a special cleaning bed that assures a more complete cleaning of the beets.
Abstract:
A harvesting machine for root row crops, such as onions, radishes, parsley, turnips, turnip greens, carrots, and the like wherein the individual plants have root bodies within the soil and tops above the ground. The harvesting machine has at least one harvesting wheel mounted on a vehicle for movement along a plant row and provided about its perimeter with a pair of annular, axially confronting plant top gripping means which open and close locally as the wheel turns, in a manner such that the gripping means open within a plant receiving zone within the bottom of the wheel to receive between the gripping means the tops of the plants in the plant row being harvested, and the gripping means then close to grip the intervening plant tops, extract the plants from the ground, and transport the extracted plants upwardly through a transfer zone to an upper plant releasing zone, where the gripping means reopen to release the plants from the wheel. Plant treatment means may be arranged about the wheel perimeter for washing, trimming, brushing, and/or chilling the harvested plants during their transit from the plant receiving zone to the plant releasing zone of the harvesting wheel. The harvested plants may be released in groups from the harvesting wheel for bundling in bunches by a worker positioned on the vehicle adjacent the harvesting wheel. Alternatively, the plants may discharge from the wheel into a plant receiver equipped with a trimmer for trimming the tops from the plants. The described, presently preferred embodiment of the harvesting machine has a plurality of harvesting wheels for simultaneously harvesting the plants in a plurality of adjacent plant rows and seeding means for immediately reseeding the plant rows.
Abstract:
An elongated bar soil working apparatus constructed so that a plurality of bars are supported in a parallel relationship for rotation in one or more horizontal planes and positioned closely adjacent each other whereby the corners of one bar will cooperate with the corners of an adjacent bar to effect a severing action on vines or other foliage moving therebetween whereby the bars are self-cleaning. Power drives are operatively associated with the bars for syncronous rotation of the bars whereby the corners of the bars will be simultaneously advanced through a common plane in closely positioned relationship to effect the severing action on the vines and other foliage located therebetween and prevent vine and foliage build up on the bars. The present apparatus includes a frame which will allow the apparatus to be removably supported by conventional tractor operable tool bar whereby the bars can be advanced through the soil to perform plant uprooting or other soil working operations.
Abstract:
A harvesting machine for the automatic harvesting of seedling plants. The machine includes means for loosening the soil adjacent the plant roots and for cutting the roots at a predetermined depth. Conveyors aligned with each row of plants and driven at a speed commensurate with the forward speed of the machine lift the plants from the loosened soil. Rotary beaters having resilient vanes engage the roots of the plants as they pass along the conveyors to remove any soil clinging to the roots. The machine includes means for advancing the plants directly into shipping cartons from the conveyors.