Gary W. Clem, Inc.

Peter B Moore

Brian W Carr

Donald F Handorf

Scott A Sporrer

Nick Merfeld

Curtis R Hammer

Gary W Clem

Adam R Koesters

Andrew G Jenkins

Timothy A Schroeder

Chester S Creswick

Arlan W Sandvik

Edward J Plizga

Ryan D Jensen

Mark D Mathis

Kevin J Alphs

A seed counting device where accuracy is maintained at higher counting rates. The seed counting device has a hopper in communication with a tray. An activator is connected to the tray to vibrate the tray. Connected to one end of the tray is a separator having sensors. Below the tray and in partial alignment with the separator is a projecting device. The projecting device projects seeds that fall from the tray past the sensors and into a seed chamber.

Seed counting device

A wheel mounted grain harvester includes a harvesting head for depositing grain in a grain handling assembly comprised of a plurality of grain moving parts. Control means are located on the harvester for selectively interrupting grain flow along the grain moving parts causing harvested grain from a new separate row segment to temporarily accumulate. Means are provided for transporting the harvested grain from separate row segments into separate collection bins permit the separate evaluation of the harvested grain in each row segment. Means are provided for moving the harvester along the row at a constant rate of speed to avoid the necessity of stopping the harvester between row segments to effect the separate evaluation of the harvested grain. The selective interruption by the control means is accomplished by either interrupting at least one of the grain moving parts or by selectively closing a movable blocking wall mounted on the harvester.

Method and apparatus for continuously harvesting grain from a row of mature grain plants comprised of plant segments and alley segments

A distance measuring device mounted to a planter used to plant crops. The distance measuring device has a cable extending between a first pulley and second pulley wherein the cable has at least one target. A sensor located adjacent the first pulley and connected to a controller sends a signal to the controller when the sensor detects the target. Adjacent the second pulley is an encoder that sends a second signal to the controller based upon the rotation of the second pulley such that the controller can determine the amount of distance that the planter has traveled.

Distance measuring device for planter

A seed meter for planting seeds includes a seed plate rotatably mounted within a housing. A rotary seed chamber (RSC) is mounted in the housing adjacent the seed plate and movable between first and second positions, to permit the seed plate to singularly select individual seeds from the RSC while in a first position, and to dump seed therefrom as well as blocking seeds from entering the seed plate while in a second position. A seed intake compartment having an inlet end, and a discharge end is located adjacent the RSC. A valve is located in the intake compartment to intermittently prevent seed from flowing from the inlet end to the discharge end. A power means actuates both the RSC and the valve. A wing plate on the rotary seed chamber opens and closes the discharge end as the rotary seed chamber is in its first and second positions, respectively.

Method and apparatus for planting seed in a seed research plot

The method for presenting grain for NIR spectography examination includes causing the grain to move downward across a sloping presentation surface; associating the optics of an NIR spectography apparatus with the presentation surface to permit light from the optics to be projected into the curtain of grain at a substantial right angle with respect to the direction of flow of the curtain of grain over the presentation surface. An apparatus for presenting grain for NIR spectography examination includes the structure for practicing the aforementioned method.

Method and apparatus for presenting grain for NIR spectography examination

A GPS system to provide planter tripping for crop research plots provides the longitude and latitude of the first trip location and provide a continuous flow of location information. A control computer calculates the next tripping location and provides a signal to the planter at that location and each subsequent tripping location in the field grid. A GPS receiver mounted on the planter provides location information. When the first plot is manually tripped the computer will use vector information to determine the next tripping location. The computer has a program that allows entry of planted length and alley width so the system can calculate the next plot location from the original planter trip. Additional parameters entered in the program include the number of trips needed to pass across the field and the number of passes that would be needed to complete the planting grid.

GPS system to provide planter tripping for crop research plots

A method of planting field seeds in rows with different varieties of seeds involves determining the variety of the seeds to be planted; placing the seeds for rows of predetermined length in different groups in elongated cell pack strips for each variety, with each cell pack strip including individual cells with individual seeds. A plurality of subgroups of cell pack strips are selected sequentially from the groups of cell pack strips in chronological order that they are to be planted in a single row in a field. The subgroups are then placed in magazines to maintain the order of the subgroups for the subsequent planting. The locations in a field are determined where the varieties are to be planted. The magazines are mounted on a field row planter with the magazines being associated with rows in the field to which the respective magazines correspond. The planter is moved longitudinally through the field. The cell pack strips are sequentially and chronologically selected from the magazines containing the seeds to be planted. The cells of the cell pack strip are sequentially broken in the order in which the seeds in each cell pack strip are to be planted to release the seeds from the cells. The released seeds are deposited from each cell to the soil in the row in which the magazine from when it emanated was associated. An individual electronic bar code is placed on each cell pack to indicate the variety of the seed in the seed pack intended for planting in a row in the field. The bar codes are electrically scanned and compared electronically to a row blueprint of the field to be planted when the magazines are mounted on the field row planter to verify that the seeds in the magazines are consistent with the row blueprint. An apparatus for planting the seeds from the cell pack is provided.

Method and means for planting field seeds in rows with different varieties of seeds

The seed packaging machine of this invention is mounted on a conventional plot combine. The harvested seed is blown to a receiving compartment where the seed is weighed and tested for moisture. A bag roll comprising a plurality of bag portions is fed through power rolls to a seed deposit station. A blower blows open the endmost bag and the seed is deposited in the bag portion. A sealing pressure bar is pivoted toward a thermal bar with the top of the bag portion therebetween to seal the bag. The bag is then released to drop into a storage bin. Bar codes are imposed on the bags and are scanned as they approach the deposit station. A computer is connected to all operating components to coordinate the sequential operation thereof. The range and row numbers of the harvested field are imposed on the computer memory, and the computer associates each bag containing harvested seed with the range and row from which the seed was harvested. The bags are perforated to facilitate subsequent drying of the seed. The computer will discard seed that does not meet predetermined weight and moisture parameters so that unwanted seed will not have to be packaged.

Growing community of inventors

Ames, IA, United States of America

Peter B Moore