Abstract: A planter for planting multiple rows of seeds in which the spacing between rows and the spacing between seeds in a row can be varied includes at least two planting units, each planting unit adapted for planting a row of seeds, the planting units being mounted so that the spacing between the at least two of the planting units can be changed, and the rate of planting of at least one of the planting units being independently changeable. A method of planting seeds in a field with a multi-row planter having a plurality of planting units each adapted for planting a row of seeds, includes selectively changing at least one of the spacing between at least two adjacent planting units and the rate of operation of at least one of the planting units during the planting so that at least one of the row spacing or the seed spacing in the rows is not uniform across the planted field.

Abstract: An automated seed sampler includes a sampling station; a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray; and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. The method of the present invention comprises feeding seeds individually to a sampling station, removing a sample from the seed in the sampling station; conveying the sample to a compartment in a sample tray, and conveying the seed to a corresponding compartment in a seed tray. The samples can be tested, and the seeds can be sorted according to the results of the testing of their corresponding samples.

Abstract: An automated seed sampler includes a sampling station; a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray; and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. The method of the present invention comprises feeding seeds individually to a sampling station, removing a sample from the seed in the sampling station; conveying the sample to a compartment in a sample tray, and conveying the seed to a corresponding compartment in a seed tray. The samples can be tested, and the seeds can be sorted according to the results of the testing of their corresponding samples.

Abstract: The present invention provides for novel methods to facilitate germplasm improvement activities through the use of high throughput, nondestructive sampling of seeds. In one embodiment, a high-throughput, non-destructive method for analyzing individual seeds in a population of seeds comprises removing a sample from a plurality of seeds in the population while preserving the germination viability of the seed and analyzing the sample for the presence or absence of one or more characteristics of at least one genetic or chemical trait.

Abstract: An automated system for sampling seeds generally includes an automated sampler operable to remove a tissue sample from a seed, a seed tray configured to receive from the automated sampler the seed from which the tissue sample is removed, and a sample tray configured to receive the tissue sample removed from the seed. A table supports the seed tray and the sample tray, and an index mechanism is operable to move the table to bring the seed tray into position for receiving from the automated sampler the seed from which the tissue sample is removed, and to bring the sample tray into position for receiving the tissue sample removed from the seed.

Abstract: An apparatus for the automated testing of seeds includes a testing device having a testing stage, for analyzing a seed delivered to the testing stage; and a conveyor for automatically individually conveying each of a plurality of seeds in a tray between individual compartments in the tray and the testing stage of the testing device.

Abstract: An automated seed sampler includes a sampling station; a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray; and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. The method of the present invention comprises feeding seeds individually to a sampling station, removing a sample from the seed in the sampling station; conveying the sample to a compartment in a sample tray, and conveying the seed to a corresponding compartment in a seed tray. The samples can be tested, and the seeds can be sorted according to the results of the testing of their corresponding samples.

Abstract: A transport subsystem conveys seed holding well trays between a plurality of stations. A loading subsystem is positioned at a first station and is operable to load seeds into individual wells of the conveyed tray. An imaging subsystem is positioned at a second station and is operable to image the seeds contained within the tray wells. A mechanism is provided for flipping the seeds so as to enable the imaging subsystem to obtain multi-side seed images. A sorting subsystem is positioned at a third station and is operable to remove the seeds from the tray wells and sort the removed seeds into a plurality of sort bins. The sorting determination may be made based on an analysis of the seed images obtained by the imaging subsystem.

Abstract: An automated seed sampler includes a sampling station; a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray; and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. The method of the present invention comprises feeding seeds individually to a sampling station, removing a sample from the seed in the sampling station; conveying the sample to a compartment in a sample tray, and conveying the seed to a corresponding compartment in a seed tray. The samples can be tested, and the seeds can be sorted according to the results of the testing of their corresponding samples.

Abstract: A high-throughput method is provided for analyzing individual seeds in a population of seeds. The method generally includes removing a tissue sample from at least one or more seeds in the population of seeds while preserving germination viability of the at least one or more seeds from which the tissue sample is taken, depositing the tissue sample into an individual compartment of a sample tray, contacting the tissue sample with an extraction buffer to remove DNA from the sample, and analyzing the extracted DNA for the presence or absence of a transgene of interest. The extraction buffer may be present in the individual compartment of the sample tray before the tissue sample is deposited into the individual compartment.

Abstract: Methods and assemblies are provided for evaluating plants for presence of pests. Methods may include separating pests from a plant to produce a sample of pests for analysis, illuminating the sample to produce emitted light from the sample, and comparing the emitted light from the sample to a model to discriminate pests within the sample. Assemblies may include a separating unit operable to separate pests from a plant to produce a sample comprising pests, a light source for illuminating at least part of the sample, and an imaging device adjacent the light source for receiving light from the illuminated sample and creating an image of the sample.

Abstract: An automated seed sampler includes a sampling station; a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray; and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. The method of the present invention comprises feeding seeds individually to a sampling station, removing a sample from the seed in the sampling station; conveying the sample to a compartment in a sample tray, and conveying the seed to a corresponding compartment in a seed tray. The samples can be tested, and the seeds can be sorted according to the results of the testing of their corresponding samples.

Abstract: An automated seed sampler includes a sampling station, a sampler for removing material from a seed in the sampling station; a seed conveyer for conveying the seed from the sampling station to a compartment in a seed tray, and a conveyor for conveying the material removed from the seed to a corresponding compartment in a sample tray. And a method for bulking up a quantity of plant seed having a desired characteristic generally includes testing each seed for the desired characteristic, cultivating plants only from seeds which tested positive for the desired characteristic, recovering seed from the cultivated plants, and repeating the processes of testing, cultivating, and recovering seed for one or multiple generations.

Abstract: In various embodiments, the present disclosure provides an automated seed sampling and sorting system. The system includes an imaging station for collecting image data of a set of seeds and a seed orientation station for independently positioning each seed in the set in a desired orientation based on the collected image data. The system further includes a seed sample and sort station for extracting a sample from each seed in the set, sorting each sample to a sample tray and sorting each sampled seed to a seed tray.

Abstract: The present disclosure provides systems and methods for sorting seeds based on identified phenotypes of the seeds. In various embodiments, the system includes an optics and controller station structured and operable to collect image data of a top portion, a bottom portion and a plurality of side portions of each respective seed in a set of seeds, and to analyze the collected image data to determine whether each seed exhibits a desired phenotype. The system further includes a seed loading, transporting and sorting station structured and operable to singulate each seed of the set of seeds from a plurality of seeds in a bulk seed hopper, transport the set of seeds to the optics and controller station, and selectively sort each seed to a respective one of a plurality of seed repositories based on whether each respective seed exhibits the desired phenotype.

Abstract: A coring device includes a base portion that receives an arrayed plurality of samples, the base portion including a plurality of vertically oriented slider rods. A coring portion including an arrayed plurality of samples is slidable along the vertically oriented slider rods between a retracted position and an actuated position where cores are taken from the samples. An extraction portion including arrayed plurality of extraction pins aligned with the arrayed plurality of coring tubes for insertion therein is also slidable along the vertically oriented slider rods between a retracted position and an actuated position where the extraction pins eject cores from the coring tubes. A coring drive mechanism is provided to mechanically move the coring portion between the retracted position and the actuated position.

Abstract: In various embodiments, an agricultural sample grinding system is provided. The system includes a grinder unit for grinding and uniformly mixing an agricultural sample. The system additionally includes a collection chamber connected to a transfer spout extending from a side of the grinder unit. The collection chamber is for collecting the ground and uniformly mixed agricultural sample dispensed from the grinder unit via the transfer spout. The system deposits the ground and uniformly mixed agricultural sample into the collection chamber such that the uniform mixture of the sample is maintained.

Abstract: An apparatus for measuring stalk strength and/or root strength of a plant is provided. In accordance with various embodiments, the apparatus includes a conveyer operably connected to a motor for circulatorily driving the conveyer around at least one guide device. At least one pulling finger is coupled to the conveyer. Each pulling finger is structured such that, when the apparatus is positioned adjacent the plant stalk and the conveyor is driven around the guide device, each pulling finger will contact and pull a plant stalk as each pulling finger travels around the guide device. The apparatus additionally includes a force sensor for measuring resistive force encountered by the motor as each pulling finger pulls the plant stalk.

Abstract: A trait of interest is detected as being present within individual ones of a plurality of agricultural samples (such as seeds or plant tissues) by imaging the plurality of samples to form a magnetic resonance image. The image of the plurality of samples is then analyzed to detect image information indicative of the presence of the trait within one or more of the imaged samples. A determination is then made as to whether the trait is exhibited in individual ones of the samples based upon the foregoing analysis. As an example, the samples may be a plurality of seeds, and the detected trait may be oil. A determination is made, based on the image analysis, as to whether each individual seed in the multi-seed image contains oil. A further examination may be made to determine a relative content of oil in each seed as well as a content by weight.

Abstract: A planter for planting multiple rows of seeds in which the spacing between rows and the spacing between seeds in a row can be varied includes at least two planting units, each planting unit adapted for planting a row of seeds, the planting units being mounted so that the spacing between the at least two of the planting units can be changed, and the rate of planting of at least one of the planting units being independently changeable. A method of planting seeds in a field with a multi-row planter having a plurality of planting units each adapted for planting a row of seeds, includes selectively changing at least one of the spacing between at least two adjacent planting units and the rate of operation of at least one of the planting units during the planting so that at least one of the row spacing or the seed spacing in the rows is not uniform across the planted field.