15 results about "Legume Pod" patented technology

This invention falls within the technical field of food, specifically relating to a process for obtaining a food product from the pods of Prosopis laevigata, resulting in a vegetable powder. The invention allows for obtaining a liquid phase containing the biomolecules present in the Prosopis laevigata pod and establishes the necessary conditions under which spray drying must be carried out, optimally transforming the liquid phase into a vegetable powder with food-grade qualities and quality. The resulting powder can be used as an important ingredient in the production of baking and confectionery products.

The present invention provides the use of a plant-derived compound, coumestrol, in the preparation of a thrips insecticide, wherein the molecular formula of coumestrol is C 15 H8O5. The present invention mixes coumestrol with a surfactant, a filler, and one of insecticidal active compounds to prepare an insecticide, and sprays the insecticide containing coumestrol on the surface of cowpea pods to kill insects. The method develops a new use of the flavonoid compound coumestrol, and coumestrol is derived from plants, so the prepared insecticide has significant insecticidal effect and is environmentally friendly.

The invention discloses a storage method of pithecellobium clypearia seeds. The storage method comprises the following steps: selecting naturally mature and full perennial pithecellobium clypearia plant seeds; removing pods and impurities, cleaning with clear water, soaking with lambda-cyhalothrin diluted by 500 times to kill pests, soaking with 0.5% potassium permanganate solution to sterilize, and drying in the shade indoors to obtain clean seeds; and putting the seeds dried in the shade into a sealing bag, and storing at 4-6 DEG C. The method can effectively solve the problems that the pithecellobium clypearia seeds are not resistant to storage and prone to inactivation, the storage time of the seeds is prolonged, and reference is provided for pithecellobium clypearia seed storage and actual production and planting requirements.

A staining inspection method for screening the puncture of Riptortus pedestris on soybean pods according to the present invention includes five steps: cleaning, staining, elution, observation, and result determination. The phenol-fuchsin staining test paper detection method is adopted, which is easier to carry and store, can quickly and intuitively obtain the puncture situation of soybean pods, and can avoid cross-contamination to a greater extent. The detection process of the present invention is short, the operation is simple, and the detection cost is low. It is applicable to screening the puncture sites of Riptortus pedestris on soybean pods and grains, can improve the detection efficiency of the puncture damage of Riptortus pedestris, and thus helps to realize the dynamic monitoring of the early occurrence of Riptortus pedestris.

A seed pod shatter test system for determining the resistance to seed pod shattering in various plants, wherein the system comprises a mobile platform that is structured and operable to traverse at least one row of plants growing in plot, and at least one plant engaging head mounted to a front of the mobile platform. The at least one plant engaging head is structured and operable to condition each of the plurality of plants by contacting each of the plants in the row(s) with a predetermined amount of force as the mobile platform traverse the row(s) of plants. The system additionally comprises a data collections and analysis system that is structured and operable to determine an amount of seed pod shattering that occurred in the plurality of plants as a result of the conditioning.

The present application relates to a kind of molecular markers Pv_0026128 closely linked with kidney bean pod length gene and its KASP primer sequence, the marker is located at the position of 19213953bp on chromosome 1, the identified material can be amplified using the marker, whether the sample carries the allelic variation of controlling pod length is judged according to its genotype.Use the molecular marker and primer provided by the present application can realize the auxiliary screening of kidney bean pod length trait, high-throughput detection is carried out in short time, compared with traditional phenotype-based selection, selection result is more accurate, it is convenient to quickly screen out kidney bean variety or strain with pod length, improve kidney bean yield.Combined with the breeding method of KASP also greatly improves breeding efficiency, thereby speeds up the breeding process of kidney bean.

The invention discloses related genes MtTFLa and MtTFL in the mature period of alfalfa pods as well as an encoding protein and application of the related genes MtTFLa and MtTFL. According to the invention, an MtTFLa gene and an MtTFLb gene which are highly homologous are separated from alfalfa, the nucleotide sequence of the CDS of the MtTFLa gene is shown as SEQ ID NO.1, and the nucleotide sequence of the CDS of the MtTFLb gene is shown as SEQ ID NO.4. According to the invention, the MtTFLa gene and the MtTFLb gene which are highly homologous are separated from alfalfa; it is found that MtTFLa or MtTFLb genes in leguminous plants are mutated or interfered, and after the expression quantity or expression level of the MtTFLa or MtTFLb genes in the leguminous plants is reduced, fruit pod maturation of the leguminous plants can be effectively promoted, including fruit pod maturation time tends to be consistent or the number of mature fruit pods is increased. The method has application prospects in the aspects of improving the yield of leguminous crops or cultivating high-quality and high-yield leguminous crop varieties and the like.

The utility model discloses a caragana microphylla seed collecting device which comprises a horizontally-arranged center shaft, the center shaft is rotationally connected with the inner wall of a collecting box body, idler wheels are installed at the bottom of the collecting box body, the center shaft is in transmission connection with a motor, and a plurality of comb tooth assemblies are evenly distributed on the center shaft in the length direction. The comb tooth assembly comprises a plurality of comb tooth units which are evenly installed in the circumferential direction of the center shaft, each comb tooth unit comprises comb teeth, and centrifugal telescopic column assemblies are installed in the comb teeth; the utility model has the beneficial effects that the centrifugal telescopic column component is designed in the comb tooth component, when the comb tooth component encounters caragana microphylla plants with messy branches, the comb tooth component can be rotated at a high speed to enable the centrifugal telescopic column to extend out, and the slender and smooth telescopic column firstly plays a role in smoothing the caragana microphylla branches; then the comb tooth assembly is rotated at a low speed to scrape off and collect pods on the caragana microphylla branches, and excessive damage to the caragana microphylla branches is prevented.

A device for harvesting pigeon peas, comprising: i) a rectangular base 101 with four telescopic poles 102 with motorized all-round wheels 103 at the ends for moving the base 101; ii) a rigid U-shaped element 104 with a padded coating attached to the base 101 to allow a user to obtain a grip on the base 101 for maneuvering the base 101; iii) an L-shaped telescopic arm 105 which is attached to the base 101 by a hinge, the arm 105 having a motorized cutting wheel 106 at its end for cutting the pigeon pea; iv) an artificial intelligence-based imaging unit 107, installed on the base 101 and integrated with a processor for recording and processing images near the base 101 to determine the position of pigeon peas, to trigger an integrated microcontroller to actuate the telescopic poles 102 and the motorized wheels 103 to position the base 101 near the pigeon peas on crops and to actuate the telescopic arm 105 to cut the pigeon peas; v) a storage chamber 108 attached to the base 101 for storing the cut pigeon peas in the chamber 108, wherein a motorized rotary flap 201 is provided in the chamber 108 for separating the peas from the pods; vi) a rectangular gate 202, which is fitted below chamber 108 by means of a drawer mechanism to allow the cut pigeon peas to fall into a processing container 109, which is fitted below chamber 108 by means of a sliding unit, the processing container 109 comprising a pair of plates 110 which are fitted to opposite surfaces inside the container 109 by means of pneumatic pushers for pressing broken pigeon peas; vii) a bottom surface of the processing container 109, which is a grid so that the dust on the pigeon peas can fall over the grid; viii) A moisture sensor provided inside tank 109 detects moisture in the pigeon peas in order to trigger the microcontroller to operate a heating unit provided inside tank 109 to heat the pigeon peas in order to remove the moisture when the detected moisture exceeds a moisture threshold; and ix) a container 111 connected to the processing container 109 for storing the leaves separated from the pigeon peas.

The invention discloses application of knockout of a Glyma. 12G128600 gene to improvement of insect resistance of soybean prodenia litura, and relates to the technical field of biology. According to the invention, the soybean Glyma. 12G128600 gene is knocked out, so that the improvement on multiple characters of the soybean is realized. Soybean plants with the gene knocked out show remarkable insect resistance to prodenia litura, the weight of prodenia litura larvae can be remarkably reduced, and the biting degree of the plants is relieved. Meanwhile, the gene knockout can significantly improve the pod number and the segment number of the soybean, optimizes the pod bearing and branching characteristics of the plant, and lays an agricultural foundation for soybean yield increase; the gene knockout can also effectively reduce the plant height of the soybean, optimize the plant type structure, improve the lodging resistance of the plant and adapt to close planting cultivation in the field. The invention provides important technical support for soybean insect-resistant breeding and high-yield and high-quality variety cultivation.

A hydroponic culture pod comprising a germination tray comprising flexible elements configured to support plant seeds and suspended between inner walls of the pod, while anchoring cones extending from the inner walls of the pod support and anchor plants growing from the seeds and expanding out a top of the pod. The pod may be placed in a grow tray fed with a nutrient solution from a reservoir in a hydroponic culture system. The pod allows hydroponic growing.

To provide an unconventional and very practical device and method for bagging beans in pods, capable of efficiently bagging the beans in the pods.SOLUTION: The pod containing bean bagging device for bagging pod containing beans P includes a plurality of storage parts 1 which can be discharged when a predetermined amount of the pod containing beans P are stored, and a supply part 2 for supplying the pod containing beans P to the storage parts 1 which are discharged and become empty. During the supply of the legume P from the supply part 2 to the one storage part 1 which has completed the discharge of the legume P, the other storage part 1 in which the prescribed amount of the legume P is stored can be discharged.SELECTED DRAWING: Figure 1

The utility model relates to the technical field of harvester, disclose a kind of high -efficient legume harvesting and threshing integrated machine, including rack, the lower side of the rack is fixedly connected with track, the left side of the rack is fixedly installed with connecting frame, the inside of the connecting frame is provided with harvesting subassembly, the rear side of the connecting frame is fixedly installed with conveying device, the inside of the rack has shell, the right side of conveying device is connected with shell, the inside of the shell is fixedly installed with front cylinder, the right side of the front cylinder is installed with rear cylinder, the outside of the front cylinder is fixedly connected with rigid material shifting tooth, the outside of the rear cylinder is fixedly connected with elastic material shifting tooth, in the utility model, preliminary threshing is carried out by the rigid material shifting tooth of front cylinder, utilize high -speed impact and tear separation most of pod and stalk, again, soft contact is realized secondary threshing by the elastic material shifting tooth of rear cylinder, avoid the problem of uneven force when single cylinder threshing, both ensure the thoroughness of threshing.

The invention discloses a method for intercropping soybean varieties susceptible to insects at different maturities to breed bean hawkmoths and harvest bean pods. The method comprises intercropping soybeans of different maturities and insect-susceptibility in a net room or in a field. When the early-maturing vegetable soybean varieties develop to the R1-R5 stage, the late-maturing insect-susceptible soybean varieties develop to the V5-R2 stage. The bean hawkmoth eggs are placed in egg protection bags or egg strips. After the bean hawkmoth larvae are hatched for 4-6 days, the bean hawkmoth larvae are released and freely feed, and the young larvae preferentially feed on the late-maturing insect-susceptible soybean plants at the hatching position. When the leaves of the late-maturing insect-susceptible soybean varieties have been eaten up when they grow to 4-5 years old, most of the bean hawkmoth larvae will gradually transfer to the plants of the early-maturing vegetable soybean varieties to continue to feed on the leaves. At this time, the bean pods of the early-maturing vegetable soybean varieties are basically fully developed, but the leaves can still photosynthesize and can be fed by the 4-5-year-old bean hawkmoth larvae, and the larvae growth and development are hardly affected by the later food conditions, so it is possible to achieve the harvesting of green bean pods or soybean grains while breeding bean hawkmoths.

This disclosure provides methods and compositions for identifying Brassica plants that have a native deletion of the INDEHISCENT gene (BnIND-A) located on chromosome A of B. napus. Also provided are methods of improving one or more agronomic characteristics such as pod shatter and breeding methods for introducing a pod shatter tolerant phenotype in Brassica plants and / or their progeny.