A method for automatically preparing seeds with an additive to be deployed together with the seeds. The method includes conveying a plurality of seeds into an opening position, creating an opening in each of the seeds by cutting each seed with a fixed blade or a laser device when each seed is in the opening position, introducing an amount of additive into the seed through the opening and continuously conveying the plurality of seeds while creating the opening and introducing the amount of additive into the seeds.

A method for automatically preparing seeds with an additive to be deployed together with the seeds. The method includes conveying a plurality of seeds into an opening position, creating an opening in each of the seeds by cutting each seed with a fixed blade or a laser device when each seed is in the opening position, introducing an amount of additive into the seed through the opening and continuously conveying the plurality of seeds while creating the opening and introducing the amount of additive into the seeds.

Particles are sorted into paths based on a measurable parameter by forming them into a stream in at least one duct carried on a body rotating around an axis where the duct is shaped so that the particles are accelerated to cause the particles separated into the duct to be aligned one after another in a row in the duct. The parameter of the particles are measured in the aligned stream one after the other and the particles are directed into one of a plurality of paths as determined by the measurement. In one arrangement the body comprises a disk member having a front face facing a supply conduit and the duct lies in a radial plane of the disk member. In one arrangement the measurement of the parameter is carried out by one or more measurement devices either carried on the disk or outside the edge of the disk.

Particles are sorted into paths based on a measurable parameter by forming them into a stream in at least one duct carried on a body rotating around an axis where the duct is shaped so that the particles are accelerated to cause the particles separated into the duct to be aligned one after another in a row in the duct. The parameter of the particles are measured in the aligned stream one after the other and the particles are directed into one of a plurality of paths as determined by the measurement. In one arrangement the body comprises a disk member having a front face facing a supply conduit and the duct lies in a radial plane of the disk member. In one arrangement the measurement of the parameter is carried out by one or more measurement devices either carried on the disk or outside the edge of the disk.

A liquid treating conveyor system that can apply a metered liquid treatment to a metered stream of seed within the conveyor, with either the rate of the seed or treatment fluid regulated. The conveyor has a curved structure. A belt conformed to the curved structure carries a bed of seed through the conveyor. A liquid dispenser distributes a treatment across the seed bed. The liquid may enter the liquid dispenser at low pressure for low shear applications. Liquid dispensers may be spaced apart along a portion of the conveyor. Gas outlet ports and mixing baffles may be disposed within the conveyor. A liquid channel may be disposed within a mixing baffle to direct flow of treatment from the liquid port to an outlet port in contact with the seed bed.

A liquid treating conveyor system that can apply a metered liquid treatment to a metered stream of seed within the conveyor, with either the rate of the seed or treatment fluid regulated. The conveyor has a curved structure. A belt conformed to the curved structure carries a bed of seed through the conveyor. A liquid dispenser distributes a treatment across the seed bed. The liquid may enter the liquid dispenser at low pressure for low shear applications. Liquid dispensers may be spaced apart along a portion of the conveyor. Gas outlet ports and mixing baffles may be disposed within the conveyor. A liquid channel may be disposed within a mixing baffle to direct flow of treatment from the liquid port to an outlet port in contact with the seed bed.

The present invention relates to Bacillus methylotrophicus strain DR-08 which produces a natural volatile compound and has antimicrobial activity, and a use thereof. The Bacillus methylotrophicus strain DR-08 according to the present invention, which is an antagonistic microorganism for controlling phytopathogenic microorganisms, and secondary metabolites produced by the strain, which include antibacterially- and antifungally-active non-volatile and volatile materials, are harmless to humans and domestic animals, and exhibit excellent control activity against various phytopathogenic bacteria and fungi while not causing environmental pollution. Thus, the strain and the secondary metabolites can be very usefully used for controlling various plant diseases in an environmentally-friendly manner.

The present invention relates to Bacillus methylotrophicus strain DR-08 which produces a natural volatile compound and has antimicrobial activity, and a use thereof. The Bacillus methylotrophicus strain DR-08 according to the present invention, which is an antagonistic microorganism for controlling phytopathogenic microorganisms, and secondary metabolites produced by the strain, which include antibacterially- and antifungally-active non-volatile and volatile materials, are harmless to humans and domestic animals, and exhibit excellent control activity against various phytopathogenic bacteria and fungi while not causing environmental pollution. Thus, the strain and the secondary metabolites can be very usefully used for controlling various plant diseases in an environmentally-friendly manner.

The disclosure relates to bacillus having an effect of inducing corn to resist Northern leaf blight and applications of the bacillus. The bacillus having an effect of inducing corn to resist Northern corn leaf blight is Bacillus megaterium which was deposited on Apr. 16, 2019 with a deposit number of CGMCC No. 17573. The Bacillus megaterium of the disclosure can induce corn to generate resistance to Northern corn leaf blight during seed germination and corn growth to activate the immune response of corns and stimulate immune control of Northern leaf blight of corn. The method described herein is long in coming does not pollute environment and soil, is a green, simplified and new control method of Northern leaf blight of corn, and has wide application and popularization prospect.

The disclosure relates to bacillus having an effect of inducing corn to resist Northern leaf blight and applications of the bacillus. The bacillus having an effect of inducing corn to resist Northern corn leaf blight is Bacillus megaterium which was deposited on Apr. 16, 2019 with a deposit number of CGMCC No. 17573. The Bacillus megaterium of the disclosure can induce corn to generate resistance to Northern corn leaf blight during seed germination and corn growth to activate the immune response of corns and stimulate immune control of Northern leaf blight of corn. The method described herein is long in coming does not pollute environment and soil, is a green, simplified and new control method of Northern leaf blight of corn, and has wide application and popularization prospect.