36 results about "Microbial consortium" patented technology

The invention relates to the technical field of microorganisms, in particular to the technical field of agricultural microorganisms, and more particularly relates to a cellulose degradation composite flora as well as a construction method and application thereof. The cellulose degradation composite flora comprises a cellulose degradation bacterium, namely humid cellulomonas CW35 and an auxiliary strain used for digesting an intermediate metabolite of the humid cellulomonas CW35, and the auxiliary strain is one or more of pseudomonas Taiwan CW19, bacillus amyloliquefaciens L3 or microbacterium algal M266-2. Therefore, the feedback inhibition effect of a product in the cellulose degradation process of the cellulomonas can be destroyed, the expression and enzyme activity of cellulose degradation related genes are remarkably improved, and the decomposition utilization of cellulose-degrading bacteria, namely the wet cellulomonas CW35, on cellulose-containing wastes is effectively improved.

The invention discloses a microbial flora screening device, and particularly relates to the field of microbial culture.The microbial flora screening device comprises an external placement disc, the top end of the external placement disc is fixedly connected with a corresponding clamping frame, the top end of the corresponding clamping frame is fixedly connected with two sets of fixing columns, the interior of the corresponding clamping frame is fixedly connected with a spring, and one end of the spring is fixedly connected with a clamping clamping block; when the piston positioning push block drives the inclined pushing spring to make contact with the bottom end of the interior of the hollow piston pipe, the inclined pushing spring is in a compressed state under the pressure of the inner wall of the hollow piston pipe, the medicament is converted into mist through the assembly mist spraying performance of the mist spraying connector, and the mist spraying connector located at the upper corresponding through-flow hole sprays upwards; the spraying position sprays towards a farther position due to spraying inertia, and the spraying connectors located at the lower corresponding through-flow holes spray downwards, so that the microbial colonies located under the spraying position provide nutritional agents, survival agents are comprehensively provided for the microbial colonies, and a good survival environment is provided for the microbial colonies.

The utility model relates to the technical field of flora screening, in particular to a microbial flora screening device which can disperse and push flora on the upper surfaces of a plurality of screening pieces, ensures the screening effect, and is convenient to clean and use next time. Comprising a main body, a discharging pipe, a plurality of supporting legs, a plurality of screening pieces, a cleaning assembly, a mounting assembly, a limiting assembly and a dispersing assembly, the discharging pipe is connected to the right side of the bottom of the main body, the supporting legs are mounted at the bottom of the main body to support equipment, the cleaning assembly is mounted at the bottom of the main body, and the screening pieces are mounted in the main body through the mounting assembly; the bottom of the mounting assembly is connected with the cleaning assembly, the mounting assembly is connected with the top of the body through the limiting assembly, and the dispersing assembly is mounted on the screening part.

The disclosure relates to isolated microorganisms—including novel strains of the microorganisms, microbial consortia, and agricultural compositions comprising the same. Furthermore, the disclosure teaches methods of utilizing the described microorganisms, microbial consortia, and agricultural compositions comprising the same, in methods for imparting beneficial properties to target plant species. In particular aspects, the disclosure provides methods of increasing desirable plant traits in agronomically important crop species.

The invention relates to a biofilter and a method for the oxidation of methane generated in industrial, agricultural and sanitary landfill processes, among others, where the methane oxidation is biological, requiring methanotrophic microbial consortia, and where copper mining tailings are added to stimulate methane oxidation mediated by said methanotrophic microorganisms.

The present application relates to the field of microbial technology, and specifically provides a synthetic microbial consortium B2 for preventing and treating banana wilt and application thereof. The synthetic microbial consortium B2 is composed of three antagonistic bacteria S-1-56, S-2-42 and 1-119 of Pseudomonas genus isolated from the rhizosphere soil of banana. Foc The synthetic microbial consortium B2 has a significant synergistic inhibitory effect. The synthetic microbial consortium B2 can be applied to the rhizosphere soil of banana by irrigation and the like, effectively prevents and controls the occurrence and spread of banana wilt, has the advantages of environmental friendliness, stable prevention and treatment effect, strong adaptability and the like, and is suitable for the production practice of green and sustainable agriculture.

The present application relates to the technical field of microbial immobilization, and discloses a preparation process of a specific carrier immobilized multifunctional microbial flora composition, comprising: mixing multifunctional microbial flora with an inducer to produce extracellular polymers, to obtain pretreated bacterial solution; adding carboxymethyl deacetyl chitin to the pretreated bacterial solution and adjusting the pH value, to form a primary wrapping suspension; immersing a porous carrier in the primary wrapping suspension, spraying a sodium phytate and calcium lactate composite aqueous solution under a pressure difference environment, and constructing a concentration gradient crosslinking network on the surface and pores of the carrier through ion bridging, wherein the present application utilizes component protonation response mechanism and nonlinear crosslinking distribution to actively open diffusion channels under a specific acid-base environment, reduce metabolic product discharge resistance, and maintain long-term metabolic activity and structural stability of the microbial flora.

This disclosure provides microbial consortia to target Colletotrichum or Botrytis species that target flowers, such as those of blueberries, to control diseases caused by these phytopathogenic species. Methods of delivery of the consortia to plants, including pre-blossom and post-blossom stages.

The present invention relates to a method of producing a microbial consortium of bacteria capable of colonizing plant roots.

A computer-implemented method for producing a fermented comestible having a target physiological or functional effect is provided. The method involves receiving a target input corresponding to a desired physiological or functional effect, including mood modulation, cognitive focus, or sleep support. A trained machine-learning model identifies a candidate combination including at least one precursor substrate, at least one food-safe microbial strain or microbial consortium, and associated fermentation process parameters. The trained machine-learning model predicts production of two or more metabolites associated with the desired physiological or functional effect at concentrations within a target metabolite profile. The precursor substrate, microbial strain or consortium, and fermentation process parameters are selected based on the model output. The selected precursor substrate is fermented with the selected microbial strain or consortium under the selected fermentation process parameters to produce the fermented comestible having metabolites at concentrations corresponding to the target physiological or functional effect.

The present disclosure provides methods and systems for production of biostimulants that promote nitrogen use efficiency in plants. Embodiments described include methods of making a biostimulant composition in a bioreactor system that includes two or more containers arranged in series. The bioreactor system may include an established population of a nitrogen use efficiency-promoting microbial strain. The method may include operating the bioreactor system by transferring into the system an aqueous feedstock that comprises a microbial consortium, transferring working fluid between containers of the system, and collecting a product. The method may further include maintaining a concentration of a nitrogen use efficiency-promoting microbial strain in the system.

The present disclosure provides microbial consortia that are useful as therapeutics, for example, for treating cancer and / or reducing tumor volume or tumor growth in patients.

The present disclosure provides methods and systems for producing a bio-stimulant that promotes plant growth. The described embodiments include methods of making a bio-stimulant composition in a bioreactor system comprising two or more vessels arranged in a series. The bioreactor system can include a built population of microbial strains. The method can include operating the bioreactor system by transferring an aqueous feedstock comprising a microbial consortium into the system, transferring a working fluid between the vessels of the system, and collecting a product. The method can further include maintaining a concentration of microbial strains in the system.

The present application relates to agriculturally beneficial microorganisms, microbial compositions and consortia. The present disclosure relates to isolated microorganisms, novel strains including microorganisms, microbial consortia, and agricultural compositions comprising the same. In addition, the present disclosure teaches methods of utilizing the microorganisms, microbial consortia, and agricultural compositions comprising the same in methods of conferring beneficial properties to target plant species. In particular aspects, the disclosure provides methods of enhancing desired plant traits in agronomically important crop species.

The present invention provides a recombinant microorganism having genetic modifications for enhancing production of metabolites. Also provided are a co-culture for producing metabolites, comprising the recombinant microorganism and an additional microorganism, and a method for producing metabolites by the co-culture.

The present disclosure relates to edited (genetically modified) microorganisms comprising consortia of microorganisms, and to agricultural compositions comprising said microorganisms, intended to increase the tolerance of plants to nematode pests and / or to directly reduce nematode populations in soil or root systems. In addition, the present disclosure teaches methods of utilizing the described microorganisms, microbial consortia, and agricultural compositions comprising the same in methods of conferring beneficial properties to target plant species. In particular aspects, the present disclosure provides methods for improving desired plant traits and reducing undesired pests that affect crop performance in agronomically important crop species.

Processes are disclosed for photosynthetic cyanobacterial production of selected proteins and biochemicals within an evolving alkaliphilic microbial consortium.

The present disclosure provides microbial consortia that are useful as therapeutics, for example, for treating cancer and / or reducing tumor volume or tumor growth in patients.

The present disclosure provides methods and systems for production of biostimulants that promote nitrogen use efficiency in plants. Embodiments described include methods of making a biostimulant composition in a bioreactor system that includes two or more containers arranged in series. The bioreactor system may include an established population of a nitrogen use efficiency-promoting microbial strain. The method may include operating the bioreactor system by transferring into the system an aqueous feedstock that comprises a microbial consortium, transferring working fluid between containers of the system, and collecting a product. The method may further include maintaining a concentration of a nitrogen use efficiency-promoting microbial strain in the system.

The present application relates to the field of agricultural microorganisms, and particularly provides a synthetic microbial consortium with the functions of inhibiting fusarium oxysporum and promoting pineapple growth and application thereof.The synthetic microbial consortium is prepared by combining bacteria Burkholderia sp.NJAU-Yb107 and fungi Aspergillus sp.NJAU-Yf91.Pot experiment results show that the synthetic microbial consortium can significantly promote pineapple plant growth, increase chlorophyll content and plant biomass.The synthetic microbial consortium provided by the present application has the dual functions of inhibiting soil-borne pathogens and promoting pineapple growth, and has a broad application prospect in pineapple healthy cultivation.

The present disclosure provides marine-derived bacterium, consortium comprising the same and uses therefore for hydrolyzing carbohydrate.

The present disclosure provides a method for designing microbial consortia for fermentation to approximate a targeted organoleptic profile of a fermented outcome by training and applying a machine learning model using microbial-substrate interaction data under various fermentation parameters. The model, by taking fermentation parameters predicts metabolites produced by combinations of the candidate microbial strains with candidate substrates under various fermentation parameters and selects at least one microbial strain, substrate, and fermentation parameter for the microbial consortia. The present disclosure also provides a method for predicting an organoleptic profile of a fermented outcome based on the inputs of fermentation parameters, microbial strains, and substrates.

The present application provides for a method of creating a synthetic microbiome composition, and the composition. The method comprises a first liquid fermentation phase comprising propagating a microbial consortium in a fermentation solution to generate an inoculum; a second solid fermentation phase comprising applying the inoculum to a solid biomass for a period of time to modify a microbiome of the solid biomass and provide a synthetic microbiome; and processing the synthetic microbiome for application to an environment.

This invention discloses a biofilm-forming microbial consortium with acrylonitrile degradation function, its preparation method, and its application. The microbial consortium consists of *Agrobacterium parakneissus*, *Burkholderia szechuanensis*, *Trichophyton spp.*, *Rhodococcus rubrum*, and *Mycobacterium tumefaciens*; the ratio of viable bacteria of *Burkholderia parakneissus*, *Burkholderia szechuanensis*, *Trichophyton spp.*, *Oligotrophomonas spp.*, and *Trichophyton spp.* is 3:1:1:1:1. This microbial consortium has a stable microbial community structure and can rapidly form a stable biofilm on the surface of biofilter packing material, exhibiting high acrylonitrile degradation efficiency. It is simple to operate, low in cost, and requires only a small amount of additional inorganic nutrients during treatment, without causing secondary pollution, making it an environmentally friendly technology. Its application prospects in the treatment of acrylonitrile-containing wastewater (gas) are broad.

Providing a microbiological consortium for disease treatment. [Solution] The present invention provides a microbial consortium capable of stably engrafting in the digestive tract of a target and degrading disease-related metabolites, and a method of using the same. A microbial consortium for administration to an animal is disclosed herein, comprising a plurality of active microorganisms and an effective amount of a supporting community of microorganisms. In some embodiments, the plurality of active microorganisms metabolize a first metabolite to produce one or more metabolites, the first metabolite being the cause or contributing factor of a disease in the animal.

The present disclosure provides methods and systems for production of compositions that promote biocontrol properties in plants. The biocontrol properties can include treatment against plant disease or resistance to one or more plant pathogens. Embodiments described herein include methods of making a product in a bioreactor system with one or more containers. The bioreactor system can include a microbial biocontrol agent. The method can include operating a multistage bioreactor system by transferring into the system an aqueous feedstock that comprises a microbial consortium, transferring working fluid between containers of the system, and collecting a product. The method can further include enriching microbes of the working fluid with biocontrol properties.

The present application relates to agriculturally beneficial microorganisms, microbial compositions and consortia. The present disclosure relates to isolated microorganisms, novel strains including microorganisms, microbial consortia, and agricultural compositions comprising the same. In addition, the present disclosure teaches methods of utilizing the microorganisms, microbial consortia, and agricultural compositions comprising the same in methods of conferring beneficial properties to target plant species. In particular aspects, the disclosure provides methods of enhancing desired plant traits in agronomically important crop species.

The invention discloses three plastic degradation composite flora and application thereof. And the composite flora comprises a composite flora of pseudomonas and rhodococcus, burkholderia cepacia or mangrove forest salt lazy bacteria, and the composite flora comprises the pseudomonas and the rhodococcus, the burkholderia cepacia or the mangrove forest salt lazy bacteria. The three composite flora provided by the invention has polyester plastic hydrolase activity and has a remarkable degradation effect on polyester such as PET (Polyethylene Terephthalate) and PBAT (Poly (Butyleneadipate-Butyleneadipate-Butyleneadipate-Butyleneadipate-Butyleneadipate-Butyleneadipate-Butyleneadipate-