Patent classifications
C05F5/008
Methods of extracting inorganic nutrients from pretreated biomass to form a fertilizer composition, and related systems
The present disclosure includes methods of making a fertilizer composition from pretreated biomass by removing one or more inorganic nutrients from a fermentation beer to form an aqueous fertilizer composition. The present disclosure also includes systems configured to make a fertilizer composition from pretreated biomass, where the systems include one or more apparatuses in fluid communication with a fermentation vessel, wherein at least one apparatus is configured to remove one or more inorganic nutrients from the fermentation beer to form an aqueous fertilizer composition.
A PROCESS FOR THE PREPARATION OF POTASSIC FERTILISER FROM ALCOHOL DISTILLERY EFFLUENT (SPENT WASH)
The present invention provides a method for the preparation of multi-nutrient potassic fertilizer, by recovering potassium from sugarcane molasses based alcohol distillery effluent (commonly known as spent wash). The process involves pre-treatment of spent wash to clarify the aqueous phase and utilization of the treated spent wash in production of potassic fertilizer. The present invention enables utilisation of spent wash for recovery of value-added product (viz., potash fertiliser of >99% purity) and improves ease of Zero Liquid Discharge compliance by subjecting the relatively benign process effluent to industrially practiced techniques for water recovery and salt reclamation.
Weed control and fertilizer
A composition for weed control and fertilizer comprising iron hydroxyl ethylenediaminetriacetic acid, humate, microelements, soy hydrolysate, calcium lignin, a natural-based wetting agent, molasses desurgarized solubles, and water, and may further comprise glycerin and/or preservatives, are provided. Methods for weed control and fertilization of plants comprising the steps of providing a composition comprising an effective amount of iron hydroxyl ethylenediaminetriacetic acid, humate, microelements, soy hydrolysate, calcium lignin, a natural-based wetting agent, and molasses desurgarized solubles, and applying an effective amount of the composition to soil or a plant or a weed, are also provided.
Weed control and fertilizer
A composition for weed control and fertilizer comprising iron hydroxyl ethylenediaminetriacetic acid, humate, microelements, soy hydrolysate, calcium lignin, a natural-based wetting agent, molasses desurgarized solubles, and water, and may further comprise glycerin and/or preservatives, are provided. Methods for weed control and fertilization of plants comprising the steps of providing a composition comprising an effective amount of iron hydroxyl ethylenediaminetriacetic acid, humate, microelements, soy hydrolysate, calcium lignin, a natural-based wetting agent, and molasses desurgarized solubles, and applying an effective amount of the composition to soil or a plant or a weed, are also provided.
Slow-release fertilizer composition and preparation method
A method of making the slow-release fertilizer and the composition thereof includes the steps of adding Class A Exceptional Quality biosolids at a percentage-by-weight of 35% to 75%, brewing grains at a percentage-by-weight of 10% to 50%, and dried algae at a percentage-by-weight of 5% to 20%. Biosolids are digested in an anaerobic digester for 15 days. Biosolids are dried to a moisture content under 6% and brewing grains and algae are dried to a moisture content under 10%. Algae is pressed to isolate the dried algae cell wall. The algae is dried to a moisture content under 10%. The Class A Exceptional Quality biosolids, brewing grains, and algae cell wall are pulverized to a mesh size between 100 to 300 and blended according to the above proportions.
SOIL CONDITIONER AND PREPARATION METHOD THEREFOR
Disclosed is a soil conditioner, comprising the following components in parts by weight: 10-20 parts of distiller's grains; 1-10 parts of cow dung; 1-10 parts of vermicompost; 1-10 parts of oil cake; 10-20 parts of dregs of decoction; 20-40 parts of fallow soil; and 20-40 parts of river sand. Also disclosed is a method for preparing a soil conditioner, comprising: first, separately fermenting distiller's grains, cow dung, vermicompost, oil cake, and dregs of decoction, and then mixing them with river sand and fallow soil for secondary solid fermentation to obtain the soil conditioner. The present invention has a remarkable restoration effect on obstructive soil, the microbial diversity index of the restored soil is increased, the microbial ecological structure of the soil is improved, and the quality of crops is enhanced.
SOIL CONDITIONER AND PREPARATION METHOD THEREFOR
Disclosed is a soil conditioner, comprising the following components in parts by weight: 10-20 parts of distiller's grains; 1-10 parts of cow dung; 1-10 parts of vermicompost; 1-10 parts of oil cake; 10-20 parts of dregs of decoction; 20-40 parts of fallow soil; and 20-40 parts of river sand. Also disclosed is a method for preparing a soil conditioner, comprising: first, separately fermenting distiller's grains, cow dung, vermicompost, oil cake, and dregs of decoction, and then mixing them with river sand and fallow soil for secondary solid fermentation to obtain the soil conditioner. The present invention has a remarkable restoration effect on obstructive soil, the microbial diversity index of the restored soil is increased, the microbial ecological structure of the soil is improved, and the quality of crops is enhanced.
VALORISATION OF POTASSIUM SALTS COPRODUCED IN FERMENTATION PROCESSES
The present technology relates to a method for preparing a mixture of solid potassium salts from a fermentation juice from a fermentation process for the production of chemical compounds in a pH-controlled fermentation medium by adding of a base comprising potassium hydroxide. The method comprises adding an acid to the fermentation juice in an amount sufficient to cause the precipitation of the mixture of potassium salts, and then separating the mixture of salts of potassium solid potassium acidified fermentation juice. The present technology also relates to the mixture of potassium salts obtained by said method and its use as fertilizer.
METHODS FOR PRODUCING MELANIN AND INORGANIC FERTILIZER FROM FERMENTATION LEACHATES
Melanin or inorganic fertilizers are produced from fermentation leachates or from low-cost nutrient-rich solutions. The method for producing the melanin or inorganic fertilizer comprises repetitive trophic cycling in the controlled conditions of primary and secondary bioreactors. Nutrients are cycled between microorganisms such as bacteria, yeast and fungi and black soldier fly larvae, Hermetia illucens. Polysaccharides are partly converted into natural melanins or inorganic fertilizer, which are difficult to biodegrade and hence accumulate in the bioreactors. The method can employ, as a source of nutrients, leachates produced from food waste or from sugar-rich liquid waste of the food industry. These leachates can be used raw or can be augmented with low-cost sugar-rich solutions such as molasses, hydrolyzed cellulose or starch. The method is inexpensive and does not require the use of expensive chemically-defined culture media.
METHOD FOR SPRAYING ROBINIA PSEUDOACACIA ON EXPOSED SHALE WALLS TO EFFICIENTLY AND RAPIDLY RESTORE GREEN AND IMPROVE SOIL PH VALUE
A method for spraying Robinia pseudoacacia on exposed shale wall to efficiently and rapidly restore green and improve soil pH value is provided. External-soil spray seeding is used to spray mixed microorganisms, organic fertilizer, and soil on exposed shale walls with a green plant of Robinia pseudoacacia to efficiently and rapidly restore green and improve soil pH value. The mixed microorganisms include Kocuria sp. X-22, Microbacterium sp. X-26, Bacillus sp. X-28 and Microbacterium sp. X-18, and the mixed microorganisms are added to organic fertilizer and soil by fermentation broth. The weight ratio of mixed microorganisms, organic fertilizer and soil is 1:1:8. The method can promote the rapid growth of Robinia pseudoacacia on the exposed shale wall and significantly increase organic matter content, effective phosphorus content, and pH value of the Robinia pseudoacacia soil.