121 |
Manufacture of citric acid-soluble potassium fertilizer from kanuma soil |
JP15296387 |
1987-06-19 |
JPS63319282A |
1988-12-27 |
KAWABATA KATSUMI; OHAMA KUMEO; KOGURE TATSUICHI; OKAZAWA YUZURU; NEGISHI HIDEO |
|
122 |
Method of recognizing substance-set site |
JP1952284 |
1984-02-07 |
JPS59196801A |
1984-11-08 |
RARUFU NOOBERU BURENDORU |
|
123 |
Deodorant composition and deodorizing method |
JP1050379 |
1979-02-02 |
JPS54113441A |
1979-09-05 |
JIYAN PIEERU TSUMUBURAN |
A deodorant composition is made up of an oxygen carrying element associated with a synergistic odor-masking compound, and a biodegradable emulsifying surfactant. It can be used in the form of an emulsion or of the two separate constituents, and applicable to deodorizing organic or vegetal wastes and byproducts which normally release nauseating or harmful odors essentially made up of nitrogen or sulfur derivatives. |
124 |
METHODS FOR APPLICATION OF BIOCHAR |
PCT/US2016051368 |
2016-09-12 |
WO2017044968A3 |
2017-06-08 |
KIM HAN SUK; DOLINAR KEVIN DANIEL; JARAND MARK L; TRAXLER VERN; THOMPSON TIMOTHY ALAN; MALYALA RAJASHEKHARAM |
A method is provided for applying porous carbonaceous particles to soil for purpose of cultivating plants having roots, where at least 95% of the porous carbonaceous particles have a particle size less than or equal to 10 mm. The method incorporates the porous carbonaceous particles into the soil surrounding the plant roots at a depth of between 0-24 inches from the soil surface, where the porous carbonaceous particles are positioned in the area surrounding the roots of the plants at a ratio of between 1:999 to 1: 1 porous carbonaceous particles to soil. |
125 |
NOVEL PLANT FUNCTIONAL ACTIVATED NANO VACC-FERTILICEUTICAL, AND METHODS OF PREPARATION, FORMULATION, DILUTION, AND USE THEREOF |
PCT/TH2015000054 |
2015-09-03 |
WO2016036324A3 |
2016-07-07 |
TEERANITAYATARN KARSIDETE |
The present invention provides compositions comprising chitooligosaccharides, methods for preparation and use thereof, including for example methods of stimulating the production of significant substances in plants. Functional Activated Nano Vacc-Fertiliceutical for Plant is used to stimulate significant substance production in plant (foliage plant, fruit tree, and flowering plant). |
126 |
METHOD FOR LIMITING THE USE OF AN AMMONIUM NITRATE FERTILIZER AS A PRECURSOR FOR AN EXPLOSIVE AND COMPOSITION THEREFOR |
PCT/EP2013067800 |
2013-08-28 |
WO2014033161A2 |
2014-03-06 |
LEDOUX FRANCOIS; DE MOOR BART |
The present invention relates to a fertilizer composition comprising ammonium nitrate, of which the potential misuse as a precursor for an explosive is limited on the one hand, without hampering its legitimate use by farmers for food production on the other hand, to a method for the preparation of said fertilizer composition, and to the use thereof. The fertilizer composition comprising ammonium nitrate comprises a non- hygroscopic agent which is able to form a non-hygroscopic fertilizer composition with ammonium nitrate under normal conditions of storage and use, and to form an hygroscopic composition with ammonium nitrate after said fertilizer composition is contacted with water, and optionally a foaming agent. According to one embodiment, the non-hygroscopic agent is selected from the group of non-hygroscopic urea double salts, in particular urea calcium nitrate (UCaN). |
127 |
METHOD FOR ENHANCING SOIL GROWTH USING BIO-CHAR |
PCT/US2012039862 |
2012-05-29 |
WO2012170231A3 |
2014-02-27 |
CHEIKY MICHAEL; JARAND MARK L; SILLS RONALD A |
A method is described for rendering char from a biomass fractionator apparatus (BMF char) suitable for addition to soil in high concentrations, the method relying on multiple processes comprising removing detrimental hydrocarbons from BMF char, removing adsorbed gases from BMF char, introducing microorganisms to the BMF char, and adjusting. soil pH. |
128 |
FERTILIZER COMPOSITIONS AND METHODS OF USING |
PCT/US2006039861 |
2006-10-13 |
WO2007047350A3 |
2008-04-17 |
BINDER THOMAS PAUL; FASS PHILIP C; FURCICH STEVEN J; LESS JOHN F; MATLOCK MARK G; TORELLO WILLIAM A |
Provided are various embodiments of a fertilizer composition. The fertilizer compositions include one or more compounds having a high nitrogen content, which may be measured by a carbon to nitrogen atom ratio. Also provided are methods for increasing nitrogen content in soil, promoting crop production and fertilizing. |
129 |
SOIL IMPROVER AND METHOD FOR PRODUCTION THEREOF |
PCT/DE2006001459 |
2006-08-19 |
WO2007022760A2 |
2007-03-01 |
LANDSCHULZE WERNER |
The invention relates to a substance for cultivation and recultivation of soils and for a structural improvement to soils and for formation and maintenance of soil fertility and for initial and long-term fertilisation of arable land in the form of a granulate mixture and a method for production thereof. The substance essentially comprises y mixture of rock flour, clay, humus, compost, organic plant material, water and arbuscular mycorrhizal inoculum. The inventive substance is a particularly effective biological process activator and conserving agent as a result of the colloidal nature thereof and is a bio-available substrate with excellent soil-improving properties. The above also has the effect of an improved release of plant foodstuffs by means of the symbiosis of soil bacteria and mycorrhizal fungi and the breakdown of foodstuffs in the soil which results in a fertiliser sparing effect. |
130 |
SLOW RELEASE NITROGEN FERTILIZER |
PCT/US0308454 |
2003-03-26 |
WO03082005A2 |
2003-10-09 |
WERTZ STACEY; GABRIELSON KURT; WRIGHT JAMES; BAXTER PAUL; KNIGHT JAMES; DAVIS C R |
A slow release, particulate urea-formaldehyde polymer useful as a fertilizer for enhancing the extended delivery of nitrogen needed for plant development and growth and a granular fertilizer made with the particulate urea formaldehyde polymer. |
131 |
COAL REFUSE REMEDIATION PROCESS |
PCT/US2014035856 |
2014-04-29 |
WO2014179299A2 |
2014-11-06 |
MIRANDA STEPHEN R; ABBATE WILLIAM V; PROVANCE-BOWLEY DR MARY |
A coal refuse remediation process is described. The process includes providing coal refuse and blending a slag with at least a portion of the coal refuse to form a medium. The coal refuse has a particle size. The medium has a pH within a range of about 3.5 and about 10 and the medium facilitates growth of vegetation when applied to a coal refuse pile at a thickness of less than about 24 inches. |
132 |
IRON-FUNCTIONALIZED ALGINATE FOR PHOSPHATE AND OTHER CONTAMINANT REMOVAL AND RECOVERY FROM AQUEOUS SOLUTIONS |
PCT/US2014028524 |
2014-03-14 |
WO2014144214A2 |
2014-09-18 |
BEZBARUAH ACHINTYA; ALMEELBI TALAL BAKHEET; QUAMME MICHAEL; HOSSAIN MOHAMMAD ENAYET |
A biodegradable iron-crosslinked alginate is useful as a remediation agent for environmental contaminants such as phosphate. When charged with phosphate, or other nutrients, the iron-functionalized alginate can be used as an agricultural fertilizer. |
133 |
SYNTHETIC GYPSUM FERTILIZER PRODUCT AND METHOD OF MAKING |
PCT/US2013054212 |
2013-08-08 |
WO2014026048A3 |
2014-03-27 |
GINN TERRELL DALLAS; GRAY DANNY LYNN |
Embodiments of the invention are directed to pelletized synthetic gypsum and methods and systems for producing pelletized synthetic gypsum. Synthetic gypsum is combined with a binder composition and pelletized to a desired size. The binder composition may include lignosulfonate. Additives may be included in the pellets such as various plant nutrients and micro-nutrients. An additive may include elemental sulfur. The resulting pellets may have a mean pellet size guide number (SGN) from approximately 150 to approximately 300 and a crush strength from approximately 2 Ibf to approximately 12 Ibf. |
134 |
BIOFERTILIZER FORMULATION INVOLVING EARTHWORM COCOON AND NITROGEN FIXING BACTERIA |
PCT/IN2012000848 |
2012-12-26 |
WO2013098856A3 |
2013-10-10 |
PAUL MANIBRATA |
A storage/ shelf stable activity enhancing biofertilizer formulation/ composition comprising earthworm cocoons and microorganism selected from Azotobacter and/or other Nitrogen-fixing bacteria in the presence of a bio compatible carrier synergistically facilitating increased activity of said microorganisms thus aiding in increased fertility of the soil. A storage stable biofertilizer formulation/composition comprising selectively encapsulated/ coated earthworm cocoons involving non-steamed rice grain paste based encapsulation/ coating material for extended storage stability and viability even after atleast 12 weeks post application and its process of encapsulation thereof. |
135 |
COMPOSITIONS AND METHODS TO DETECT ILLICIT USES OF FERTILIZERS |
PCT/US2011047324 |
2011-08-11 |
WO2012021663A3 |
2012-05-18 |
KWEEDER JAMES |
Fertilizers may include one or more additives that render the fertilizer more resistant to further processing such as thermal processing and/or aqueous-based processing that may otherwise be employed in the attempt to produce explosive materials from the fertilizer. The one or more additives may include materials that increase the chances of detection by providing a visual or olfactory indication of further processing. The one or more additives may include materials that make further processing more difficult or dangerous. |
136 |
BIODIESEL SOLVENTS IN PESTICIDE COMPOSITIONS |
PCT/US2011026986 |
2011-03-03 |
WO2011109594A2 |
2011-09-09 |
RODRIGUEZ-KABANA R; SIMMONS LEE J; TAYLOR C ROBERT |
Disclosed are pesticide compositions that utilize biodiesel as a solvent. The disclosed compositions may be utilized for controlling pests., such as nematodes and weeds, and for enhancing growth of plants. |
137 |
METHOD OF IMPROVING PLANT GROWTH AND PLANT GROWTH COMPOSITION |
PCT/US2008001442 |
2008-02-04 |
WO2008097501A3 |
2009-12-23 |
JOHNSON LOUIS B; PEEL JEFFREY L |
A method of fertilizing plants and/or seeds involves the application of a growth hormone free formulation of fertilizer and sarcosine, either together as a formulation or separately. The sarcosine is used in an effective amount to enhance plant biomass development and fertilizer uptake. The application method and composition can also include the application of a preservative. |
138 |
COMPOSITION FOR INCREASING SOIL FERTILITY |
PCT/US2007019895 |
2007-09-12 |
WO2008033443A3 |
2008-08-28 |
LANCASTER LARRY |
A composition, and its manufacture, used to add supplemental materials to plants for the purpose of increasing or modifying growth, or the composition of the plant. The composition comprises silicon, sodium hydroxide, water, and a humic acid and fulvic acid blend. |
139 |
FIRE RETARDANT COMPOSITIONS CONTAINING AMMONIUM POLYPHOSPHATE AND IRON ADDITIVES FOR CORROSION INHIBITION |
PCT/US0130291 |
2001-09-27 |
WO0243812A3 |
2003-03-06 |
VANDERSALL HOWARD L; KEGELER GARY H |
Corrosion-inhibited fire retardant compositions and methods of making and using the same are provided. The corrosion-inhibited fire retardant compositions are comprised of at least one fire retardant component, a suspending agent, and a corrosion inhibiting system. The corrosion inhibiting system is comprised of at least one corrosion inhibiting compound selected from a group of compounds including azoles, insoluble ferric pyrophosphate, soluble ferric pyrophosphate, insoluble ferrous oxalate, soluble ferric citrate, soluble ferrous sulfate, insoluble ferric ammonium citrate, insoluble ferric orthophosphate, soluble ferric orthophosphate, soluble ferric ammonium oxalate, soluble ferric ammonium sulfate, soluble ferric bromide, soluble ferric sodium oxalate, soluble ferric stearate, soluble ferric sulfate, soluble ferrous acetate, soluble ferrous ammonium sulfate, soluble ferrous bromide, soluble ferrous gluconate, soluble ferrous iodide, insoluble ferric acetate, insoluble ferric fluoroborate, insoluble ferric hydroxide, insoluble ferric oleate, insoluble ferrous fumarate, insoluble ferrous oxalate, insoluble ferrous oxide, soluble ferric lactate, insoluble ferric resinate and any combination thereof. The corrosion inhibiting system is typically present in the fire retardant composition of the invention in a minor amount effective to substantially reduce corrosiveness of the concentrated fire retardant composition and of its diluted solution. Methods of using the corrosion inhibiting system and corrosion-inhibited agricultural plant nutrients are also provided. |
140 |
FIRE RETARDANT COMPOSITIONS WITH REDUCED ALUMINUM CORROSIVITY |
PCT/US0132283 |
2001-10-16 |
WO0244305A3 |
2002-08-15 |
VANDERSALL HOWARD L |
Corrosion-inhibited fire retardant compositions and methods of making and using the same are provided. The corrosion-inhibited fire retardant compositions are comprised of at least one fire retardant component, at least one biopolymer having a particle size diameter of less than about 100 microns, and a corrosion inhibiting system. The corrosion inhibiting system is comprised of at least one corrosion inhibiting compound selected from a group of compounds including azoles, insoluble ferric pyrophosphate, soluble ferric pyrophosphate, ferrous oxalate, ferric citrate, ferrous sulfate, ferric ammonium citrate, soluble ferric orthophosphate, insoluble ferric orthophosphate, ferric ammonium oxalate, ferric ammonium sulfate, ferric bromide, ferric sodium oxalate, ferric stearate, ferric sulfate, ferrous acetate, ferrous ammonium sulfate, ferrous bromide, ferrous gluconate, ferrous iodide, ferric acetate, ferric fluoroborate, ferric hydroxide, ferric oleate, ferrous fumarate, ferrous oxide, ferric lactate, ferric resinate and any combination thereof. In a specific embodiment, the corrosion-inhibited fire retardant composition includes a xanthan biopolymer. |