Patent classifications
B01J41/09
MICROCROP-DERIVED ELECTROLYTE DRINK, DRIED BASE POWDER, AND MILK, AND METHODS FOR GENERATING THE SAME
The present disclosure relates, in some embodiments, to a method including demineralizing a protein liquor (i.e., a liquid portion of a lysed microcrop (e.g., Lemna) that has been separated to generate the liquid portion and a solid portion and having a composition including a soluble microcrop protein and a Vitamin B12) to generate a demineralized protein liquor. According to some embodiments, demineralizing the protein liquor may include diafiltration, ultrafiltration, nanofiltration, reverse osmosis filtration, electrodialysis, and/or passing the protein liquor through an ion exchange resin (e.g., an anion exchange resin. a trialkyl ammonium salt having three methyl groups). In some embodiments, a method may further include concentrating a demineralized protein liquor to generate at least one of a milk base and an electrolyte drink.
MICROCROP-DERIVED ELECTROLYTE DRINK, DRIED BASE POWDER, AND MILK, AND METHODS FOR GENERATING THE SAME
The present disclosure relates, in some embodiments, to a method including demineralizing a protein liquor (i.e., a liquid portion of a lysed microcrop (e.g., Lemna) that has been separated to generate the liquid portion and a solid portion and having a composition including a soluble microcrop protein and a Vitamin B12) to generate a demineralized protein liquor. According to some embodiments, demineralizing the protein liquor may include diafiltration, ultrafiltration, nanofiltration, reverse osmosis filtration, electrodialysis, and/or passing the protein liquor through an ion exchange resin (e.g., an anion exchange resin. a trialkyl ammonium salt having three methyl groups). In some embodiments, a method may further include concentrating a demineralized protein liquor to generate at least one of a milk base and an electrolyte drink.
Poly(phenylene) with High Ion Selectivity for Use in Anion Exchange Membranes
A method for synthesizing a poly(phenylene) with high ion selectivity comprises dissolving an alkyl halide poly(phenylene) in a polar aprotic solvent to form a nonaqueous solution and adding an anhydrous nucleophile to the nonaqueous solution to replace the halide of the alkyl halide poly(phenylene) with a cationic group of the nucleophile. The poly(phenylene) can be used in anion exchange membranes.
Poly(phenylene) with High Ion Selectivity for Use in Anion Exchange Membranes
A method for synthesizing a poly(phenylene) with high ion selectivity comprises dissolving an alkyl halide poly(phenylene) in a polar aprotic solvent to form a nonaqueous solution and adding an anhydrous nucleophile to the nonaqueous solution to replace the halide of the alkyl halide poly(phenylene) with a cationic group of the nucleophile. The poly(phenylene) can be used in anion exchange membranes.
COMPOSITIONS, KITS AND METHODS USEFUL FOR SEPARATING OLIGONUCLEOTIDES FROM MATRIX COMPONENTS
The present disclosure relates to compositions, kits and methods that may be used for removal of matrix components, including proteins and lipids, from one or more oligonucleotides.
COMPOSITIONS, KITS AND METHODS USEFUL FOR SEPARATING OLIGONUCLEOTIDES FROM MATRIX COMPONENTS
The present disclosure relates to compositions, kits and methods that may be used for removal of matrix components, including proteins and lipids, from one or more oligonucleotides.
Anion Exchange Ionomer With A Poyarylene Backbone and Anion Exchange Membrane Incorporating Same
An anion exchange ionomer is disclosed that contains a fluorinated, ether-free backbone, and a fluorinated ether based quaternary ammonium functional group. The novel polymer has improved chemical and mechanical stability as compared to the state-of-the-art materials for incorporation in anion exchange membrane. The disclosed anion exchange ionomer may be incorporated into an anion exchange membrane and used in electrochemical applications.
ANION EXCHANGE POLYMERS AND MEMBRANES FOR ELECTROLYSIS
Anion exchange polymers comprise a plurality of repeating units of formula (I). The polymer may be synthesized from a super acid catalyzed polyhydroxyalkylation reaction of monomers Ar.sub.1′, Ar.sub.2′, and X.sub.1′ to form a neutral precursor polymer followed by a Menshutkin reaction to convert the neutral precursor polymer to the anion exchange polymer.
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Anion exchange membranes and membrane electrode assemblies incorporating the anion exchange polymers are also described.
ANION EXCHANGE POLYMERS AND MEMBRANES FOR ELECTROLYSIS
Anion exchange polymers comprise a plurality of repeating units of formula (I). The polymer may be synthesized from a super acid catalyzed polyhydroxyalkylation reaction of monomers Ar.sub.1′, Ar.sub.2′, and X.sub.1′ to form a neutral precursor polymer followed by a Menshutkin reaction to convert the neutral precursor polymer to the anion exchange polymer.
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Anion exchange membranes and membrane electrode assemblies incorporating the anion exchange polymers are also described.
Poly(phenylene) with high ion selectivity for use in anion exchange membranes
A method for synthesizing a poly(phenylene) with high ion selectivity comprises dissolving an alkyl halide poly(phenylene) in a polar aprotic solvent to form a nonaqueous solution and adding an anhydrous nucleophile to the nonaqueous solution to replace the halide of the alkyl halide poly(phenylene) with a cationic group of the nucleophile. The poly(phenylene) can be used in anion exchange membranes.