Abstract: Disclosed herein are compounds or salts thereof, and compositions thereof, for increasing plant growth. Also disclosed are methods of increasing levels of plant nutrients using a compound, salt, or composition as disclosed herein. Also disclosed herein are kits comprising a compound, salt, or composition as described herein.

Abstract: Disclosed herein are plant propagation materials, methods of manufacturing, formulations and uses thereof. The plant propagation materials disclosed herein may comprise a strigolactone obtained by a biosynthetic process. The plant propagation material may comprise a chemical mimic of a strigolactone. The strigolactone may be 5-deoxystrigol. Methods of manufacturing the plant propagation materials may comprise a chemical process. Alternatively, methods of manufacturing the plant propagation material may comprise a biosynthetic process. The methods may comprise use of one or more polynucleotides. The polynucleotides may encode a metabolite. The polynucleotides may comprise one or more genes encoding one or more components of a strigolactone pathway.

Abstract: Disclosed herein plant propagation materials, methods of manufacturing, formulations and uses thereof. The plant propagation materials disclosed herein may comprise a strigolactone obtained by a biosynthetic process. The plant propagation material may comprise a chemical mimic of a strigolactone. The strigolactone may be 5-deoxystrigol. Methods of manufacturing the plant propagation materials may comprise a chemical process. Alternatively, methods of manufacturing the plant propagation material may comprise a biosynthetic process. The methods may comprise use of one or more polynucleotides. The polynucleotides may encode a metabolite. The polynucleotides may comprise one or more genes encoding one or more components of a strigolactone pathway.

Abstract: Disclosed herein plant propagation materials, methods of manufacturing, formulations and uses thereof. The plant propagation materials disclosed herein may comprise a strigolactone obtained by a biosynthetic process. The plant propagation material may comprise a chemical mimic of a strigolactone. The strigolactone may be 5-deoxystrigol. Methods of manufacturing the plant propagation materials may comprise a chemical process. Alternatively, methods of manufacturing the plant propagation material may comprise a biosynthetic process. The methods may comprise use of one or more polynucleotides. The polynucleotides may encode a metabolite. The polynucleotides may comprise one or more genes encoding one or more components of a strigolactone pathway.

Abstract: The invention relates to systems and methods for production of compounds by yeast and other organisms. In one approach yeast engineered for production of a compound of commercial value is cultured together with a cellulosic bacteria, and the yeast uses a metabolic product produced by the bacteria as a carbon source. Methyl halides are an example of compounds that may be produced by this process. The invention also relates to production of organic compounds using genetically engineered organisms expressing a S-adenosylmethionine (SAM)-dependent methyl halide transferase. In one approach the organism, halides and a carbon source are incubated in a cultivation medium under conditions in which methyl halide is produced. The methyl halide may be collected and converted into non-halogenated organic molecules.

Abstract: Disclosed herein plant propagation materials, methods of manufacturing, formulations and uses thereof. The plant propagation materials disclosed herein may comprise a strigolactone obtained by a biosynthetic process. The plant propagation material may comprise a chemical mimic of a strigolactone. The strigolactone may be 5-deoxystrigol. Methods of manufacturing the plant propagation materials may comprise a chemical process. Alternatively, methods of manufacturing the plant propagation material may comprise a biosynthetic process. The methods may comprise use of one or more polynucleotides. The polynucleotides may encode a metabolite. The polynucleotides may comprise one or more genes encoding one or more components of a strigolactone pathway.

Abstract: The invention relates to trans-acting ligand-responsive nucleic acids and uses thereof. In particular, a ligand responsive nucleic acid comprises an effector domain and an aptamer domain that is responsive to a ligand.

Abstract: The invention relates to aptamer-regulated, ligand-responsive nucleic acids, or “ampliSwitches,” and uses thereof. Particular embodiments include a ligand-responsive nucleic acid that comprises a primer sequence domain and an aptamer domain that is responsive to a ligand.

Abstract: Disclosed herein plant propagation materials, methods of manufacturing, formulations and uses thereof. The plant propagation materials disclosed herein may comprise a strigolactone obtained by a biosynthetic process. The plant propagation material may comprise a chemical mimic of a strigolactone. The strigolactone may be 5-deoxystrigol. Methods of manufacturing the plant propagation materials may comprise a chemical process. Alternatively, methods of manufacturing the plant propagation material may comprise a biosynthetic process. The methods may comprise use of one or more polynucleotides. The polynucleotides may encode a metabolite. The polynucleotides may comprise one or more genes encoding one or more components of a strigolactone pathway.

Abstract: Disclosed is a process in which a recombinant organism, such as a yeast, expressing a heterologous S-adenosylmethionine (SAM)-dependent methyl halide transferase (MHT) protein is combined with a halide and a carbon source in a cultivation medium under conditions in which methyl formate is produced. The cell may genetically modified to express methyl formate synthase, methanol dehydrogenase and/or hydrolytic dehalogenase at levels higher than a cell of the same species that is not genetically modified. The methyl formate may be collected and used in a variety of applications. The halide may be chlorine, bromine or iodine.

Abstract: The invention relates to aptamer-regulated, ligand-responsive nucleic acids, or “ampliSwitches,” and uses thereof. Particular embodiments include a ligand-responsive nucleic acid that comprises a primer sequence domain and an aptamer domain that is responsive to a ligand.

Abstract: The invention relates to aptamer-regulated, ligand-responsive nucleic acids, or “ampliSwitches,” and uses thereof. Particular embodiments include a ligand-responsive nucleic acid that comprises a primer sequence domain and an aptamer domain that is responsive to a ligand.

Abstract: Disclosed is a process in which a recombinant organism, such as a yeast, expressing a heterologous S-adenosylmethionme (SAM)-dependent methyl halide transferase (MHT) protein is combined with a halide and a carbon source in a cultivation medium under conditions in which methyl formate is produced. The cell may genetically modified to express methyl formate synthase, methanol dehydrogenase and/or hydrolytic dehalogenase at levels higher than a cell of the same species that is not genetically modified. The methyl formate may be collected and used in a variety of applications. The halide may be chlorine, bromine or iodine.

Abstract: The invention relates to aptamer-regulated, ligand-responsive nucleic acids, or “ampliSwitches,” and uses thereof. Particular embodiments include a ligand-responsive nucleic acid that comprises a primer sequence domain and an aptamer domain that is responsive to a ligand.

Abstract: The invention relates to systems and methods for production of compounds by yeast and other organisms. In one approach yeast engineered for production of a compound of commercial value is cultured together with a cellulosic bacteria, and the yeast uses a metabolic product produced by the bacteria as a carbon source. Methyl halides are an example of compounds that may be produced by this process. The invention also relates to production of organic compounds using genetically engineered organisms expressing a S-adenosylmethionine (SAM)-dependent methyl halide transferase. In one approach the organism, halides and a carbon source are incubated in a cultivation medium under conditions in which methyl halide is produced. The methyl halide may be collected and converted into non-halogenated organic molecules.

Abstract: The invention relates to a process for production of organic compounds using genetically engineered organisms expressing a S-adenosylmethionine (SAM)-dependent methyl halide transferase and, optionally modified at loci that affect flux through SAM metabolic pathways or affect intracellular halide levels. In one approach the organism, halides (chlorine, bromine and/or iodine); and a carbon source are incubated in a cultivation medium under conditions in which methyl halide is produced. The methyl halide may be collected and converted into non-halogenated organic molecules.