The present disclosure relates to the biosynthesis of indigoid dye precursors and their conversion to indigoid dyes. Specifically, the present disclosure relates to methods of using polypeptides to produce indigoid dye precursors from indole feed compounds, and the use of the indigoid dye precursors to produce indigoid dyes.

The present disclosure relates generally to methods and cells for the production of substituted phytocannabinoids or substituted phytocannabinoid precursors in host cells that produce the phytocannabinoid or the phytocannabinoid precursor. Methods are described which comprise transforming host cells with a sequence encoding an enzyme for derivatizing the phytocannabinoid or precursor with a substituent, such as O-methyl, glycosyl, or halogen. The transformed cells are cultured to produce substituted phytocannabinoids or substituted phytocannabinoid precursors.

The present disclosure relates to the biosynthesis of indigoid dye precursors and their conversion to indigoid dyes. Specifically, the present disclosure relates to methods of using polypeptides to produce indigoid dye precursors from indole feed compounds, and the use of the indigoid dye precursors to produce indigoid dyes.

The present disclosure relates to the biosynthesis of indigoid dye precursors and their conversion to indigoid dyes. Specifically, the present disclosure relates to methods of using polypeptides to produce indigoid dye precursors from indole feed compounds, and the use of the indigoid dye precursors to produce indigoid dyes.

The current inventive technology includes novel systems, methods and compositions for the in vivo production, modification and isolation of terpene compounds from Cannabis or other plants. In particular, the invention provides systems and methods for high level in vivo biosynthesis of water-soluble terpene compounds. In one preferred embodiment, the present invention generally relates to the conversion of Cannabis sativa or hemp derived terpenes into water-soluble terpene compounds, such as terpene glycosides, glycosylated-xylosylated terpenes, and an acetylated glycoside terpenes. In one preferred aspect, the invention may include system for producing water-soluble terpene compounds in yeast and tobacco cell suspension cultures, as well as an in planta system using transgenic Cannabis or hemp plants.

The present invention relates to a biotechnological method for producing a C-glycoside of interest. The invention further relates to the use of a sialylated C-glycoside as a donor in an enzymatic glycosylation reaction. The present invention further relates to the following C- glycosides.

The invention provides compositions and methods for the production of TDP-deoxysugars.

The invention provides compositions and methods for the production of TDP-deoxysugars.

Methods for converting mixtures of anthocyanins occurring in fruit or vegetable juice or extract into particular anthocyanin molecules having desirable colorant properties are provided herein. The method of the present disclosure can be employed to increase the amount of particular anthocyanin molecules, while lowering the total number of anthocyanin molecules present in the natural juice and/or extract. The disclosure is also directed to anthocyanin molecules prepared by the methods of present disclosure and to enzymes capable of catalyzing reactions that provide such effects.

Methods for converting mixtures of anthocyanins occurring in fruit or vegetable juice or extract into particular anthocyanin molecules having desirable colorant properties are provided herein. The method of the present disclosure can be employed to increase the amount of particular anthocyanin molecules, while lowering the total number of anthocyanin molecules present in the natural juice and/or extract. The disclosure is also directed to anthocyanin molecules prepared by the methods of present disclosure and to enzymes capable of catalyzing reactions that provide such effects.