The invention relates to methods of modulating immune cells in a patient by altering microbiota of the patient. The invention also relates to methods of modulating treatments or therapies in a subject organism by altering microbiota of the subject. The invention also relates to cell populations, systems, arrays, cells, RNA, kits and other means for effecting this. In an example, advantageously selective targeting of a particular species in a human gut microbiota using guided nucleic acid modification is carried out to effect the alteration.

The invention relates to methods of modulating immune cells in a patient by altering microbiota of the patient. The invention also relates to methods of modulating treatments or therapies in a subject organism by altering microbiota of the subject. The invention also relates to cell populations, systems, arrays, cells, RNA, kits and other means for effecting this. In an example, advantageously selective targeting of a particular species in a human gut microbiota using guided nucleic acid modification is carried out to effect the alteration.

Based at least in part on an understanding of the mechanisms by which small RNAs (e.g., naturally-occurring miRNAs) mediate RNA silencing in plants, rules have been established for determining, for example, the degree of complementarity required between an RNAi-mediating agent and its target, i.e., whether mismatches are tolerated, the number of mismatches tolerated, the effect of the position of the mismatches, etc. Such rules are useful, in particular, in the design of improved RNAi-mediating agents which allow for more exact control of the efficacy of RNA silencing.

The invention provides polynucleotides and nucleic acid molecules encoding piperine synthases and proteins and enzyme functional for converting piperoyl-CoA and piperidine to piperine. The invention also provides a method of producing an amide from an acyl-CoA and an amine, and to a method of producing an amide from a carboxylic acid and an amine.

The invention relates to a modular polypeptide comprising a first partial effector sequence comprising a first part of a circular permutated halotag protein connected to a sensor module sequence, which is connected to a second part of a circular permutated halotag protein. The sensor module is a single polypeptide or a polypeptide pair capable of undergoing conformational change from a first confirmation to a second confirmation depending on the presence or concentration of an analyte compound. The modular peptide is catalytically active in response to an environmental stimulus or in response to the sensor pair interacting.

The invention further relates to nucleic acid sequences encoding the modular polypeptide, and to kits comprising same.

The present disclosure provides engineered nucleic acid-guided nickases and optimized scaffolds for making rational, direct edits to nucleic acids in live cells.

The present disclosure provides new RNA-guided nuclease systems and engineered nickases for making rational, direct edits to nucleic acids in live cells.

The invention relates to methods of modulating immune cells in a patient by altering microbiota of the patient. The invention also relates to methods of modulating treatments or therapies in a subject organism by altering microbiota of the subject. The invention also relates to cell populations, systems, arrays, cells, RNA, kits and other means for effecting this. In an example, advantageously selective targeting of a particular species in a human gut microbiota using guided nucleic acid modification is carried out to effect the alteration.

The invention relates to methods of modulating immune cells in a patient by altering microbiota of the patient. The invention also relates to methods of modulating treatments or therapies in a subject organism by altering microbiota of the subject. The invention also relates to cell populations, systems, arrays, cells, RNA, kits and other means for effecting this. In an example, advantageously selective targeting of a particular species in a human gut microbiota using guided nucleic acid modification is carried out to effect the alteration.

The present disclosure provides new RNA-guided nuclease systems and engineered nickases for making rational, direct edits to nucleic acids in live cells.