Patent classifications
C12N2800/102
NUCLEIC ACID CONSTRUCTS COMPRISING GENE EDITING MULTI-SITES AND USES THEREOF
Disclosed herein is a polynucleotide construct comprising one or more nuclease recognition sequences upstream and downstream of a Gene editing multi-site that comprises a plurality of nuclease recognition sequences. The plurality of nuclease recognition sequences facilitate insertion of one or more exogenous donor genes into the host cell.
Novel fungal autoinducible expression system
The present invention provides for a system comprising: (a) a first nucleic acid encoding an -factor receptor operatively linked to a first promoter, (b) a second nucleic acid encoding a recombinase operatively linked to a promoter which is activated by an -factor receptor bound to an -factor, and (c) a third nucleic acid encoding a gene of interest (GOI) flanked by a pair of recombinase recognition sequences, recognized by the recombinase, operatively linked to a second promoter. The present invention provides for a genetically modified fungal cell comprising the system of the present invention.
ENGINEERED MICROORGANISMS FOR PRODUCTION OF 2'FUCOSYLLACTOSE AND L-FUCOSE
Compositions and methods are provided for producing 2fucosyliaciose and L-fucose from recombinant microorganisms.
Edible vaccines expressed in yeast for preventing and treating infectious diseases, including hepatitis B, in humans
In the invention described here, the approach is to formulate an edible vaccine based on N-terminal yeast surface display expression platform that producing S.cerevisiae EBY100/pYD5-preS2/S(adw) and S.cerevisiae EBY100/pYD5-preS2/S(adr) for protecting and treating human against hepatitis B virus (HBV) infection, suggesting that yeast surface display expression system expressing HBsAg antigen has potential as a prophylactic treatment for HBV in human via oral vaccination. The technology developed in this patent application can also be used to produce edible (oral) vaccines for preventing and treating other infectious diseases in human.
BIOSYNTHESIS OF CANNABINOIDS AND CANNABINOID PRECURSORS
Aspects of the disclosure relate to biosynthesis of cannabinoids and cannabinoid precursors in recombinant cells and in vitro, and to variant terminal synthases having altered catalytic activity to synthesize THC-type, CBD-type and/or CBC-type cannabinoids.
Genetically engineered Candida utilis capable of degrading and utilizing kitchen waste and construction method therefor
Provided is a genetically engineered Candida utilis capable of degrading and utilizing kitchen waste. The genetically engineered Candida utilis is obtained by using a Candida utilis multigene co-expression vector to integrate alpha-amylase, glucoamylase and acid protease genes into the Candida utilis genome and to correctly express such three enzymes.
Method for preparing heterodimer snake venom protein
Provided are recombinant plasmids containing the heterodimeric snake venom protein Agkisacutacin A chain gene and Agkisacutacin B chain gene, respectively, cell strains containing the recombinant plasmids, and a method for expressing the heterodimeric snake venom protein Agkisacutacin. The expression level of Agkisacutacin in the present method exceeds 10 mg/L, and the purity level can reach more than 95% by means of two steps of purification.
SELF-GUIDING INTEGRATION CONSTRUCT (SGIC)
The present invention relates to the field of molecular biology and cell biology. More specifically, the present invention relates to a self-guiding integration construct for a genome editing system.
FUSION PROTEINS COMPRISING MILK PROTEINS AND COMPOSITIONS THEREOF
The present invention relates generally to a recombinant protein, compositions comprising such recombinant protein, and to methods for producing such recombinant protein and compositions.
NUCLEIC ACID CONSTRUCTS COMPRISING GENE EDITING MULTI-SITES AND USES THEREOF
Disclosed herein is a polynucleotide construct comprising one or more nuclease recognition sequences upstream and downstream of a Gene editing multi-site that comprises a plurality of nuclease recognition sequences. The plurality of nuclease recognition sequences facilitate insertion of one or more exogenous donor genes into the host cell.