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11 results about "Acyltransferases" patented technology
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Enzymes from the transferase class that catalyze the transfer of acyl groups from donor to acceptor, forming either esters or amides. (From Enzyme Nomenclature 1992) EC 2.3.
The invention discloses two novel ligninmonomer p-hydroxybenzoyl transferases, which are respectively PoPHBMT1 derived from Ocean Paeonia suffruticosa and PaPHBMT1 derived from Australian Paeonia suffruticosa, and the two novel ligninmonomer p-hydroxybenzoyl transferases are suitable for realizing plantlignin p-hydroxybenzoyl modification in species with high content of H-type lignin or G-type lignin. The method has important significance for utilizing and modifying plantbiomass resources rich in G-type lignin units and / or H-type lignin units.
This invention discloses an acetyltransferase ARD1 inhibitor, D753-0266, and its application in the treatment of colorectal cancer, belonging to the field of biomedical technology. Through molecular dynamics simulations and binding energy calculations, it was found that the binding energy of D753-0266 to NAA10 can reach -68.12 kcal / mol. In vitro experiments show that D753-0266 can directly bind to and stabilize the ARD1 protein, downregulate its expression level, and dose-dependently inhibit the proliferation of colorectal cancer cells, while significantly inhibiting cell migration and colony formation. In vivo experiments show that D753-0266 effectively inhibits tumor growth in a mouse xenograft model and is well-tolerated. This inhibitor fills a research gap in the field of ARD1 targeting and can be used to prepare colorectal cancer therapeutic drugs, possessing high specificity and clinical translational potential.
The invention discloses an acetyltransferase ARD1 inhibitor D753-0266 and application of the acetyltransferase ARD1 inhibitor D753-0266 in colorectal cancer treatment, and relates to the technical field of biological medicines. Through molecular dynamicssimulation and binding energy calculation, it is found that the binding energy of D753-0266 and NAA10 can reach-68.12 kcal / mol. In-vitro experiments show that D753-0266 can be directly combined with and stabilize ARD1 protein, down-regulate the expression level of the ARD1 protein, inhibit colorectal cancercell proliferation in a dose-dependent manner, and remarkably inhibit cell migration and clone formation capability at the same time. In-vivo experiments show that the D753-0266 can effectively inhibit tumor growth in a mouse transplantation tumor model and has good tolerance. The inhibitor fills up the research blank in the field of targeting ARD1, can be used for preparing colorectal cancer treatment drugs, and has high specificity and clinical transformation potential.
The invention belongs to the technical field of plantgenetic engineering, and particularly relates to application of ZmSNAT1 protein and a coding gene thereof in catalyzing 5-hydroxytryptamine to synthesize N-acetyl-5-hydroxytryptamine, and the amino acid sequence of the ZmSNAT1 protein is shown as SEQ ID NO.1. The invention further discloses a preparation method of the ZmSNAT1 protein. According to the invention, the first 5-hydroxytryptamine-N-acetyltransferase ZmSNAT1 in the corn body is obtained through identification, and the ZmSNAT1 has the functions of converting 5-hydroxytryptamine into N-acetyl-5-hydroxytryptamine (NAS) and converting 5-methoxytryptamine into melatonin through in-vitro experiment determination, and has relatively high catalytic activity; and the ZmSNAT1 gene is found to have response to heat stress and drought stress, and a foundation is laid for further research on melatoninbiosynthesis and the regulation effect of melatonin in plant growth and abiotic stress response.
The application discloses a recombinant engineering bacterium with ThlA gene knockout and industrial gas source domestication and application thereof. The recombinant engineering bacterium is Clostridium autoethanogenum engineering bacterium with the preservation number of GDMCC No: 67962. The application optimizes carbon flow distribution of the C. autoethanogenum from the metabolic pathway level by using the CRISPR / Cas9 gene editing technology to knock out the acetyl coenzyme A acetyltransferase coding gene ThlA (gene number: CLAU_0409), and reduces by-product generation. On this basis, the gene edited strain is further subjected to laboratory directional domestication to strengthen the tolerance and adaptability of the strain to the complex environment of steel industry tail gas, and finally the growth rate, ethanol selectivity and ethanol yield of the strain are simultaneously improved, thereby providing core strain support for industrialization landing of resource utilization of the steel industry tail gas.