Abstract: An anticancer composition includes cervical cancer-derived autocrine motility factor (AMF) as an effective component. The cervical cancer-derived AMF has an excellent effect of inhibiting the proliferation of liver cancer, pancreatic cancer, breast cancer, lung cancer, prostate cancer, and colon cancer, and inducing cell death. The composition can be used as an anticancer therapeutic agent.

Abstract: The present invention relates to a mouse (Mus musculus) in which expression and site-specific modification of a target protein is temporally and spatially controlled, and a method for producing the same and the use thereof, and more particularly to a transgenic mouse in which expression of a target protein having a modification attached to a specific position is temporally and spatially controlled as a result of incorporation of an unnatural amino acid. In the mouse according to the present invention, in which site-specific modification of a target protein is temporally and spatially controllable, expression of the target protein having the site-specific modification attached thereto is controllable depending on the timing and/or position of introduction of an unnatural amino acid. Thus, the mouse according to the present invention is useful for studies on the in vivo functions of cellular proteins, various human diseases including cancers and neurodegenerative disorders, new drug discovery, and the like.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into & protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASepwith O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sep-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells.

Abstract: A method for producing a site-specifically modified protein based on new carbon-carbon bond formation is disclosed, including the following three steps (marking, activation, and coupling steps): (a) marking of the modification site by incorporating a specific amino acid into a selected position of a target protein; (b) activation of the marked site; and (c) coupling of various post-translational modification (PTM) moieties or other chemical groups onto the activated site to obtain a site-specifically modified protein. The method for producing a site-specifically modified protein can incorporate desired diverse chemical groups including post-translational modification (PTM) moieties into a designated site in a target protein through a new carbon-carbon bond. Furthermore, the modified protein having a site-specific PTM exhibits the same chemical and functional properties as that of a target protein present in cells.

Abstract: Disclosed is an electronic device. The present electronic device comprises a display, and a processor configured to display, through the display, a UI based on use patterns of a plurality of devices connected to a same network, wherein the UI comprises a device axis and a time axis, and provides information related to use of at least one device in a region where the device axis and the time axis intersect each other.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Disclosed is an electronic device. The present electronic device comprises a display, and a processor configured to display, through the display, a UI based on use patterns of a plurality of devices connected to a same network, wherein the UI comprises a device axis and a time axis, and provides information related to use of at least one device in a region where the device axis and the time axis intersect each other.

Abstract: The present invention relates to a mouse (Mus musculus) in which expression and site-specific modification of a target protein is temporally and spatially controlled, and a method for producing the same and the use thereof, and more particularly to a transgenic mouse in which expression of a target protein having a modification attached to a specific position is temporally and spatially controlled as a result of incorporation of an unnatural amino acid. In the mouse according to the present invention, in which site-specific modification of a target protein is temporally and spatially controllable, expression of the target protein having the site-specific modification attached thereto is controllable depending on the timing and/or position of introduction of an unnatural amino acid. Thus, the mouse according to the present invention is useful for studies on the in vivo functions of cellular proteins, various human diseases including cancers and neurodegenerative disorders, new drug discovery, and the like.

Abstract: A method for producing a site-specifically modified protein based on new carbon-carbon bond formation is disclosed, including the following three steps (marking, activation, and coupling steps): (a) marking of the modification site by incorporating a specific amino acid into a selected position of a target protein; (b) activation of the marked site; and (c) coupling of various post-translational modification (PTM) moieties or other chemical groups onto the activated site to obtain a site-specifically modified protein. The method for producing a site-specifically modified protein can incorporate desired diverse chemical groups including post-translational modification (PTM) moieties into a designated site in a target protein through a new carbon-carbon bond. Furthermore, the modified protein having a site-specific PTM exhibits the same chemical and functional properties as that of a target protein present in cells.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacrylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sep-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeacbacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: The present invention relates to a method of producing a phosphorylated protein using a SepRS (O-phosphoseryl-tRNA synthetase) mutant and an EF-Tu mutant, which have increased activity. More specifically, the invention relates to a method of producing a phosphorylated protein by incorporating phosphoserine into the specific position of a target protein or polypeptide using tRNASep serving to recognize at least one codon in the mRNA of the target protein or polypeptide, an O-phosphoseryl-tRNA synthetase (SepRS) mutant selected by a molecular evolution technique and serving to aminoacylate tRNASep with phosphoserine (Sep), and an EF-Tu mutant serving to bind and deliver Sep-tRNASep to the ribosome. According to the invention, a phosphorylated protein can be produced in an amount of mg per liter using the SepRS and EF-Tu mutants.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: A nonhumidified fuel cell is provided that includes a catalytic layer coupled to an anode or a cathode that is configured to accelerate an electrochemical reaction of a fuel gas or air, and a gas diffusion layer that has air pores diffusing the fuel gas or air to the catalytic layer and diffusing water generated by the electrochemical reaction with the fuel gas in the catalytic layer. In particular, a ratio of a volume of water to a volume of air pores of the gas diffusion layer ranges from about 0.1 to 0.4.

Abstract: The present invention relates to a method of producing a phosphorylated protein using a SepRS (O-phosphoseryl-tRNA synthetase) mutant and an EF-Tu mutant, which have increased activity. More specifically, the invention relates to a method of producing a phosphorylated protein by incorporating phosphoserine into the specific position of a target protein or polypeptide using tRNASep serving to recognize at least one codon in the mRNA of the target protein or polypeptide, an O-phosphoseryl-tRNA synthetase (SepRS) mutant selected by a molecular evolution technique and serving to aminoacylate tRNASep with phosphoserine (Sep), and an EF-Tu mutant serving to bind and deliver Sep-tRNASep to the ribosome. According to the invention, a phosphorylated protein can be produced in an amount of mg per liter using the SepRS and EF-Tu mutants.

Abstract: Nucleic acids encoding mutant elongation factor proteins (EF-Sep), phosphoseryl-tRNA synthetase (SepRS), and phosphoseryl-tRNA (tRNASep) and methods of use in site specific incorporation of phosphoserine into a protein or polypeptide are described. Typically, SepRS preferentially aminoacylates tRNASep with O-phosphoserine and the tRNASep recognizes at least one codon such as a stop codon. Due to the negative charge of the phosphoserine, Sept-tRNASep does not bind elongation factor Tu (EF-Tu). However, mutant EF-Sep proteins are disclosed that bind Sep-tRNASep and protect Sep-tRNASep from deacylation. In a preferred embodiment the nucleic acids are on vectors and are expressed in cells such as bacterial cells, archeaebacterial cells, and eukaryotic cells. Proteins or polypeptides containing phosphoserine produced by the methods described herein can be used for a variety of applications such as research, antibody production, protein array manufacture and development of cell-based screens for new drug discovery.

Abstract: Provided are a method of recovering L-threonine from the fermentation broth of an L-threonine producing microorganism, comprising: separating microbial bodies from the L-threonine containing fermentation broth obtained by culturing an L-threonine producing microorganism and filtering the separated fermentation broth to obtain a filtrate; concentrating the filtrate; and reacting the concentrated filtrate with a nonsolvent to obtain crystalline L-threonine, crystalline L-threonine recovered by the method, and a feed additive containing the crystalline L-threonine recovered by the method.