Abstract: This invention is intended to identify a gene cluster involved in biosynthesis of a cyclic peptide compound produced by a filamentous fungus of the Curvularia species and to establish a system for synthesizing such cyclic peptide compound. The gene is composed of a first module to a tenth module and encodes a protein having activity of synthesizing a nonribosomal peptide constituting a basic peptide backbone of a cyclic peptide compound produced by a filamentous fungus of the Curvularia species.

Abstract: For example, provided is an information processing device with which the entire performance can be felt really visually. The information processing device TB according to the present invention includes a processor performing a reception process of receiving input of performance information including pitch information, a first image output process of outputting a first image according to the received performance information, a performance determination process of determining at least any of tonality, a chord type, and a pitch name on the basis of the received performance information, and second image output process of outputting a second image according to a result determined in the performance determination process.

Abstract: For example, provided is an information processing device with which the entire performance can be felt really visually. The information processing device TB according to the present invention includes a processor performing a reception process of receiving input of performance information including pitch information, a first image output process of outputting a first image according to the received performance information, a performance determination process of determining at least any of tonality, a chord type, and a pitch name on the basis of the received performance information, and second image output process of outputting a second image according to a result determined in the performance determination process.

Abstract: An image creation method executed by a control unit including the steps: extracting a plurality of specific portions in a facial region of a facial image created by photographing a face from a front; selecting a plurality of illustration part images, which is viewed from a different view point from the front, corresponding to the specific portions; and making a portrait image of the face viewed from the different view point from the front, based on the illustration part images selected in the step of selecting.

Abstract: A coated cBN sintered body has excellent wear resistance, fracture resistance, adhesiveness between a substrate and a coating, and a tool life of which is elongated as compared with conventional cBN sintered bodies. The coated cBN sintered body has a cBN sintered body substrate and a coating coated on the surface thereof. The cBN sintered body includes 76 to 90% by volume of cBN, and 10 to 24% by volume of a binder phase and inevitable impurities. An average grain size of cBN is 0.5 to 5.0 ?m, an average value of the thickness of the binder phase is 0.05 to 0.8 ?m, and the standard deviation of the thickness of the binder phase is 0.8 ?m or less.

Abstract: A coated cBN sintered body tool has improved wear resistance and fracture resistance. The coated cBN sintered body tool has a substrate of a cBN sintered body and a coating layer coated on the surface thereof. The cBN sintered body includes 73 to 84% by volume of cBN and 16 to 27% by volume of a binder phase and inevitable impurities. An average grain size of the cBN is 1.5 to 4.0 ?m; an average value of the thickness of the binder phase is 0.05 to 0.5 ?m; and a standard deviation of the thickness of the binder phase is 0.5 ?m or less. The coating layer includes an upper layer of Ti(CxN(1?x)), an intermediate layer including a metal, a lower layer including an alternately laminated layer of (Ti(1?y)Siy)N thin layers and (Al(1?z)Crz)N thin layers, and an undermost layer of (Al(1?a)Cra)N.

Abstract: A coated cBN sintered body tool has improved wear resistance and fracture resistance. The coated cBN sintered body tool has a substrate of a cBN sintered body and a coating layer coated on the surface thereof. The cBN sintered body includes 73 to 84% by volume of cBN and 16 to 27% by volume of a binder phase and inevitable impurities. An average grain size of the cBN is 1.5 to 4.0 ?m; an average value of the thickness of the binder phase is 0.05 to 0.5 ?m; and a standard deviation of the thickness of the binder phase is 0.5 ?m or less. The coating layer includes an upper layer of Ti(CxN(1-x)), an intermediate layer including a metal, a lower layer including an alternately laminated layer of (Ti(1-y)Siy)N thin layers and (Al(1-z)Crz)N thin layers, and an undermost layer of (Al(1-a)Cra)N.

Abstract: A coated cBN sintered body has excellent wear resistance, fracture resistance, adhesiveness between a substrate and a coating, and a tool life of which is elongated as compared with conventional cBN sintered bodies. The coated cBN sintered body has a cBN sintered body substrate and a coating coated on the surface thereof. The cBN sintered body includes 76 to 90% by volume of cBN, and 10 to 24% by volume of a binder phase and inevitable impurities. An average grain size of cBN is 0.5 to 5.0 ?m, an average value of the thickness of the binder phase is 0.05 to 0.8 ?m, and the standard deviation of the thickness of the binder phase is 0.8 ?m or less.

Abstract: A composite material has a cBN sintered body firmly bonded to a hard metal. The composite material includes a cBN sintered body, hard metal, and a bonding layer present between the cBN sintered body and the hard metal. The bonding layer includes a metal with a thickness of 0.1 to 5 ?m.

Abstract: A cubic boron nitride-containing sintered body has heightened fracture resistance and toughness without lowered wear resistance. The body has a binder phase containing titanium nitride and titanium carbonitride, cubic boron nitride and inevitable impurities. A distance between a Bragg angle 2? of a (200) plane diffraction line of titanium carbonitride and a Bragg angle 2? of a (200) plane diffraction line of titanium nitride in an X-ray diffraction measurement using a Cu—K? line is 0.30° or more and 0.60° or less, and a full width at half maximum intensity of the (200) plane diffraction line of titanium carbonitride is 0.30° or more and 0.50° or less.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.

Abstract: The present invention provides pyrazole-O-glycoside derivatives represented by the following formulae, used as a diabetic medicine.