Abstract: A highly expressive image is output based on an input image. A style transfer program causes a processor to implement a distance estimation function of estimating a distance to a target included in an image, a region defining function of demarcating one or more regions from the image based on the estimated distance, and a style transfer function of performing a style transfer to the regions in the image.

Abstract: A multilevel power conversion device includes: N (N?1) direct current voltage sources; a first flying capacitor; a second flying capacitor; and a phase module of a M phase (M?2) being configured to output, from the output terminal, a potential of one of the input terminals, or a potential obtained by adding or subtracting the voltage of the capacitor to or from the potential of the one of the input terminals, by selectively controlling the respective switching elements in an ON/OFF manner.

Abstract: Basic circuit of U phase includes first to fourth semiconductor elements (SU1.1 to SU1.4) connected between positive and negative ends of DC voltage source (DCC1), fifth semiconductor element (SU1.5) connected to a common connection point of the first and second semiconductor elements (SU1.1, SU1.2), and sixth semiconductor element (SU1.6) connected to a common connection point of the third and fourth semiconductor elements (SU1.3, SU1.4). Flying capacitor (FC1) is inserted between the fifth semiconductor element (SU1.5) and the sixth semiconductor element (SU1.6). Voltage selection circuits have the common connection points of the second and third semiconductor elements (SU1.2, SU1.3) of the respective basic circuits as input terminals, and includes semiconductor elements (SU1 to SU4) between the input terminals and output terminals (U, V, W).

Abstract: A multilevel power conversion device includes: N (N?1) direct current voltage sources; a first flying capacitor; a second flying capacitor; and a phase module of a M phase (M?2) being configured to output, from the output terminal, a potential of one of the input terminals, or a potential obtained by adding or subtracting the voltage of the capacitor to or from the potential of the one of the input terminals, by selectively controlling the respective switching elements in an ON/OFF manner.

Abstract: Basic circuit of U phase includes first to fourth semiconductor elements (SU1.1 to SU1.4) connected between positive and negative ends of DC voltage source (DCC1), fifth semiconductor element (SU1.5) connected to a common connection point of the first and second semiconductor elements (SU1.1, SU1.2), and sixth semiconductor element (SU1.6) connected to a common connection point of the third and fourth semiconductor elements (SU1.3, SU1.4). Flying capacitor (FC1) is inserted between the fifth semiconductor element (SU1.5) and the sixth semiconductor element (SU1.6). Voltage selection circuits have the common connection points of the second and third semiconductor elements (SU1.2, SU1.3) of the respective basic circuits as input terminals, and includes semiconductor elements (SU1 to SU4) between the input terminals and output terminals (U, V, W).

Abstract: A bonding method of a magnetic head micro-motion actuator includes measuring clearances between the adhesive surfaces of the pair of movable arms and the magnetic head by locating the magnetic head at the center of the pair of movable arms during bonding the adhesion surfaces of both sides of the magnetic head between the pair of movable arms; calculating the optimum amount of an adhesive resin corresponding to the measured clearances; applying the calculated amount of the adhesive resin on the adhesive surfaces of the magnetic head by pulling the magnetic head out of the pair of movable arms; and bonding the magnetic head having the adhesive resin applied on its adhesive surfaces between the pair of movable arms by inserting the magnetic head therebetween.

Abstract: A bonding method of a magnetic head micro-motion actuator includes measuring clearances between the adhesive surfaces of the pair of movable arms and the magnetic head by locating the magnetic head at the center of the pair of movable arms during bonding the adhesion surfaces of both sides of the magnetic head between the pair of movable arms; calculating the optimum amount of an adhesive resin corresponding to the measured clearances; applying the calculated amount of the adhesive resin on the adhesive surfaces of the magnetic head by pulling the magnetic head out of the pair of movable arms; and bonding the magnetic head having the adhesive resin applied on its adhesive surfaces between the pair of movable arms by inserting the magnetic head therebetween.

Abstract: A preparation containing a cephalosporin medicament is disclosed. The preparation comprises a cephalosporin derivative represented by the following formula: ##STR1## namely, 7.beta.-{2-(5-amino-1,2,4-thiadiazol-3-yl)-(Z)-2-fluoromethoxyiminoacetami do}-3-{(E)-3-(carbamoylmethylethylmethylammonio) -1-propen-1-yl}-3-cephem-4-carboxylate or a pharmaceutically acceptable salt thereof salt, lactose, citric acid or a sodium salt thereof, and arginine or a hydrochloride thereof; or the cephalosporin derivative represented by the formula (I) or a pharmaceutically acceptable salt thereof, lactose, citric acid or a sodium salt thereof, and sodium chloride.