Abstract: A printing apparatus comprises a conveyance mechanism configured to convey a printing medium along a conveyance surface and a page turning mechanism. The page turning mechanism comprising: a swing guide which has a flat section substantially on the same plane with the conveyance surface at a preset rotation position and rotates around a shaft to incline the flat section with respect to the conveyance surface to bend the booklet on the flat section; a page turning roller configured to turn pages of the booklet; and a swing guide control section configured to enable the swing guide to rotate before the printing medium passes through the gap between the flat section and the page turning roller until the one of the ends of the flat section is above the arrangement surface of the conveyance surface and the other end is below the arrangement surface of the conveyance surface.

Abstract: In accordance with one embodiment, a duplex printer apparatus comprises a first printing section configured to use an inkjet mechanism for carrying out printing on a first surface of a paper wound in a roll shape; a second printing section configured to be arranged at the downstream side of the first printing section in a paper conveyance direction and use a thermal printing mechanism for carrying out printing on a second surface serving as the back side of the first surface of the paper; and a heat amount changing section configured to change, according to the difference of printing by the first printing section, a driving condition of the thermal printing mechanism when the second printing section applies heat to a paper.

Abstract: This solid pharmaceutical composition is useful as a solid pharmaceutical composition of 1-(3-(2-(1-benzothiophen-5-yl)ethoxy)propyl)azetidin-3-ol, which is excellently elutable and moldable and is stable in long-term storage, or a salt thereof.

Abstract: In accordance with one embodiment, a duplex printer apparatus comprises a first printing section configured to use an inkjet mechanism for carrying out printing on a first surface of a paper wound in a roll shape; a second printing section configured to be arranged at the downstream side of the first printing section in a paper conveyance direction and use a thermal printing mechanism for carrying out printing on a second surface serving as the back side of the first surface of the paper; and a heat amount changing section configured to change, according to the difference of printing by the first printing section, a driving condition of the thermal printing mechanism when the second printing section applies heat to a paper.

Abstract: A combined heat exchanger system includes a first heat exchanger for cooling a first cooling medium, a second heat exchanger for cooling a second cooling medium, and a compressor for compressing the first cooling medium to be supplied to the first heat exchanger. The first heat exchanger is separated from the second heat exchanger, being integrally assembled with the compressor in such a way that the first compressor can be directly and fluidically connected with the compressor. The first heat exchanger liquid-cools the first cooling medium, which is outputted from the compressor, by using the second cooling medium that is cooled by the second heat exchanger.

Abstract: One of mark sensors is automatically selected in accordance with specifications of a thermal sheet. A cutting position on the thermal sheet is decided on the basis of an output of the selected one mark sensor.

Abstract: One of mark sensors is automatically selected in accordance with specifications of a thermal sheet. A cutting position on the thermal sheet is decided on the basis of an output of the selected one mark sensor.

Abstract: A data reading apparatus includes: a medium-transporting unit configured to transport a medium on which magnetic ink characters are printed; a reading mechanism configured to read the magnetic ink characters printed on the medium in the form of a magnetic waveform; a correction-value storage unit configured to store a correction value inherent to the data reading apparatus, the correction value having been calculated from an error determined by comparing a reference magnetic waveform acquired by reading reference magnetic ink characters printed on a reference medium in a reference data reading apparatus, with the magnetic waveform actually acquired by reading the reading mechanism; a correction unit configured to correct, by using the correction value, the magnetic waveform acquired when the reading mechanism reads the magnetic ink characters printed on the medium; and a decryption unit configured to decrypt the magnetic ink characters printed on the medium, in accordance with the magnetic waveform corrected

Abstract: An evaporator includes a first heat exchanger and a second heat exchanger. The first heat exchanger includes a first path in which coolant flows downwardly, a second path in which the coolant from the first path flows upwardly, and a third path in which the coolant from the second path flows downwardly. The second heat exchanger includes at least two paths including a first path in which the coolant from the first heat exchanger flows upwardly. The number of tubes in the first path of the first heat exchanger is smaller than that in any one of the other paths of the exchangers. The number of tubes in the second path of the first heat exchanger is equal to or greater than that in the third path of the first heat exchanger. The number of tubes in the first path of the second heat exchanger is smaller than that in the third path of the first heat exchanger.

Abstract: An evaporator includes a first heat exchanger and a second heat exchanger. The first heat exchanger includes a first path in which coolant flows downwardly, a second path in which the coolant from the first path flows upwardly, and a third path in which the coolant from the second path flows downwardly. The second heat exchanger includes at least two paths including a first path in which the coolant from the first heat exchanger flows upwardly. The number of tubes in the first path of the first heat exchanger is smaller than that in any one of the other paths of the exchangers. The number of tubes in the second path of the first heat exchanger is equal to or greater than that in the third path of the first heat exchanger. The number of tubes in the first path of the second heat exchanger is smaller than that in the third path of the first heat exchanger.

Abstract: An evaporator includes a downwind-side heat exchanging part and an upwind-side heat exchanging part. In the heat exchanging part, paths are formed by partitions. In the evaporator, the flowing direction of coolant flowing in the upwind-side path is opposite to the flowing direction of the coolant flowing in the downwind-side path opposing to the upwind-side path. The number of heat exchanging passages in the path where the coolant rises is smaller than the number of heat exchanging passages in the paths where the coolant downs. As a result, the evaporator enables an increasing of the quantity of coolant flowing in the paths. Thus, if superimposing the upwind-side heat exchanging part on the downwind-side heat exchanging part, then it is possible to reduce an area causing a rise in blowout temperature of the coolant due to its short supply.

Abstract: In an inlet heat exchange unit, wherein a refrigerant's dryness is low and its flow distribution is likely to cause deviation, a number of heat exchange passages in an ascending flow path at an upstream side is less than the number of heat exchange passages in descending flow paths. Accordingly, refrigerant flowing in the ascending flow path increases, and a region in which the refrigerant lacks is reduced, thereby decreasing temperature variations. In an outlet heat exchange unit, wherein the refrigerant's dryness is high and its flow distribution is unlikely to cause deviation, the number of heat exchange passages a most downstream path is greater than the number of heat exchange passages in the immediately preceding path, thereby suppressing an increase in flow resistance in the most downstream path and keeping flow resistance in the outlet heat exchange unit low.

Abstract: An evaporator includes a first heat exchanger and a second heat exchanger. The first heat exchanger includes a first path in which coolant flows downwardly, a second path in which the coolant from the first path flows upwardly, and a third path in which the coolant from the second path flows downwardly. The second heat exchanger includes at least two paths including a first path in which the coolant from the first heat exchanger flows upwardly. The number of tubes in the first path of the first heat exchanger is smaller than that in any one of the other paths of the exchangers. The number of tubes in the second path of the first heat exchanger is equal to or greater than that in the third path of the first heat exchanger. The number of tubes in the first path of the second heat exchanger is smaller than that in the third path of the first heat exchanger.

Abstract: In the inlet heat exchange unit 10 in which dryness of the refrigerant is low and flow distribution of the refrigerant is liable to cause deviation, the number of heat exchange passages in the ascending flow path 10b is made smaller than the number of heat exchange passages in the descending flow paths 10a and 10c. Accordingly, a liquid refrigerant flowing in the ascending flow path 10b at the upstream side in the tank longitudinal direction, in which the liquid refrigerant tends to lack, increases, and the region where the liquid refrigerant lacks is reduced. This decreases variations in temperature. Further, in the outlet heat exchange unit 20 in which dryness of the refrigerant is high and flow distribution of the refrigerant is not liable to cause deviation, the number of heat exchange passages in the most downstream path 20c, in which volume of the flowing refrigerant is expanded most, is made larger than the number of heat exchange passages in the path immediately before the most downstream path 20b.

Abstract: A display control device is provided with an input signal processing section for processing an input signal, a display section for displaying an image, a first display control section for processing an output signal from the input signal processing section to be displayed on the display section, a second display control section operated by an operation program for OS, and a signal switching section for outputting the display signal from the second display control section on to the display section at the normal time. The second display control section processes an output signal from the first display control section to be displayed on the display section. The signal switching section outputs the display signal from the first display control section onto the display section when an abnormal condition of the second display control section is detected.

Abstract: An evaporator includes a downwind-side heat exchanging part and an upwind-side heat exchanging part. In the heat exchanging part, paths are formed by partitions. In the evaporator, the flowing direction of coolant flowing in the upwind-side path is opposite to the flowing direction of the coolant flowing in the downwind-side path opposing to the upwind-side path. The number of heat exchanging passages in the path where the coolant rises is smaller than the number of heat exchanging passages in the paths where the coolant downs. As a result, the evaporator enables an increasing of the quantity of coolant flowing in the paths. Thus, if superimposing the upwind-side heat exchanging part on the downwind-side heat exchanging part, then it is possible to reduce an area causing a rise in blowout temperature of the coolant due to its short supply.

Abstract: A heat exchanger has a pair of heat exchanging parts composed of laminated tubes. Each tube is composed of a pair of metal sheets joined to each other. Locating parts each having a projecting piece and a recess are arranged on respective sides of the metal sheet. When the metal sheets are mated, the projecting pieces are engaged with the recesses, respectively. Moreover, the metal sheets are in inverse relation to each other about a top-and-back inversion axis and the projecting pieces are arranged symmetrically to the recesses about the top-and-back inversion axis.

Abstract: An evaporator has at least one core. The core has tubes and a pair of tanks. The tube is configured to internally pass coolant, each of the tubes formed by bending a plate material and joining both edges of the bent plate material to each other. The pair of header tanks is connected to and communicating with each open end of the tubes. In the most windward core, the jointed edge of the tubes is arranged on the windward side.

Abstract: The condenser assembly structure is disclosed. The opening of the outgoing pipe is positioned below the upper openings of the heat transfer tubes in the inner space of the upper header pipe. Cutouts are formed in the upper ends of heat transfer tubes, which are located within an upper header pipe. A lubricant mixed in a refrigerant is introduced from the inside of the upper header pipe into the heat transfer tubes by way of the cutouts. The outgoing pipe defining is attached to the lower header pipe at a position close to its end. A total passage area of first heat transfer tubes through which the refrigerant flows downward is larger than that of second heat transfer tubes through which the refrigerant flows upward. The total passage area of the second heat transfer tubes is smaller than that of third heat transfer tubes through which the refrigerant flows downward.

Abstract: The condenser assembly structure is disclosed. The opening of the outgoing pipe is positioned below the upper openings of the heat transfer tubes in the inner space of the upper header pipe. Cutouts are formed in the upper ends of heat transfer tubes, which are located within an upper header pipe. A lubricant mixed in a refrigerant is introduced from the inside of the upper header pipe into the heat transfer tubes by way of the cutouts. The outgoing pipe defining is attached to the lower header pipe at a position close to its end. A total passage area of first heat transfer tubes through which the refrigerant flows downward is larger than that of second heat transfer tubes through which the refrigerant flows upward. The total passage area of the second heat transfer tubes is smaller than that of third heat transfer tubes through which the refrigerant flows downward.