Abstract: In the mold powder, the content of F is 0.5% by mass or less (including 0% by mass), CaO and SiO2 are included as main components, the mass ratio of CaO to SiO2 (CaO/SiO2) is 0.6 to 1.4, the content of B2O3 is 0.3 to 2.8% by mass, the content of Na2O is 5.0 to 20.0% by mass, the total content of Li2O and K2O is 0 to 4.0% by mass, the content of MgO is 0 to 3.5% by mass, the content of Al2O3 is 1.0 to 8.0% by mass, and the content of MnO is 1.0% by mass or less (including 0% by mass).

Abstract: A re-transfer film set includes: a winding spool including: a first outer diameter portion which supports the re-transfer film and has a first outer diameter, a width of the first outer diameter portion in a direction of the rotational axis being narrower than the width of the re-transfer film; a second outer diameter portion being disposed in the direction of the rotational axis in a position being different from a position of the first outer diameter portion, the second outer diameter portion having a second outer diameter being smaller than the first outer diameter; and a third outer diameter portion being disposed in the direction of the rotational axis on a side opposite to a side of the second outer diameter portion with respect to the first outer diameter portion, the third outer diameter portion having a third outer diameter being smaller than the first outer diameter.

Abstract: An apparatus and method for controlling the end tidal partial pressure of a gas X in a subject's lung, and to the use of such an apparatus and method for research, diagnostic and therapeutic purposes, wherein the method consists of: -obtaining input of a series of logistically attainable PetX values for a series of respective breaths: -determining an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX for each of said respective breaths; and controlling a gas delivery device to deliver the amount of gas in a volume of gas delivered to the subject in each of said respective breaths to target the respective PetX for that breath.

Abstract: An apparatus and method for controlling the end tidal partial pressure of a gas X in a subject's lung, and to the use of such an apparatus and method for research, diagnostic and therapeutic purposes, wherein the method consists of: —obtaining input of a series of logistically attainable PetX values for a series of respective breaths: —determining an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX for each of said respective breaths: and—controlling a gas delivery device to deliver the amount of gas in a volume of gas delivered to the subject in each of said respective breaths to target the respective PetX for that breath.

Abstract: A re-transfer film set includes: a winding spool including: a first outer diameter portion which supports the re-transfer film and has a first outer diameter, a width of the first outer diameter portion in a direction of the rotational axis being narrower than the width of the re-transfer film; a second outer diameter portion being disposed in the direction of the rotational axis in a position being different from a position of the first outer diameter portion, the second outer diameter portion having a second outer diameter being smaller than the first outer diameter; and a third outer diameter portion being disposed in the direction of the rotational axis on a side opposite to a side of the second outer diameter portion with respect to the first outer diameter portion, the third outer diameter portion having a third outer diameter being smaller than the first outer diameter.

Abstract: A processor obtains input of a logistically attainable end tidal partial pressure of gas X (PetX[i]T) for one or more respective breaths [i] and input of a prospective computation of an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX[i]T for a respective breath [i] using inputs required to utilize a mass balance relationship, wherein one or more values required to control the amount of gas X in a volume of gas delivered to the subject is output from an expression of the mass balance relationship. The mass balance relationship is expressed in a form which takes into account (prospectively), for a respective breath [i], the amount of gas X in the capillaries surrounding the alveoli and the amount of gas X in the alveoli, optionally based on a model of the lung which accounts for those sub-volumes of gas in the lung which substantially affect the alveolar gas X concentration affecting mass transfer.

Abstract: There is provided with a sheet feeding apparatus. A biasing unit generates a biasing force of biasing a storage unit in an insertion direction. A repulsive unit generates a repulsive force of biasing the storage unit in a direction opposite to the insertion direction. A fixing unit fixes the storage unit in a fixing position. The biasing unit starts generating the biasing force in a repulsion start position where the repulsive unit starts generating the repulsive force, or on an upstream side of the repulsion start position, in the insertion direction, and stops generating the biasing force before the storage unit reaches the fixing position. A biasing Zone in which the biasing unit generates the biasing force and a repulsive zone in which the repulsive unit generates the repulsive force partially overlap each other.

Abstract: A first detection unit detects that a first stacking unit is positioned in a predetermined position and a second detection unit detects that a second stacking unit is positioned in a predetermined position. An upper surface detection unit detects one of a sheet stacked on the first stacking unit and an upper surface of the first stacking unit. It is determined that an error has occurred, when the sheet of the second size is set to be stacked, when the upper surface detection unit has detected a sheet stacked on the first stacking unit, and when the first stacking unit is not in the predetermined position and the second stacking unit is in the predetermined position.

Abstract: There is provided with a sheet feeding apparatus. A biasing unit generates a biasing force of biasing a storage unit in an insertion direction. A repulsive unit generates a repulsive force of biasing the storage unit in a direction opposite to the insertion direction. A fixing unit fixes the storage unit in a fixing position. The biasing unit starts generating the biasing force in a repulsion start position where the repulsive unit starts generating the repulsive force, or on an upstream side of the repulsion start position, in the insertion direction, and stops generating the biasing force before the storage unit reaches the fixing position. A biasing Zone in which the biasing unit generates the biasing force and a repulsive zone in which the repulsive unit generates the repulsive force partially overlap each other.

Abstract: A first detection unit detects that a first stacking unit is positioned in a predetermined position and a second detection unit detects that a second stacking unit is positioned in a predetermined position. An upper surface detection unit detects one of a sheet stacked on the first stacking unit and an upper surface of the first stacking unit. It is determined that an error has occurred, when the sheet of the second size is set to be stacked, when the upper surface detection unit has detected a sheet stacked on the first stacking unit, and when the first stacking unit is not in the predetermined position and the second stacking unit is in the predetermined position.

Abstract: An apparatus and method for controlling the end tidal partial pressure of a gas X in a subject's lung, and to the use of such an apparatus and method for research, diagnostic and therapeutic purposes, wherein the method consists of: obtaining input of a series of logistically attainable PetX values for a series of respective breaths: determining an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX for each of said respective breaths: and controlling a gas delivery device to deliver the amount of gas in a volume of gas delivered to the subject in each of said respective breaths to target the respective PetX for that breath.

Abstract: A coupling guard for covering a coupling which couples a drive shaft of a prime mover and a rotational shaft of a rotary machine to each other. The coupling guard includes a cylindrical guard body having an upper semicylindrical member and a lower semicylindrical member coupled to the upper semicylindrical member, and a guard leg supporting the guard body. The guard body has a flange portion to which the guard leg is attached. The guard leg includes a vertical wall parallel to a central axis of the guard body, an upper wall, a bottom wall, a left-side wall, and a right-side wall which project perpendicularly outwardly from the vertical wall. The vertical wall, the upper wall, the bottom wall, the left-side wall, and the right-side wall are made of a single plate material.

Abstract: A processor obtains input of a logistically attainable end tidal partial pressure of gas X (PetX[i]T) for one or more respective breaths [i] and input of a prospective computation of an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX[i]T for a respective breath [i] using inputs required to utilize a mass balance relationship, wherein one or more values required to control the amount of gas X in a volume of gas delivered to the subject is output from an expression of the mass balance relationship. The mass balance relationship is expressed in a form which takes into account (prospectively), for a respective breath [i], the amount of gas X in the capillaries surrounding the alveoli and the amount of gas X in the alveoli, optionally based on a model of the lung which accounts for those sub-volumes of gas in the lung which substantially affect the alveolar gas X concentration affecting mass transfer.

Abstract: There is disclosed a coupling guard that can easily be installed and removed while a drive shaft of a prime mover and a rotational shaft of a rotary machine are coupled to each other. The coupling guard includes a cylindrical guard body having an upper semicylindrical member and a lower semicylindrical member coupled to the upper semicylindrical member, and a guard leg supporting the guard body. The guard body has a flange portion to which the guard leg is attached. The guard leg includes a vertical wall parallel to a central axis of the guard body, an upper wall, a bottom wall, a left-side wall, and a right-side wall which project perpendicularly outwardly from the vertical wall. The vertical wall, the upper wall, the bottom wall, the left-side wall, and the right-side wall are made of a single plate material.

Abstract: A motor assembly includes a motor, an inverter for changing rotational speed of the motor, a cooling fan coupled to a rotational shaft of the motor, a guide cover for guiding a gas flow generated by rotation of the cooling fan to the inverter, and at least two support members coupling the inverter to a side surface of the motor. The support members are located on both sides of a center line connecting a central axis of the motor to a center of the inverter as viewed from an axial direction of the motor. A space serving as a passage of the gas flow from the cooling fan is formed between the support members.

Abstract: An apparatus and method for controlling the end tidal partial pressure of a gas X in a subject's lung, and to the use of such an apparatus and method for research, diagnostic and therapeutic purposes, wherein the method consists of: obtaining input of a series of logistically attainable PetX values for a series of respective breaths: determining an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX for each of said respective breaths: and controlling a gas delivery device to deliver the amount of gas in a volume of gas delivered to the subject in each of said respective breaths to target the respective PetX for that breath.

Abstract: To realize an encoder having highly reliable detection accuracy and capable of reducing a device cost. A light detection unit of an encoder receives light irradiated by a light source and transmitted through light-transmitting portions of Gray code optical patterns of a rotating disk and a light-transmitting/shielding member, and detects the light as digital data. A magnetic detection unit detects a magnetic pattern of a magnet provided on a rotation center portion of the rotating disk as digital data. A processing unit compares the digital data of the magnetic detection unit and the digital data of the light detection unit, and corrects a detection error.

Abstract: A processor obtains input of a logistically attainable end tidal partial pressure of gas X (PetX[i]T) for one or more respective breaths [i] and input of a prospective computation of an amount of gas X required to be inspired by the subject in an inspired gas to target the PetX[i]T for a respective breath [i] using inputs required to utilize a mass balance relationship, wherein one or more values required to control the amount of gas X in a volume of gas delivered to the subject is output from an expression of the mass balance relationship. The mass balance relationship is expressed in a form which takes into account (prospectively), for a respective breath [i], the amount of gas X in the capillaries surrounding the alveoli and the amount of gas X in the alveoli, optionally based on a model of the lung which accounts for those sub-volumes of gas in the lung which substantially affect the alveolar gas X concentration affecting mass transfer.