Abstract: An object of the present invention is to prevent an X-ray generator and an X-ray detector that turn around a subject from contacting with the subject. An X-ray CT imaging apparatus includes a turning support that supports an X-ray generator and an X-ray detector, a turning drive mechanism including a turning mechanism and a turning axis moving mechanism, an imaging region position setting unit that receives a setting of a position of an imaging region to a local part of a dental arch of a head, and a turning controller. The position of the mechanical turning axis X1 is controlled according to the position of the imaging region set by the imaging region position setting unit.

Abstract: An X-ray CT imaging apparatus includes: a supporter that is supported such that an X-ray generator and an X-ray detector are opposed to each other; a turning motor that turns the supporter about a shaft; a crosswise drive motor that moves the shaft in a crosswise direction; and a circuit that performs processing of controlling the turning motor and the crosswise drive motor and processing of setting the physique of a subject. When X-ray CT imaging is performed, the crosswise drive motor moves the shaft in synchronization with turning of the supporter about the shaft, and the supporter is caused to perform combined motion, which allows the X-ray generator and the X-ray detector to turn about a center of an X-ray CT imaging region, and position control of the shaft is performed according to the size of the physique of the subject.

Abstract: An object of the present invention is to prevent an X-ray generator and an X-ray detector that turn around a subject from contacting with the subject. An X-ray CT imaging apparatus includes a turning support that supports an X-ray generator and an X-ray detector, a turning drive mechanism including a turning mechanism and a turning axis moving mechanism, an imaging region position setting unit that receives a setting of a position of an imaging region to a local part of a dental arch of a head, and a turning controller. The position of the mechanical turning axis X1 is controlled according to the position of the imaging region set by the imaging region position setting unit.

Abstract: An X-ray CT imaging apparatus includes: a supporter that is supported such that an X-ray generator and an X-ray detector are opposed to each other; a turning motor that turns the supporter about a shaft; a crosswise drive motor that moves the shaft in a crosswise direction; and a circuit that performs processing of controlling the turning motor and the crosswise drive motor and processing of setting the physique of a subject. When X-ray CT imaging is performed, the crosswise drive motor moves the shaft in synchronization with turning of the supporter about the shaft, and the supporter is caused to perform combined motion, which allows the X-ray generator and the X-ray detector to turn about a center of an X-ray CT imaging region, and position control of the shaft is performed according to the size of the physique of the subject.

Abstract: A method of cooling moist air through a heat exchange surface suppresses the formation of dew and frost on a heat exchange surface by preparing a carrier which has a heat conduction ratio higher than that of the moist air if the air temperature in a temperature boundary layer, is below the dew-point when the air temperature in the temperature boundary layer is above 0° C., or below the freezing-point when the air temperature in the temperature boundary layer is below 0° C., the carrier being arranged within the temperature boundary layer and on the heat exchange surface, which is in contact with moist air and is used for cooling; and removing moisture from the air by condensing or sublimating water vapor in the moist air on the surface of the carrier by arranging the carrier opposite of the heat exchange surface and within the temperature boundary layer.

Abstract: A method of cooling moist air through a heat exchange surface suppresses the formation of dew and frost on a heat exchange surface by preparing a carrier which has a heat conduction ratio higher than that of the moist air if the air temperature in a temperature boundary layer, is below the dew-point when the air temperature in the temperature boundary layer is above 0° C., or below the freezing-point when the air temperature in the temperature boundary layer is below 0° C. the carrier being arranged within the temperature boundary layer and on the heat exchange surface, which is in contact with moist air and is used for cooling and removing moisture from the air by condensing or sublimating water vapor in the moist air on the surface of the carrier by arranging the carrier opposite of the heat exchange surface and within temperature boundary layer.

Abstract: An entity of a Th2 adjuvant activity in mother's milk has been revealed as coenzyme A by HPLC and mass spectrometry. The followings have been found out that: a risk of developing atopic dermatitis can be evaluated by targeting coenzyme A; and any one of a food and mother's milk with a reduced risk of developing atopic dermatitis can be prepared by removing or inactivating coenzyme A.

Abstract: An entity of a Th2 adjuvant activity in mother's milk has been revealed as coenzyme A by HPLC and mass spectrometry. The followings have been found out that: a risk of developing atopic dermatitis can be evaluated by targeting coenzyme A; and any one of a food and mother's milk with a reduced risk of developing atopic dermatitis can be prepared by removing or inactivating coenzyme A.

Abstract: A process for clonally expanding T cells of unknown specificity and a process for identifying a peptide ligand recognized by said T cells are provided.

Abstract: A process for clonally expanding T cells of unknown specificity is provided which comprises co-culturing said T cells of unknown specificity with combinatorial randomized peptide library, Xn, an interleukin, and MHC class II antigen-expressing cells with DNA synthesis being suspended, said cells being derived from the individual where said T cells are obtained, and optionally in the presence of anti-CD29 antibody having an agonist activity. A process for identifying a peptide ligand recognized by said T cell clone of unknown specificity is also provided.