Abstract: An object of the present invention is to provide a separation medium and a separation method, ensuring high selectivity and good separation efficiency for specific steviol glycosides. The present invention is related to a separation medium in which polyethyleneimine is immobilized to porous particles of a (meth)acrylic polymer having a crosslinked structure and a hydroxyl group.

Abstract: An object of the present invention is to provide a separation medium and a separation method, ensuring high selectivity and good separation efficiency for specific steviol glycosides. The present invention is related to a separation medium in which polyethyleneimine is immobilized to porous particles of a (meth)acrylic polymer having a crosslinked structure and a hydroxyl group.

Abstract: A method for separating steviol glycoside, including: a separating step 55 of performing a continuous liquid chromatography for continuously separating at least one type of steviol glycoside by allowing a liquid to be separated containing plural types of steviol glycosides to pass through a separating agent in which polyethylene imine is immobilized to a carrier.

Abstract: An object of the present invention is to provide a separation medium and a separation method, ensuring high selectivity and good separation efficiency for specific steviol glycosides. The present invention is related to a separation medium in which polyethyleneimine is immobilized to porous particles of a (meth)acrylic polymer having a crosslinked structure and a hydroxyl group.

Abstract: A space probing apparatus is provided that can further enhance its thermal protective function for electronic apparatuses and batteries that are apparatuses each having a narrow range of permissible temperature. The space probing apparatus includes, as a vehicle body 1 that is an apparatus body, an inner housing 13 that accommodates an electronic apparatus 11 and a battery 12, and an outer housing 15 that accommodates the inner housing 13 supporting the inner housing 13 afloat therein. A thermal insulating layer 16 is formed between the inner housing 13 and the outer housing 15 using a space therebetween. A heat dissipating body 17 is included in an upper portion of the inner housing 13. A lid 18 is included in an upper portion of the outer housing 15. The whole outer faces of the inner and the outer housings 13 and 15 are each covered with a thermal insulating material 20.

Abstract: Differences in the output of the printed barcode caused by differences interpreting the barcode generating code of an application program are absorbed so that the barcode desired by the user can be printed. The printer driver 32 of the host computer 11 extracts the character data contained in plural blocks of input barcode generation data, combines the extracted character data to generate a character data array, and based on the generated character data array generates and outputs a single barcode generation command CMB to the printer 12.

Abstract: A printer driver conserves recording paper by removing blank space formed at the top and bottom of each page when printing. The printer driver acquires the coordinates of the top and bottom of the part of the print image, and calculates the page length required to print the middle area between the top and bottom blank space areas based on these coordinates. The print data for printing this middle area is then extracted and printed. When printing is completed, the recording paper is conveyed only the difference between the page length and the transportation distance of the recording paper to set the print head to a position separated only the page length from the printing start position of the area print data, that is, to a position touching the middle area. As a result, blank space between the middle areas of consecutively printed pages is eliminated.

Abstract: A space probing apparatus is provided that can further enhance its thermal protective function for electronic apparatuses and batteries that are apparatuses each having a narrow range of permissible temperature. The space probing apparatus includes, as a vehicle body 1 that is an apparatus body, an inner housing 13 that accommodates an electronic apparatus 11 and a battery 12, and an outer housing 15 that accommodates the inner housing 13 supporting the inner housing 13 afloat therein. A thermal insulating layer 16 is formed between the inner housing 13 and the outer housing 15 using a space therebetween. A heat dissipating body 17 is included in an upper portion of the inner housing 13. A lid 18 is included in an upper portion of the outer housing 15. The whole outer faces of the inner and the outer housings 13 and 15 are each covered with a thermal insulating material 20.

Abstract: The refrigerator includes a vegetable compartment (107) thermally insulated by a rear partition (111), and a mist generation department (139) for atomizing a mist into the vegetable compartment (107), and the mist generation department (139) includes a atomizing electrode (135) for atomizing the mist into the vegetable compartment (107), a voltage applicator (133) for applying a voltage to the atomizing electrode (135), and a cooling pin (134) coupled to the atomizing electrode (135), in which the atomizing electrode (135) is cooled to a temperature lower than the dew point by a outlet air-duct for freezer compartment (141), and the moisture in the air is cooled to condense dew on the atomizing electrode (135), and is atomized as a mist into the vegetable compartment (107), and dew can be condensed from moisture onto the atomizing electrode (135) stably and in a simple configuration, and the freshness of the food is enhanced while the reliability of the refrigerator is enhanced.

Abstract: A refrigerator that sprays a mist using an atomization apparatus includes an atomization state determination unit that determines an atomization state of an atomization unit. An operation of the atomization unit is controlled according to a signal determined by the atomization state determination unit. Thus, an appropriate amount of mist spray is performed according to the atomization state, so that improved spray accuracy can be attained.

Abstract: To provide a refrigerator including: a heat-insulating main body; a storage compartment defined in the heat-insulating main body; and a mist spray apparatus that sprays a fine mist into the storage compartment. The fine mist generated by the mist spray apparatus has a nano-size particle diameter and reduces microorganisms adhering to the inside of the storage compartment and to vegetable surfaces, the microorganisms including molds, bacteria, yeasts, and viruses.

Abstract: A mist atomizer is arranged in a first cooling duct including an outlet for vegetable compartment and an inlet for vegetable compartment. The mist atomizer is arranged near a gap of a lower basket and an upper basket. A refrigerator capable of efficiently collecting transpired moisture from stored food, sufficiently humidifying the interior of the basket, and having higher freshness maintaining property is provided.

Abstract: The refrigerator includes a vegetable compartment (107) thermally insulated by a rear partition (111), and a mist generation department (139) for atomizing a mist into the vegetable compartment (107), and the mist generation department (139) includes a atomizing electrode (135) for atomizing the mist into the vegetable compartment (107), a voltage applicator (133) for applying a voltage to the atomizing electrode (135), and a cooling pin (134) coupled to the atomizing electrode (135), in which the atomizing electrode (135) is cooled to a temperature lower than the dew point by a outlet air-duct for freezer compartment (141), and the moisture in the air is cooled to condense dew on the atomizing electrode (135), and is atomized as a mist into the vegetable compartment (107), and dew can be condensed from moisture onto the atomizing electrode (135) stably and in a simple configuration, and the freshness of the food is enhanced while the reliability of the refrigerator is enhanced.

Abstract: The refrigerator includes a vegetable compartment (107) thermally insulated by a rear partition (111), and a mist generation department (139) for atomizing a mist into the vegetable compartment (107), and the mist generation department (139) includes a atomizing electrode (135) for atomizing the mist into the vegetable compartment (107), a voltage applicator (133) for applying a voltage to the atomizing electrode (135), and a cooling pin (134) coupled to the atomizing electrode (135), in which the atomizing electrode (135) is cooled to a temperature lower than the dew point by a outlet air-duct for freezer compartment (141), and the moisture in the air is cooled to condense dew on the atomizing electrode (135), and is atomized as a mist into the vegetable compartment (107), and dew can be condensed from moisture onto the atomizing electrode (135) stably and in a simple configuration, and the freshness of the food is enhanced while the reliability of the refrigerator is enhanced.

Abstract: The refrigerator includes a vegetable compartment (107) thermally insulated by a rear partition (111), and a mist generation department (139) for atomizing a mist into the vegetable compartment (107), and the mist generation department (139) includes a atomizing electrode (135) for atomizing the mist into the vegetable compartment (107), a voltage applicator (133) for applying a voltage to the atomizing electrode (135), and a cooling pin (134) coupled to the atomizing electrode (135), in which the atomizing electrode (135) is cooled to a temperature lower than the dew point by a outlet air-duct for freezer compartment (141), and the moisture in the air is cooled to condense dew on the atomizing electrode (135), and is atomized as a mist into the vegetable compartment (107), and dew can be condensed from moisture onto the atomizing electrode (135) stably and in a simple configuration, and the freshness of the food is enhanced while the reliability of the refrigerator is enhanced.

Abstract: Differences in the output of the printed barcode caused by differences interpreting the barcode generating code of an application program are absorbed so that the barcode desired by the user can be printed. The printer driver 32 of the host computer 11 extracts the character data contained in plural blocks of input barcode generation data, combines the extracted character data to generate a character data array, and based on the generated character data array generates and outputs a single barcode generation command CMB to the printer 12.

Abstract: A printer driver conserves recording paper by removing blank space formed at the top and bottom of each page when printing. The printer driver 9 acquires the coordinates of the top and bottom of the part of the print image that is not blank space from the print image B of the print data for one page, and calculates the page length L required to print the middle area H between the top and bottom blank space areas based on these coordinates. The area print data for printing this middle area H is then extracted and printed. When printing is completed, the recording paper 11 is conveyed only the difference N between the page length L and the transportation distance M of the recording paper 11 to set the print head 10 to a position separated only the page length L from the printing start position of the area print data, that is, to a position touching the middle area H. As a result, only the middle area H for each page is printed to the recording paper 11.

Abstract: It is possible to execute a one-step polishing or a plural-step polishing at a high throughput, and it is possible to achieve a reduction of an occupied area on the basis of a compact structure of a whole apparatus. Two platens are respectively provided with a first wafer retention head and a second wafer retention head, and a wafer transfer apparatus on which a wafer is mounted is arranged between two platens. The two wafer retention heads are moved between two platens and the wafer transfer apparatus respectively by a first moving means and a second moving means. Further, a two-step polishing is executed by whirl moving two wafer retention heads from one platen to the other platen at 180 degree respectively by a whirl moving means supporting two moving means.

Abstract: A compact ice-making device is provided for making ice chips of varied shapes for use in glasses of whiskey and water, and the like purposes. Ice is made using an ice-making vessel (13) for making a plank-like block of ice with a shaft (18) inserted in advance in the vessel, the shaft (18) having ribs (18A) extending substantially radially from a rotating axis. Upon completion of the ice making, a gear unit (20) connected to the shaft (18) is driven by a motor to rotate the shaft (18), which cracks and divides the plank-like ice block into ice chips of varied shapes.

Abstract: A connector housing 45 is formed separately from a gear housing 20 and a closing and fixing member 21. The connector housing 45 includes a retainer 49, which supports an external connector 48 relative to the closing and fixing member 21, and an elastically deformable grommet 50. A retainer-side end of the grommet 50 is interposed between a flange portion of the retainer 49 and an outer surface of the closing and fixing member 21, and the connector housing 45 is secured to a connector installation opening 43. With this construction, it is possible to achieve a high degree of design freedom and to provide a motor having a drip-proof structure of a relatively simple configuration.