Abstract:
A marker useful in diagnosing surgical site infections is provided. In the method of the present invention for detecting surgical site infections, sCD14-ST in a sample is measured.
Abstract:
Provided is a portable electronic apparatus. The portable electronic apparatus includes a casing, an operation portion, and a finger placement portion. The casing includes a front surface and a back surface. The operation portion is disposed at a first position on the front surface and is operated with a first finger of a user for an input. The finger placement portion is disposed at a second position on the back surface. The second position corresponds to the first position. The finger placement portion guides a second finger of the user to be capable of being placed thereon.
Abstract:
The present invention provides a method and device for determining the sideband ratio of a superconducting mixer using a comb generator. The method includes the steps of: (a) tentatively adjusting the sideband ratio of a mixer for calibration of an output of the comb generator; (b) determining the signal intensity of a pseudo-celestial signal oscillator for calibration of the output of the comb generator; (c) repeating the steps (a) and (b) to derive the relation between the sideband radio of the mixer for the comb-generator output calibration and the intensity of a pseudo-celestial signal; (d) calibrating the output of the comb generator; and (e) obtaining the sideband ratio of the mixer to be measured.
Abstract:
A transfer member includes a dyeing layer transfer member, which has a lubricating heat-resistant layer on the reverse surface of a first base material and laminated layers of a parting layer and a dyeing layer on the obverse surface, an ink transfer member, having a lubricating heat-resistant layer on the reverse surface of a second base material and the laminated layers of an adhesive layer and an ink layer, an intermediate member having a functional layer on a third base material, and an image-receptor. A thermal transfer printing method includes the steps of thermally transferring the dyeing layer onto the functional layer by setting a thermal head in contact with the lubricating heat-resistant layer of the dyeing layer transfer member, thermally transferring dye of the ink layer onto the dyeing layer that was transferred onto the functional layer in response to picture signals by setting the thermal head in contact with the lubricating heat-resistant layer of the ink transfer member, and thermally transferring the dyeing layer recorded with the dye onto the main surface of the image-receptor. Thus, pictorial images of high quality are formed on the image-receptor, and thermal transfer printing can be carried out repeatedly and stably.
Abstract:
The present invention relates to a method of resistive sheet transfer recording using a recording member and an electrode head comprising oppositely aligned electrode pair trains embedded in the insulating support member and also relates to an electrode head use therefor, wherein abrasive wear of the electrode pair by sliding contact of the recording member is optimized in a manner that the resistive sheet usually contacts to a fresh surface of the electrode pair train.The present invention makes it possible to give a high quality image with high recording speed and high sensitivity.
Abstract:
The present invention provides a thermal printing method using a sublimable dye, which is capable of faithfully printing on any kind of substrates, including plain paper without the tack sheets which make the process complicated. The method of the present invention comprises forming an image into a printing layer by heating a color layer with a printing head and then transferring the printing layer onto an image receive sheet by pressure or heat; wherein the color layer and printing layer are respectively formed on one substrate in a certain interval of distance without putting one upon another, the surface of the color layer is placed on the surface of the printing layer and heat is applied to the color layer from the substrate side with a printing head to form an image into a printing layer.The present invention also provide a color ink film comprising a substrate and both a color layer and a printing layer respectively formed on the substrate in a certain interval of distance without putting one upon another, wherein the color layer or the printing layer is formed from polyvinyl butyral having a butyralization degree of not less than 50 mol %.
Abstract:
The present invention is directed to a thermal transfer printing process comprising:heating a thermal ink film with a printing head to print dye transferring images onto an intermediate sheet which comprises a substrate and a printing layer thereon,heaping an image receive sheet on said printing layer, andtransferring said printing layer onto an image receive sheet by pressure or heat;The improvement residing in that said printing layer is formed from polyvinyl acetal.The present invention also provides an intermediate sheet for the above thermal transfer printing process comprising a substrate and a printing layer on said substrate wherein said printing layer is formed from polyvinyl acetal.
Abstract:
A hard multilayer coating that is to be disposed on a body, including: (a) a first coating layer disposed to be held in contact with the body, the first coating layer consisting of TiAlCrX1-aNa (wherein “X” represents carbon or oxygen, and “a” represents a mixed crystal ratio satisfying 0.5≦a≦1); (b) a second coating layer disposed on the first coating layer, the second coating layer being provided by a mixture layer consisting of TiAlCrX1-bNb (wherein “b” represents a mixed crystal ratio satisfying 0.5≦b≦1) and TiAl(SiC)X1-cNc (wherein “c” represents a mixed crystal ratio satisfying 0.5≦c≦1), or provided by a multilayer including a first sublayer consisting of the TiAlCrX1-bNb and a second sublayer consisting of the TiAl(SiC)X1-cNc, which are alternately superposed on each other; and (c) a third coating layer disposed on the second coating layer and constituting an outermost layer of the hard multilayer coating, the third coating layer consisting of TiAl(SiC)X1-dNd (wherein “d” represents a mixed crystal ratio satisfying 0.5≦d≦1).
Abstract translation:要设置在主体上的硬质多层涂层,包括:(a)设置成与本体保持接触的第一涂层,由TiAlCrX 1-a N组成的第一涂层 (其中“X”表示碳或氧,“a”表示满足0.5 <= a <= 1的混合晶体比)。 (b)设置在第一涂层上的第二涂层,第二涂层由由TiAlCr x 1-b N b b组成的混合层提供(其中“b” “表示满足0.5 <= b <= 1)和TIAL(SIC)X 1-c N C c的混合晶体比(其中”c“表示混合晶体比 满足0.5≤c<= 1),或由包括由TiAlCr x 1-b N b B组成的第一子层的多层构成,以及由TiAl (SiC)X 1-c N C c C,其彼此交替重叠; 和(c)设置在第二涂层上并构成硬质多层涂层的最外层的第三涂层,由TiAl(SiC)X 1-n N d(其中“d”表示满足0.5 <= d <1的混合晶体比)。
Abstract:
An apparatus for printing image data prints image data on a lens array having a plurality of lenses arranged along a first direction. The apparatus includes: an image data generating section for generating image data; a head having a plurality of printing elements arranged along a second direction, the head driving each of the plurality of printing elements in accordance with the image data; a conveying section for conveying the lens array relative to the head; and a first pinion and a second pinion which are arranged along the second direction. The first pinion and the second pinion each have a rotation axis parallel to the second direction. The lens array has a first rack extending along the first direction and a second rack extending along the first direction. The first pinion engaging with the first rack of the lens array and the second pinion engaging with the second rack of the lens array.
Abstract:
A transfer member includes a dyeing layer transfer member, which has a lubricating heat-resistant layer on the reverse surface of a first base material and laminated layers of a parting layer and a dyeing layer on the obverse surface, an ink transfer member, having a lubricating heat-resistant layer on the reverse surface of a second base material and the laminated layers of an adhesive layer and an ink layer, an intermediate member having a functional layer on a third base material, and an image-receptor. A thermal transfer printing method includes the steps of thermally transferring the dyeing layer onto the functional layer by setting a thermal head in contact with the lubricating heat-resistant layer of the dyeing layer transfer member, thermally transferring dye of the ink layer onto the dyeing layer that was transferred onto the functional layer in response to picture signals by setting the thermal head in contact with the lubricating heat-resistant layer of the ink transfer member, and thermally transferring the dyeing layer recorded with the dye onto the main surface of the image-receptor. Thus, pictorial images of high quality are formed on the image-receptor, and thermal transfer printing can be carried out repeatedly and stably.