Abstract:
PURPOSE:To eliminate restriction of resolution and to reproduce with high resolution by forming a reproducing layer from ferrimagnetic material having compensation temp. in the vicinity of the Curie temp. of a reproducing assistant layer. CONSTITUTION:The reproducing layer of the magnetic recording medium is formed from ferrimagnetic material having Tcnp compensation temp. in the vicinity of Tcs Curie temp. of the reproducing assistant layer 31. Each of the 1st temp. region I higher than vicinity of Tcs Curie temp. of the reproducing assistant layer 31, that is, Tcnp compensation temp. of the reproducing layer 11, the 2nd temp. region II which is lower than the 1st temp. region I and becomes to a specific temp. Ts at which Hcl coercive force of the reproducing layer 11 lowers and a replaceable force between the reproducing layer 11 and the recording layer 13 is higher than Hcl coercive force, and the 3rd temp. region III, lower than the 2nd temp. region II, behaves differently under the beam spot 5 of read-out laser beam. Consequently, only in the narrow region of the 2nd temp. region II, the latent image recording pit of the recording layer 13 is transfered to the reproducing layer to read.
Abstract:
PURPOSE:To improve S/N(C/N) in reproducing a recording pit. CONSTITUTION:At least a reproducing layer 11 and a recording layer 13 is provided, the recording pit is formed on the recording layer 13 by magnetic modulation and a well heat conductive material layer 13 by magnetic modulation and a well heat conductive material layer 22 is provided on a magneto-optical recording medium 10 adopting a reproducing system which reads the recording while changing magnetization state of the reproducing layer and radius of curvature of the recording pit is reduced.
Abstract:
PURPOSE:To stabilize reproducing property, to surely carry out reproducing in high resolution and to prevent deterioration of C/N for a megneto-optical recording medium. CONSTITUTION:In a magneto-optical recording medium having at least a reproducing layer 11 and a recording layer 13 which are magnetically combined each other and recording out a recording signal while changing magnetization of the recording layer 11, a film thcikness of the reproducing layer 11 is specified as >=150Angstrom and
Abstract:
PROBLEM TO BE SOLVED: To enable measuring the concentration of molecules to be measured in an excellent S/N ratio.SOLUTION: First laser light with frequency of ωand second laser light with frequency of ωthat satisfy a relationship of ω=ω-ω(ω>ω) to frequency of ωin a molecular vibration mode of molecules to be measured are made to converge by a condenser lens into a blood vessel of a living body in which the molecules to be measured are included. A light receiving part receives stimulated Raman scattering light that has been discharged from the molecules to be measured by irradiating the molecules to be measured with the first laser light and the second laser light and subject to Stokes shift, and a concentration calculation part calculates the concentration of the molecules to be measured from the spectrum intensity of the received stimulated Raman scattering light. This technique is applicable to, for example, a molecular concentration measurement device.
Abstract:
PROBLEM TO BE SOLVED: To facilitate viewing a displayed object by moving the displayed object even when a real object is placed on a display.SOLUTION: The information processing device includes: a detection part for detecting a real object placed on a display for displaying a screen based on display signals; a setting part for setting a non-display region in the screen of the display, on the basis of a position of the detected real object; and a moving part which moves a display position of the displayed object having been displayed on the screen of the display to a display region of the screen different from the non-display region and thereby updates the display signals. The present disclosure can be applied to, for example, a table top computer.
Abstract:
PROBLEM TO BE SOLVED: To provide a light emitting device into which sufficient carriers can be introduced and which can secure the durability, and also to provide its manufacturing method. SOLUTION: An n-type and a p-type inorganic semiconductor layer having a band structure are used as transportation layers 12 and 14 for transporting the carriers introduced from an n-electrode 11 and a p-electrode 15 into an active layer 13 consisting of quantum dots, and so sufficient carriers can be introduced and consumption power can be reduced. The inorganic semiconductor layers have a longer life and a superior durability compared with organic matters. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an optical recording medium, a recording and reproducing apparatus and the like capable of realizing high density recording without generating a problem of aberration caused by melting of the optical recording medium and a problem that a satisfactory reproducing signal can not be obtained by a photodiode. SOLUTION: The optical recording medium 10 is constituted of a sapphire substrate 11, a non-doped GaN layer 12 and a GaN:Mg layer 13. In the recording and reproducing apparatus 30, the optical recording medium 10 is irradiated with a laser beam from a Nd:YAG laser 33 via a dichroic mirror 34 and a lens 32. When reproduction is performed, reflection light is detected by a photodetector 35 via the lens 32 and the dichroic mirror 34. The optical recording medium 10 generates photoluminescent change by receiving light having prescribed power and intensity of the reflection light is also changed according to the photoluminescent change. The photodetector 35 determines the change of the reflection light and performs reproduction of the optical recording medium 10. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a biosubstance fluorescence-labeling agent affecting less an environment and manufactured easily, and a biosubstance fluorescence-labeling method, and a bioassay method using the biosubstance fluorescence-labeling agent and a device therefor. SOLUTION: A quantum dot constituting the biosubstance fluorescence-labeling agent is constituted of a core comprising a silicon crystal having a crystal diameter of four times or less of an exciton Bohr radius, and a shell layer comprising silicon oxide for coating the core. A solution containing a sample DNA fluorescence-labeled with the quantum dot is dropped on a bioassay substrate immobilized preliminarily with a variety of probe DNAs to occur a hybridization reaction. The sample DNA is biochemically analyzed thereby. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To perform hybridization at high speed. SOLUTION: As for a substrate 1 for bioassay, the main surface similar to an optical disk such as a CD has an annular flat shape. The substrate 1 is driven rotatively on a center hole 2. The substrate 1 has the surface 1a on which a plurality of wells 8 are formed, which are fields for a hybridization reaction between a probe DNA and a sample DNA. A transparent electrode film 4 is formed on the lower layer of the wells 8 on the substrate 1. At the hybridization time, an external electrode 18 is brought close from the upper surface 1a side of the substrate 1, and an alternating-current power is applied between the transparent electrode film 4 and the external electrode 18, to thereby apply an alternating-current field in the vertical direction to the substrate 1. An application method of the field to the transparent electrode film 4 is performed from a chucking mechanism through the center hole. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To perform hybridization at a high speed. SOLUTION: The substrate 1 for hybridization is constituted so that the main surface, which is the same as that of an optical disk such as CD or the like, thereof shows a circular flat plate-like shape. This substrate 1 is rotationally driven, centered about a center hole 2 and a plurality of wells 8, each of which becomes a field of hybridation reaction of probe DNA and sample DNA, are formed on a surface 1a of the substrate 1. The surface of the substrate 1 is coated, for example, with a polymer containing a π-conjugated unit, such as polyvinyl carbazole, polyphenazarsine. By this method, the probe DNA can be fixed to the inside of the well, in a stretched state with the probe DNA streched. COPYRIGHT: (C)2005,JPO&NCIPI