Abstract:
A steel sheet for a heat shrink band with a slight misregistering which has a yield stress of 24kg/mm or higher and a product of a magnetic permeability mu and a sheet thickness of 400 or larger in a magnetic field of 0.30e.
Abstract translation:用于制备有效防止颜色漂移的热收缩带的钢板由屈服应力为24kg / mm 2以上的钢板和磁导率μμ的磁导率μμ之间的400以上的乘积提供, 0.3 Oe和片材厚度。
Abstract:
Degradation of the characteristics of an electron emitting section due to adhesion or adsorption of a gas or a gaseous substance to the electron emitting section is prevented. A cold-cathode field electron emitting device comprises a cathode electrode (11) disposed on a support (10), a gate electrode (13) disposed above the cathode electrode (11) and having an opening (14A), and an electron emitting section disposed on the surface of the cathode electrode (11) on the bottom of the opening (14A). The electron emitting section is composed of a carbon-based material layer (23) formed from a hydrogen carbon gas and a fluorine-containing hydrogen carbide gas. The electron emitting section is fabricated by forming a fluorine carbide thin film on the carbon-based material layer or by terminating the surface of the carbon-based material with fluorine atoms.
Abstract:
A steel band 11 is heat shrunk around a cathode ray tube 1 to clamp the tube. The steel thickness t (mm) and magnetic permability Á (measured in an external magnetic field of 0.3 Oe) are such that t x Á > = 200. The steel may be prepared by hot and cold rolling a steel of composition C = 250 and a Yield Stress of > = 40kgf/mm.
Abstract:
Field emission cathode arranged to face an electron applied surface has an electron emission section formed from conductive, thin-plate-like fine particles consisting of a combination of carbons. A substance having a work function 2-3eV and selected from an alkaline earth metal, alkali metal, alkaline earth metal compound and alkali metal compound is bonded on the surfaces of the particles. Independent claims are given for: (a) an electron emission device having the above cathode arranged to face a fluorescent screen; and (b) a method of manufacturing an electron emission device having the above cathode. Preferred Features: The particles have mean diameter not more than 5 microns and mean aspect ratio (obtained by dividing a square root of an area by a thickness) not less than 5. The alkaline earth metal compound is preferably an alkaline earth metal nitride, and the alkali metal compound is preferably an alkali metal nitride.
Abstract:
Field emission cathode (K) has thin plate-like conductive fine carbon grains (30) with diameter no larger than 5 microns and aspect ratio no less than 5. Orientation of grains is such that they cross the electron application surface. On application of electric field, electrons are emitted from grain end faces. An independent claim is included for manufacturing the electron emission apparatus. Photoresist pattern is formed with holes on the formation surfaces of cathodes. The conductive grains are dispersed in a solvent to make a coating mixture which is coated onto the photoresist and dried. Photoresist is removed.
Abstract:
PROBLEM TO BE SOLVED: To provide an optical controller wherein resistance of an electrode is stable and which can be manufactured with satisfactory reliability, and to provide its manufacturing method. SOLUTION: In the optical controller 6 having a nonlinear electrooptical film 4 changing optical characteristics, especially the refractive index of incident light and emitting light whose optical characteristics are changed and counter electrodes 2 and 3 applying an electric field to the nonlinear electrooptical film 4 for changing the optical characteristics, a diffusion preventing film 5 is provided between the nonlinear electrooptical film 4 and the lower electrode 3 and diffusion of a component of the electrooptical film 4 to the lower electrode 3 when the film 4 is baked to increase resistance of the lower electrode 3 is prevented. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method capable of manufacturing electron emitting elements with high reliability without causing disorder like generation of leak current or exfoliation of a film. SOLUTION: The electron emitting element is manufactured through a first process forming a cathode electrode and an emitter layer 4 on a cathode substrate 1, a second process forming an insulation layer, a gate electrode, and gate holes 12 on a supporting substrate 5 different from the cathode substrate 1, and a third process sticking the supporting substrate 5 on the cathode substrate 1 in a state of positioning the gate holes 12 on the emitter layer 4. COPYRIGHT: (C)2006,JPO&NCIPI