Abstract:
PROBLEM TO BE SOLVED: To obtain an electronic component having a conductive projection 9 with a structure capable of withstanding an external force after mounting as a terminal. SOLUTION: In an electronic component having a plurality of circuit elements formed on the surface of a rectangular substrate 1 and an external terminal of the circuit element comprising a conductive projection 9, the circuit element is coated with an overcoat film 7, while leaving a part of an electrode 2 constituting the circuit element as lands 4a and 4b. A dimension in the long-edge direction of the substrate 1 of the lands 4a and 4b is larger than a dimension in the short-edge direction of the substrate 1. The conductive projection 9 is fixed to the lands 4a and 4b by a fixing member in an amount roughly proportional to area values of the lands 4a and 4b. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a tray 1 for burning a glass 6-containing article to be burned, which can be sufficiently suppressed against destruction. SOLUTION: The tray 1 has cuts 4 extending inward from the outer end of it, and is made of a material able to absorb a liquid-state glass 6. It is preferable that the material able to absorb the liquid-state glass 6 is a porous ceramic, the tray is a bottomed container having sidewalls 3, and the surface (bottom surface 2) of the tray 1 in contact with an article to be burned 5 has unevenness such as a corrugation. The tray 1 can be used for manufacturing a glass-containing ceramic resistor, for instance. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To suppress a variation in each resistor 2 in a stress sensor in which a post 6 is stuck or unified on the surface of an insulation substrate 3; and the direction and the magnitude of the stress can be obtained from a resistance value change of a resistance element 8, due to a stimulation to a plurality of the resistance elements 8 resulting from the stress applied to the post 6. SOLUTION: The resistance element 8 consists of the resistor 2 formed by a screen printing between electrodes for the resistance elements used as a counterpart arranged on the surface of the insulation substrate 3. The electrode for the resistance element is connected by a conductor 9 into a substrate terminal 5 allotted to the end of the insulation substrate 3. The electrode for the resistance element, the conductor 9 and a printing accuracy adjusting material 7 have a predetermined height from the surface of the insulation substrate 3. For all of the plurality of resistance elements 8, the conductor, the printing accuracy adjusting material 7 and the electrode for the resistance element are arranged around over three directions of the single resistor 2, and the resister 2 is a resistor made of a carbon resin system. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a manufacturing method of a resistance element wherein the generation of its crack can be prevented. SOLUTION: The manufacturing method is performed through a resistance-value adjusting process wherein a desired resistance value is obtained by heating a resistor 1 while scanning the surface of the resistor 1 without forming any groove in the resistor 1. An example of the foregoing heating means is a laser projection. Also, the manufacturing method is performed through the resistance-value adjusting process wherein the desired resistance value is obtained by so adjusting a laser irradiating and heating region 4 as to include in it the whole of the region of the resistor 1 or the most thereof, and by adjusting a laser irradiating time/a laser power value. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To maintain highly the joint position accuracy of the piece 2 of a resistor and the piece 1 of an electrode at the time of manufacturing the resistor where a pair of electrode pieces 1 are constitutively jointed at the end opposite to the piece 2 of the resistor. SOLUTION: After jointing the single piece 1 of an electrode and the piece 2 of a resistor, the manufacturing method comprises a process for cutting or removing the portion of the piece 1 of the electrode opposite to the side of the piece 2 of the resistor other than the end opposite to the piece 2 of the resistor. It is preferred to have a gap between the side of the piece 2 of the resistor other than the end opposite to the piece 2 of the resistor and the opposite side of the piece 1 of the electrode. Further, it is preferred that formation of the gap may be realized in an electrode piece shape. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To suppress a variation in each resistor 2 in a stress sensor in which a post 6 is stuck or unified on the surface of an insulation substrate 3; and the direction and the magnitude of the stress can be obtained from a resistance value change of a resistance element 8, due to a stimulation to a plurality of the resistance elements 8 resulting from the stress applied to the post 6. SOLUTION: The resistance element 8 consists of the resistor 2 formed by a screen printing between electrodes for the resistance elements used as a counterpart arranged on the surface of the insulation substrate 3. The electrode for the resistance element is connected by a conductor 9 into a substrate terminal 5 allotted to the end of the insulation substrate 3. The electrode for the resistance element, the conductor 9 and a printing accuracy adjusting material 7 have a predetermined height from the surface of the insulation substrate 3. For all of the plurality of resistance elements 8, the conductor, the printing accuracy adjusting material 7 and the electrode for the resistance element are arranged around over three directions of the single resistor 2, and the resister 2 is a resistor made of a carbon resin system. COPYRIGHT: (C)2005,JPO&NCIPI