Abstract:
PROBLEM TO BE SOLVED: To provide an electronic component using a conductive ball 3 as a terminal wherein a substrate 1 and the conductive ball 3 are adhered appropriately. SOLUTION: An electronic component can be obtained by forming the circuit element 6 on the surface of a substrate 1 and adhering the conductive ball 3 to the electrode 2 of the circuit element 6. The manufacturing method thereof includes a first step to divide the large substrate 1 where the circuit element 6 is formed on its surface at the size of a unit electronic component, a second step to provide a conductive fitting member 4 at the electrode 2 of the circuit element 6 in the substrate 1 having the size of the unit electronic component, a third step to mount the conductive ball 3 to the placement position of the conductive fitting member 4, and a fourth step to adhere the conductive fitting member 4 to the conductive ball 3. The first, second, third, and fourth steps are conducted in order. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an ultrasonic probe which can be easily assembled regarding the ultrasonic probe used for an ultrasonic inspection device or the like. SOLUTION: The manufacturing method for the ultrasonic probe has a process in which a rod-like terminal 3 is inserted to the through-hole 2 of a backing block material 1 having a plurality of the through-holes 2 extended in the substantially same direction so that one tip of the terminal 3 is located on the substantially same plane as the outer face of the backing block material 1, the backing block material 1 and the rod-like terminal 3 are fixed, and a plate-like ultrasonic vibrator 6 is fixed at a position corresponding to the terminal 3 on the substantially same plane. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a ceramic resistor wherein strength of a ceramic resistance object 1 which sets talc to one of the sources can be maintained highly. SOLUTION: Mean particle diameter of talc is set to at most 11 μm, so that dimension of air gaps 2 installed in whole region of the ceramic resistance object 1 becomes at most 0.5 mm of the maximum diameter in the respective air gaps, and the air gaps 2 exist also in the surface layer region of the ceramic resistor 1. As a result, an effect is obtained wherein sampling inspection for confirming existence of large air gaps can be simplified. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To efficiently improve wettability between a material of an electrode 2 and a bonding member in a method for manufacturing a thermoelement module 10 comprising a process wherein a large thermoelement plate 6 is divided into individual thermoelements 3, and the electrode 2 containing Cu and arranged on a substrate 1 and an individual thermoelement 3 are bonded to each other by the bonding member. SOLUTION: Cu-plated layer 5 are formed on both surfaces of a large thermoelement plate 6, and then the thermoelement plate 6 is divided into individual thermoelements 3. The Cu-plated layer 5 of each individual thermoelement 3 is bonded to an electrode 2 and/or to a bonding member that does not substantially contain Sn. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To suppress dispersion in the shape of respective resistors 2 in a stress sensor that can grasp the direction and magnitude of the stress imparted to a post 6 firmly fixed to or united with the surface of an insulating substrate 3 from the changes of the resistance value of a plurality of resistance elements 8 caused by stimuli given to the elements 8 when the stress is imparted to the post 6. SOLUTION: The resistance elements 8 are respectively constituted of resistors (4) formed among circuit pattern electrodes 1 which are electrodes for resistance element arranged on the surface of the insulating substrate 3 in paired states and formed by the screen printing method. The electrodes 1 are connected to a substrate terminal section 5 provided at one end of the substrate 3 through conductors 9. The electrodes 1 and conductors 9 or printing accuracy adjusting members 7 have fixed heights from the surface of the substrate 3. In addition, the arrangement of the conductors 9 or the electrodes 1 near the resistance elements 8 or the printing accuracy adjusting members 7 is made equal or similar to that of the resistance elements 8. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an operating part for an electronic apparatus capable of reducing a manufacturing process load. SOLUTION: The operating part for the electronic apparatus has a stress sensor part capable of outputting a stress sensor characteristic value based upon applied stress, and a control part supplying stress data wherein the output is converted into a signal to the electronic apparatus, and a plurality of strain gages 1 detecting stress is arranged in the stress sensor part. The control part has a means for measuring respective strain gage characteristic values as stress data by carrying out time sharing. Or, it has a means for individually measuring respective strain gage characteristic values, a means for grasping a measurement value variation, and a means for determining the measurement value variation from a difference between a strain gage characteristic value in a state applied with no stress, and a strain gage characteristic value after applying stress, and supplying the measurement value variation as stress data to the electronic apparatus. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method for manufacturing an operation section of an electronic equipment causing no fluctuation in product characteristics, where, the operation section for the electronic equipment has a stress sensor section outputting a stress sensor characteristic value based on applied stress for output and a control section supplying stress data formed by converting the output into a signal to the electronic equipment. SOLUTION: The method for manufacturing the operation section for the electronic equipment has: a first process manufacturing the stress sensor section 1 and the control section; a second process providing the specified stress to the stress sensor section 1 in a state fixing the stress sensor section 1 and outputting the output value of the stress from the control section; and a third process implementing correction for the control section having an output value correction means correcting the output value to the specified value. The first, the second, and the third process are implemented in that order. COPYRIGHT: (C)2005,JPO&NCIPI