Abstract: A method for manufacturing a circuit device, which is suitable for connecting a plurality of laminated wiring layers to each other through an insulating layer, is provided. In a method for manufacturing a hybrid integrated circuit device of the present invention, a first wring layer is formed by laminating a first conductive film on a first insulating layer, and patterning the first conductive film. In the first wiring layer, a first connection part which is protruded in a thickness direction is formed. Moreover, the first wiring layer including the first connection part is covered with a second insulating layer. The second insulating layer is formed of a first resin film and a second resin film. The second resin film contains fewer inorganic fillers than the first resin film. Thus, there is an advantage that a through-hole can be easily formed.

Abstract: A method for manufacturing a circuit device, which is suitable for connecting a plurality of laminated wiring layers to each other through an insulating layer, is provided. In a method for manufacturing a hybrid integrated circuit device of the present invention, a first wring layer is formed by laminating a first conductive film on a first insulating layer, and patterning the first conductive film. In the first wiring layer, a first connection part which is protruded in a thickness direction is formed. Moreover, the first wiring layer including the first connection part is covered with a second insulating layer. The second insulating layer is formed of a first resin film and a second resin film. The second resin film contains fewer inorganic fillers than the first resin film. Thus, there is an advantage that a through-hole can be easily formed.

Abstract: A method for manufacturing a circuit device, which is suitable for connecting a plurality of laminated wiring layers to each other through an insulating layer, is provided. In a method for manufacturing a hybrid integrated circuit device of the present invention, a first wring layer is formed by laminating a first conductive film on a first insulating layer, and patterning the first conductive film. In the first wiring layer, a first connection part which is protruded in a thickness direction is formed. Moreover, the first wiring layer including the first connection part is covered with a second insulating layer. The second insulating layer is formed of a first resin film and a second resin film. The second resin film contains fewer inorganic fillers than the first resin film. Thus, there is an advantage that a through-hole can be easily formed.

Abstract: In a manufacturing method of a hybrid integrated circuit device 10 according to the present invention, a first dummy pattern D1 is provided on a first wiring layer 18A. Furthermore, a second dummy pattern D2 is provided on a second wiring layer 18B. The first dummy pattern D1 and the second dummy pattern D2 are connected through a connection part 25 which penetrates an insulation layer 17. Hence, heat dissipation through a dummy pattern can be actively performed. In addition, even in the cases where a multi-layered wiring is formed, it is possible to provide a circuit device which can secure a heat dissipation property.

Abstract: An object of the present invention is to provide a method of manufacturing a hybrid integrated circuit device, in which multiple circuit boards are manufactured from one large metal board by dicing. The hybrid integrated circuit device of the present invention includes a circuit board with a surface provided with an insulating layer, and conductive patterns provided on the insulating layer. Circuit elements are electrically connected to the conductive patterns. Further, each side surface of the circuit board includes a first inclined portion extending obliquely downward from a peripheral portion of the surface of the circuit board, and a second inclined portion extending obliquely upward from a back surface of the circuit board and formed to be larger than the first inclined portion.

Abstract: An object of the present invention is to provide a method of manufacturing a hybrid integrated circuit device, in which multiple circuit boards are manufactured from one large metal board by dicing. The hybrid integrated circuit device of the present invention includes a circuit board with a surface provided with an insulating layer, and conductive patterns provided on the insulating layer. Circuit elements are electrically connected to the conductive patterns. Further, each side surface of the circuit board includes a first inclined portion extending obliquely downward from a peripheral portion of the surface of the circuit board, and a second inclined portion extending obliquely upward from a back surface of the circuit board and formed to be larger than the first inclined portion.

Abstract: In order to prevent short-circuiting when a chip component is brazed to pads of a conductive wiring layer, a hybrid semiconductor circuit includes the chip component with terminal electrodes formed at both ends, a first conductive wiring layer on which the pads are provided such that they correspond to the terminal electrodes, and an overcoat resin that covers the first conductive wiring layer excluding the pads. The terminal electrodes of the chip component are adhered to the pads by a conductive adhesive and an insulating adhesive is provided between the pads.

Abstract: To make thin a circuit device 10 in which are incorporated a plurality of types of circuit elements 12 that differ in thickness, first conductive patterns, onto which comparatively thin circuit elements 12A are mounted, are formed thickly, and second conductive patterns 11B, onto which comparatively thick second circuit elements 12B are mounted, are formed thinly. Also, fine wiring parts may be formed using the thinly formed second conductive patterns 12B. Thus even in the case where thick circuit elements are incorporated, by affixing such circuit elements onto the thinly formed second conductive patterns 11B, the total thickness can be made thin. Thinning of circuit device 10 as a whole can thus be accomplished.

Abstract: A method for manufacturing a circuit device, which is suitable for connecting a plurality of laminated wiring layers to each other through an insulating layer, is provided. In a method for manufacturing a hybrid integrated circuit device of the present invention, a first wring layer is formed by laminating a first conductive film on a first insulating layer, and patterning the first conductive film. In the first wiring layer, a first connection part which is protruded in a thickness direction is formed. Moreover, the first wiring layer including the first connection part is covered with a second insulating layer. The second insulating layer is formed of a first resin film and a second resin film. The second resin film contains fewer inorganic fillers than the first resin film. Thus, there is an advantage that a through-hole can be easily formed.

Abstract: A circuit device 10 comprises conductive patterns 11, separated by separation grooves 41, circuit elements 12, affixed onto conductive patterns 11, and an insulating resin 13, covering circuit elements 12 and conductive patterns 11 and filling separation grooves 41 while exposing the rear surfaces of conductive patterns 11. Constricted parts 19 are formed at side surfaces of separation grooves 41. At constricted parts 19, the width of separation grooves 41 is made narrower than at other locations. Thus by making insulating resin 13 adhere closely to constricted parts 19, the adhesion of insulating resin 13 with conductive patterns 11 is improved.

Abstract: An object of the present invention is to provide a method of manufacturing a hybrid integrated circuit device, in which multiple circuit boards are manufactured from one large metal board by dicing. The hybrid integrated circuit device of the present invention includes a circuit board with a surface provided with an insulating layer, and conductive patterns provided on the insulating layer. Circuit elements are electrically connected to the conductive patterns. Further, each side surface of the circuit board includes a first inclined portion extending obliquely downward from a peripheral portion of the surface of the circuit board, and a second inclined portion extending obliquely upward from a back surface of the circuit board and formed to be larger than the first inclined portion.

Abstract: In order to prevent, when a chip component is brazed to pads of a conductive wiring layer, short-circuiting by a fused brazing material from short-circuiting between the pads, a hybrid semiconductor circuit comprises a chip component 43 with terminal electrodes 46 formed at both ends thereof, a first conductive wiring layer 37 on which a plurality of the pads 38 are provided to correspond to the terminal electrodes 46, and an overcoat resin 39 for covering the first conductive wiring layer 37 excluding the pads 38, and the terminal electrodes 46 of the chip component 43 is adhered to the pads 38 by a conductive adhesive 57, and an insulating adhesive 58 is provided between the pads 38.

Abstract: A circuit device 10 comprises conductive patterns 11, separated by separation grooves 41, circuit elements 12, affixed onto conductive patterns 11, and an insulating resin 13, covering circuit elements 12 and conductive patterns 11 and filling separation grooves 41 while exposing the rear surfaces of conductive patterns 11. Constricted parts 19 are formed at side surfaces of separation grooves 41. At constricted parts 19, the width of separation grooves 41 is made narrower than at other locations. Thus by making insulating resin 13 adhere closely to constricted parts 19, the adhesion of insulating resin 13 with conductive patterns 11 is improved.

Abstract: To make thin a circuit device 10 in which are incorporated a plurality of types of circuit elements 12 that differ in thickness, first conductive patterns, onto which comparatively thin circuit elements 12A are mounted, are formed thickly, and second conductive patterns 11B, onto which comparatively thick second circuit elements 12B are mounted, are formed thinly. Also, fine wiring parts may be formed using the thinly formed second conductive patterns 12B. Thus even in the case where thick circuit elements are incorporated, by affixing such circuit elements onto the thinly formed second conductive patterns 11B, the total thickness can be made thin. Thinning of circuit device 10 as a whole can thus be accomplished.