Abstract:
Resin encapsulated chip-scale package in which contact pads (13) of a chip (12) are connected to respective conductive traces (11A-11D) that are formed on an insulating layer (AF) on the active face of the chip. Heat removal from the device is improved by providing a conductive pad (11D) on the insulating layer.
Abstract:
A semiconductor chip (16) is moulded in insulating resin (13). A heat radiation electrode (15) is exposed at the back surface of the insulating resin (13), and a metal plate (23) is affixed to this heat radiation electrode (15). The back surface of this metal plate (23) and the back surface of a first supporting member (11) are substantially within a same plane, so that it is readily affixed to a second supporting member (24). Accordingly, the heat generated by the semiconductor chip can be efficiently dissipated via the heat radiation electrode (15), the metal plate (23) and the second supporting member (24).
Abstract:
A heat radiation electrode (15) is exposed from the back surface of an insulating resin (13), and a metal plate (23) is affixed to the heat radiation electrode (15). The back surface of this metal plate (23) and the back surface of a first supporting member (11) are substantially within a same plane, so that it is readily affixed to a second supporting member (24). Accordingly, the heat generated by the semiconductor chip can be efficiently dissipated via the heat radiation electrode (15), the metal plate (23) and the second supporting member (24).
Abstract:
A light irradiating device (68) having the good radiation characteristic comprises a plurality of conductive paths (51) that are electrically separated, a photo semiconductor chips (65) fixed onto desired conductive path (51), and a resin (67) for covering the photo semiconductor chips (65) to support the conductive paths (51) integrally.
Abstract:
A heat radiation electrode (15) is exposed from the back surface of an insulating resin (13), and a metal plate (23) is affixed to the heat radiation electrode (15). The back surface of this metal plate (23) and the back surface of a first supporting member (11) are substantially within a same plane, so that it is readily affixed to a second supporting member (24). Accordingly, the heat generated by the semiconductor chip can be efficiently dissipated via the heat radiation electrode (15), the metal plate (23) and the second supporting member (24).
Abstract:
After a trench 54 is formed in a conductive foil 60, a circuit element is mounted in a flip chip method. Then, an insulating resin 50 is covered on the conductive foil 60 as a support substrate. After reversion, the conductive foil 60 is polished over the insulating resin 50 as a support substrate at this time to separate the conductive paths. Accordingly, a circuit device having the conductive paths 51 and the circuit elements 52 supported by the insulating resin 50 can be produced without employing the support substrate.
Abstract:
After a trench 54 is formed in a first conductive foil 60A, the circuit elements are mounted, and the insulating resin is applied on the laminated conductive foil 60 as the support substrate. After being inverted, a second conductive foil 60B is etched on the insulating resin 50 as the support substrate for separation into the conductive paths. Accordingly, it is possible to fabricate the circuit device in which the conductive paths 51 and the circuit elements 52 are supported by the insulating resin 50, without the use of the support substrate. And the interconnects L1 to L3 for the circuit are formed, and can be prevented from slipping because of the curved structure and a visor 58.
Abstract:
A semiconductor device is provided wherein conductive paths 40, formed of crystal that grows better along the X-Y axis than along the Z axis, are embedded in an insulating resin 44, and the back surface of the conductive path 40 is exposed through the insulating resin 44 and sealed. With this arrangement, fractures of the conductive paths 40 embedded in the insulating resin 44 are suppressed.
Abstract:
In the present invention there is formed a sheet-like board member 50 having conductive coating films, such as first pads 55 and die pads 59, formed thereon or a sheet-like board member 50 which has been half-etched by using conductive coating films such as first pads 55 and die pads 59. A hybrid IC can be manufactured by means of utilization of post-processing processes of a semiconductor manufacturer. Further, a hybrid IC can be manufactured without adoption of a support board, and hence there can be manufactured a hybrid IC which is of lower profile and has superior heat dissipation characteristics.