Abstract:
PROBLEM TO BE SOLVED: To provide a structure having a high-density embedded same plane circuit feature. SOLUTION: This structure is equipped with a support foil, an electrical conductive layer formed on the one main surface of the support foil, a dielectric layer which is located on the electrical conductive layer and provided with a circuit feature, and a metal conductive circuit located in the circuit feature. The metal conductive circuit and the dielectric layer are substantially located on the same plane, and the metal conductive circuit is surrounded by the dielectric layer. The embedded same planar circuit feature is formed through a process of providing a support foil with an electrical conductive layer and of coating the electrical conductive layer with a dielectric material. A circuit feature is formed on a dielectric material, and conductive metal plating is carried out, so as to fill up the circuit feature.
Abstract:
A chip carrier (10) for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer (110), having plated photo-vias (120), to electrically interconnect two (or more) layers (80, 130) of fan-out circuitry. This chip carrier further employs a single-tiered cavity (140) to contain a chip (150), rather than a multi-tiered cavity,as is conventional. Moreover, this chip carrier includes thermal via holes (170) and/or a metallic layer (230), directly beneath the chip (150), to enhance heat dissipation.
Abstract:
The invented chip carrier (10) for a chip with wire connections employs rather organic dielectric materials than the ceramic ones, which are commonly used. The chip carrier also employs at least one organic dielectric layer (110) that may be displayed by light and having plated light routes (120) for electric interconnection of two (or more) layers of output branching circuits (120). This chip carrier (10) further contains rather a simple cavity (140 for placing therein the chip (150) than a complex cavity that is commonly used. In addition, this chip carrier (10) contains through holes (170) and/or a metallic layer (230) situated immediately beneath the chip (150) and serving for enhancing thermal dissipation.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multi-tiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and/or a metallic layer, directly beneath the chip, to enhance heat dissipation.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multi-tiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and/or a metallic layer, directly beneath the chip, to enhance heat dissipation.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multi-tiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and/or a metallic layer, directly beneath the chip, to enhance heat dissipation.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multitiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and / or a metallic layer, directly beneath the chip, to enhance heat dissipation.
Abstract:
A CHIP CARRIER (10) FOR WIRE BOND-TYPE CHIPS IS DISLCOSED. THIS CHIP CARRIER EMPLOYS ORGANIC DIELECTRIC MATERIALS, RATHER THAN CERAMIC MATERIALS, AS IS CONVENTIONAL. THIS CHIP CARRIER ALSO EMPLOYES AT LEAST ONE ORGANIC, PHOTOIMAGEABLE DIELECTRIC LAYER (110), HAVING PLATED PHOTO-VIAS (120), TO ELECTRICALLY INTERCONNECT TWO (OR MORE) LAYERS (80, 130) OF FAN-OUT CIRCUITRY. THIS CHIP CARRIER FURTHER EMPLOYS A SINGLE-TIERED CAVITY (140) TO CONTAIN A CHIP (150), RATHER THAN A MUTLI-TIERED CAVITY, AS IS CONVENTIONAL. MOREOVER, THIS CHIP CARRIER INCLUDES THERMAL VIA HOLES (170) AND/OR A METALLIC LAYER (230), DIRECTLY BENEATH THE CHIP (150), TO ENHANCE HEAT DISSIPATION.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multi-tiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and/or a metallic layer, directly beneath the chip, to enhance heat dissipation.
Abstract:
A chip carrier for wire bond-type chips is disclosed. This chip carrier employs organic dielectric materials, rather than ceramic materials, as is conventional. This chip carrier also employs at least one organic, photoimageable dielectric layer, having plated photo-vias, to electrically interconnect two (or more) layers of fan-out circuitry. This chip carrier further employs a single-tiered cavity to contain a chip, rather than a multi-tiered cavity, as is conventional. Moreover, this chip carrier includes thermal via holes and/or a metallic layer, directly beneath the chip, to enhance heat dissipation.