Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor package structure having a reinforced lead structure. SOLUTION: This semiconductor package structure 100 includes: a carrier 101 having a plurality of leads, wherein each of the leads is composed of an inner lead 102 and an outer lead 104; a chip 200 arranged on the bottom surfaces of the inner leads; an electrical connecting structure 300; and a molding component 400. In the inner lead, a stair-like step part is bent outward from a horizontal part of the upper surface of the chip. The outer lead is extended outwardly horizontally from the inner lead, and thereby a height difference is formed between the outer lead and the chip. The height difference prevents the particles having intruded from contacting the lead and the chip at the same time in a packaging process to interfere with electric conduction of an element in the chip, and improves the electrical reliability of the chip after packaging. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a heat radiation type multiple hole semiconductor package for preventing a built-in heat sink from being separated by reinforcing heat radiation properties and reducing the warpage of a substrate. SOLUTION: The heat radiation type multiple hole semiconductor package includes: the substrate 210; a chip 220; the built-in type heat sink 230; and a sealed body 240. The substrate 210 includes: an upper surface 211, a lower surface 212, and a plurality of positioning holes 213; the chip 220 is installed on the upper surface 211; and the built-in type heat sink 230 is stuck to the chip 220. The built-in type heat sink 230 includes a plurality of support leads 231 and a heat radiation surface 232, and the group of support leads 231 is inserted into the group of positioning holes 213. Since the group of positioning holes 213 is not fully filled into the group of support leads 231, a plurality of mold flow passages 241 are formed. The sealed body 240 is formed on the upper surface 211 to seal the chip 220 and the built-in type heat sink 230. By exposing the heat radiation surface 232 and filling the mold flow passage 241, the group of support leads 231 is covered. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device provided with a substrate identification code allowing quality control and an abnormality tracing without changing a using appearance. SOLUTION: This semiconductor device is provided with a substrate 110, a chip 120 and the substrate identification code 130. The substrate 110 has an upper surface 111 and a lower surface 112, has a wiring layer 113 and a solder mask layer 114 formed on the lower surface 112 and further has a non-wiring region 115, and the solder mask layer 114 almost covers the wiring layer 113 and the non-wiring region 115. The chip 120 is installed on the upper surface 111 of the substrate 110, and the substrate identification code 130 is baked on the lower surface 112 of the substrate 110 by using a laser engraving method. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a COL semiconductor package to avoid electrical short caused by wire bonding and to facilitate the layouts of the leads at a lower surface of a chip with smaller die pads or without die pad. SOLUTION: The COL semiconductor package primarily includes: a plurality of leadframe's leads 210; a chip 220; a plurality of bonding wires 230; an insulation tape 240; and an encapsulant 250. Each lead has a plurality of carrying bars 211, a plurality of bonding finger 212, and a plurality of connecting lines 213 for connecting the carrying bar with the bonding finger. The chip has a main surface 221 and a back surface 222, wherein a plurality of bonding pads 223 are disposed on the main surface and the back surface is attached to the carrying bars 210. The bonding pads 223 are connected to the bonding fingers 212 by the bonding wires 230, wherein at least one of the plurality of bonding wires 230 overpasses one of the connecting lines 213A without electrical connection. The insulation tape 240 is attached to the connecting lines 213. The encapsulant 250 encapsulates the chip 220, the bonding wires 230, the insulation tape 240, the bonding fingers 212, and the connecting lines 213. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor package restraining warpage in the side of a substrate, preventing fracture in the substrate, and avoiding damage to the surface of a chip and the side, and to provide a substrate used for the semiconductor package. SOLUTION: The substrate 210 of the semiconductor package 200 includes a plurality of signal fingers 211, a dummy metal pattern 212, and at least one peripheral recessed groove 213 passing through the substrate 210. The dummy metal pattern 212 is extended to a position 213 of the peripheral recessed groove, and is electrically insulated from the signal finger 211. The chip 220 is installed on the substrate 210 and includes a plurality of bonding pads 221, 222, and electrically connects the bonding pad of the chip to the signal finger 211 of the substrate via an electric connection element 230. A sealing body 240 seals the electric connection element 230 and is filled into the peripheral recessed groove 213. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor chip device with a silicon through-hole that has superior resistance to stress to achieve a high-density electric connection when a chip is stacked or mounted, and hardly causes a short circuit, and to provide a manufacturing method thereof. SOLUTION: The semiconductor chip device 200 includes: a chip 210 which has an active surface 211, a back surface 212, and a bonding pad 213 formed on the active surface 211; a rewiring layer 220 formed on the active surface 211 and having a rearrangement pad 221 to be connected to the bonding pad 213; a passivation layer 230 formed on the active surface 211 to cover the rewiring layer 220 and expose the rearrangement pad 221; the through-hole 240 formed in the rearrangement pad 221 and penetrating the chip 210; an insulating layer 250 formed in the through-hole 240; and flexible metal wiring 260 having a first end 261 and a second end 262, the first end 261 being bonded to the rearrangement pad 221 and the second end 262 passing through the through-hole 240 to project to the back surface 212. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a stackable semiconductor package which enhances durability of a product and suppresses crevice spreading. SOLUTION: The semiconductor package has a chip carrier 210, a chip 220, and a plurality of lower bump sets 230. The chip carrier 210 has an upper surface 211 on which a plurality of transfer pads 213 are installed and a lower surface 212 where a plurality of circumscribed pads 214 are installed. The chip 220 is installed at or electrically connected to the chip carrier 210. The lower bump sets 230 are made to correspond to or installed at a circumscribed pad group 214. The lower bump sets 230 coupled to the respective circumscribed pads 214 are composed of a plurality of conductor columns 231 and 232, and a solder material filling gap is formed between adjacent conductor columns 231 and 232 of the same lower bump set 230. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
A UNIVERSAL INSERT FOR CARRYING A BGA PACKAGE UNDER TEST PRIMARILY COMPRISES A MESHED BASE, AT LEAST A LATCH, AND A PLURALITY OF LIFT PINS. THE MESHED BASE HAS A 5 COMPONENT CAVITY, A MOUNTING SURFACE AND A PLURALITY OF ALIGNING BALL HOLES IN THE COMPONENT CAVITY WHERE THE ALIGNING BALL HOLES ARE ARRANGED IN AN ARRAY WITH EQUAL PITCH. THE LATCH IS DISPOSED INSIDE THE MESHED BASE TO FIRMLY HOLD BGA PACKAGE UNDER TEST. THE LIFT PINS ARE FLEXIBLY EXTENDED FROM THE PERIPHERIES OF THE MOUNTING SURFACE OF THE MESHED BASE. DURING PROBE TESTING, THE COMPONENT CAVITY 10 ACCOMMODATES THE BGA PACKAGE INSIDE, AT LEAST SOME OF THE ALIGNING BALL HOLES ARE ONE-ON-ONE ALIGNED TO A PLURALITY OF SOLDER BALLS OF THE BGA PACKAGE SO THAT THE SOLDER BALLS ARE EXPOSED FROM THE CORRESPONDING ALIGNING BALL HOLES ON THE MOUNTING SURFACE. THEREFORE, THE UNIVERSAL INSERT IS NOT LIMITED BY THE SUBSTRATE DIMENSION OF A BGA PACKAGE, NOR BY THE NUMBER OF SOLDER BALLS, NOR BY THE LAYOUT OF SOLDER BALLS AND CAN 15 HOLD VARIOUS BGA PACKAGES WITH SAME BALL PITCH BUT WITH DIFFERENT SPECIFICATIONS OF BGA PACKAGE.
Abstract:
UNIVERSAL INSERT TOOL FOR FIXING A BGA PACKAGE UNDER TEST A universal insert for carrying a BGA package under test primarily comprises a meshed base, at least a latch, and a plurality of lift pins. The meshed base has a component cavity, a mounting surface and a plurality of aligning ball holes in the component cavity where the aligning ball holes are arranged in an array with equal pitch. The latch is disposed inside the meshed base to firmly hold BGA package under test. The lift pins are flexibly extended from the peripheries of the mounting surface of the meshed base. During probe testing, the component cavity accommodates the BGA package inside, at least some of the aligning ball holes are one-on-one aligned to a plurality of solder balls of the BGA package so that the solder balls are exposed from the corresponding aligning ball holes on the mounting surface. Therefore, the universal insert is not limited by the substrate dimension of a BGA package, nor by the number of solder balls, nor by the layout of solder balls and can hold various BGA packages with same ball pitch but with different specifications of BGA package.
Abstract:
A package structure including a redistributed circuit structure, a plurality of chips, a second encapsulant, a plurality of supporting members, a first encapsulant, and a plurality of connection terminals are provided. The redistributed circuit structure has a first surface and a second surface opposite thereto. The chips are disposed on the second surface of the redistributed circuit structure. The second encapsulant is disposed on the second surface of the redistributed circuit structure and covers the chips. The supporting members are disposed on the first surface of the redistributed circuit structure. The first encapsulant is disposed on the first surface of the redistributed circuit structure and covers the supporting members. The connection terminals are connected to the supporting members.