Abstract: A tape circuit substrate comprises a base film made of an insulating material, and a wiring pattern layer which is formed on the base film and has first leads that are connected to electrode pads arranged near a periphery of a semiconductor chip and second leads that are connected to electrode pads arranged near the center of the semiconductor chip. The semiconductor chip package comprises a semiconductor chip electrically bonded to the tape circuit substrate through chip bumps. In such a case, each of the leads is configured such that a tip end thereof to be bonded to the electrode pad has a width larger than that of a body portion thereof. According to the present invention, since the interval between the lead and the electrode pad can be made even narrower, a fine pitch semiconductor device can be realized.

Abstract: Provided are a flexible film package module and a method of manufacturing the same that can be adapted for manufacture at lower cost and/or to adapt the characteristics of the flexible film package module for specific applications. The lower-cost flexible film package module includes a tape film that combines both a first insulating substrate, typically formed from a higher-cost polyimide material, and a second insulating substrate, typically formed from an insulating material or materials that are less expensive and/or provide modified performance when compared with the first insulating material. Both the first and second substrates will include complementary circuit patterns that will be electrically and physically connected to allow the composite substrate to function as a unitary substrate. The first and second substrates will also include connection regions that may be adapted for connection to printed circuit boards and/or electronic devices such as liquid crystal displays.

Abstract: A semiconductor chip has connection lines that are routed to the side surface from bump pads on the back surface of the chip. Such semiconductor chips are stacked on a circuit board to form a chip stack package while bumps are interposed between the bump pads of the lower chip and bonding pads of the upper chip. Further, an interconnecting member such as a conductive adhesive or a wiring board is applied to the side surfaces of the stacked chips such that the connection lines are connected to the interconnecting member. Therefore, the centrally disposed bonding pads of the chips are electrically connected to the circuit board through the bumps, the bump pad, the connection lines and the interconnecting member. The semiconductor chip may have heat dissipation part formed on the back surface. Methods of manufacturing the semiconductor chip and the chip stack package are also provided.

Abstract: Provided are a method of forming a bump whose upper surface is substantially flat and whose area can be enlarged in a uniform pad pitch to simplify mounting a liquid crystal display drive IC (LDI) and a semiconductor chip and a mount structure using the method to minimize a pad area inside the chip. Thus, the pad area on an edge of a conventional chip is minimized and the bump is formed in a substantially flat location inside the chip and an electrical connection between the pad and the bump is performed by a redistribution metal line.

Abstract: A solid-state imaging method and apparatus includes a semiconductor chip for image processing, positioned between a solid-state imaging lens and a solid-state imaging semiconductor chip in a vertical direction so that at least a portion of the semiconductor chip for image processing overlaps the solid-state imaging semiconductor chip in a horizontal direction, such that the semiconductor chip does not intercept light irradiated through a solid-state imaging lens to the solid-state imaging semiconductor chip. The solid-state imaging semiconductor chip may be electrically connected to a lower side of the semiconductor chip for image processing and converts the light passing through the solid-state imaging lens into an image signal.

Abstract: PURPOSE: A semiconductor package and a method for fabricating the same are provided to shorten a length of a signal line for connecting a semiconductor chip with a substrate and simplify a structure of the semiconductor package.

Abstract: A thermal-stress-absorbing interface structure is provided between a semiconductor integrated circuit chip and a surface-mount structure. The interface structure comprises an elongated conductive-bump pad having a first length-wise end and a second length-wise end, and a side. The pad has an interconnection line extending from the side thereof intermediate the first and the second ends. The interconnection line is electrically connected to the chip. The interface structure further includes a first polymer layer having an exposed surface, and a second polymer layer, each having a different modulus of elasticity, disposed below the pad. The second polymer layer extends over substantially the entire exposed surface of the first polymer layer to absorb a thermal stress during thermal cycling.

Abstract: A chip package including at least one interconnection lead, composed of at least one first metal, at least one bump, a surface of which is plated with at least one second metal with a melting point lower than the first metal, and a eutectic alloy, composed of the at least one first metal and the at least one second metal, that at least electrically connects the interconnection lead and the bump and a method of manufacturing a chip package.

Abstract: A stacked chip package includes a substrate having an upper surface and a lower surface, a first semiconductor chip having an upper surface and a lower surface, wherein the lower surface of the first semiconductor chip is attached to the upper surface of the substrate and the upper surface of the first semiconductor chip includes a plurality of first electrode pads, and a second semiconductor chip having an upper surface and a lower surface. The lower surface of the second semiconductor chip is attached to the upper surface of the first semiconductor chip, and the lower surface of the second semiconductor chip includes trenches that correspond to the locations of the first electrode pads on the upper surface of the first semiconductor chip.

Abstract: A bump of a semiconductor chip comprises a plurality of bond pads formed on a semiconductor chip, a conductive bump formed on the bond pads; and a sidewall insulating layer formed on sidewalls of the conductive bump. It is possible for the semiconductor chip to prevent electrical shorts and improve productivity even though a pitch of bond pad is decreased.

Abstract: Devices that have bonding pads, and methods for fabricating the same. The bonding pads have two conductive layers, and an intermediate layer between them. The intermediate layer has a hybrid configuration of a relatively large conductive plate section, and a mixed plugs/mesh section. The plugs/mesh section has conductive portions interspersed with non-conducting portions, with features that are relatively small in size. The hybrid configuration achieves a proper balance between the plate section for the main electrical contact, and the plugs/mesh section for support and additional current density.

Abstract: A semiconductor device for reinforcing a substructure of a bond pad and a method for fabricating the same are provided. According to an embodiment, a semiconductor device for reinforcing a substructure of a bond pad comprises a semiconductor substrate and a substructure formed on the semiconductor substrate. The semiconductor device further includes an interlevel dielectric layer formed on the substructure. The interlevel dielectric layer includes a contact opening formed therein. The contact opening comprises a plurality of separate dots connected to each other. A contact plug is formed in the contact opening.

Abstract: An image pickup device and a manufacturing method thereof. A digital signal processing (DSP) chip is attached on a first surface of a substrate. A CMOS image sensor (CIS) chip is attached on an active surface of the DSP chip. The DSP chip and the CIS chip may be electrically connected to the substrate by wire bonding. A housing kit having a lens configured to transmit an image to the DSP chip may be mounted on the substrate. An inner space between the housing kit and the substrate is not molded, thereby simplifying a manufacturing process and providing a thinner and/or lighter image pickup device.

Abstract: A bonding apparatus and method thereof to bond the bonding portions of an FPC cable to pads of a print head die in order to electrically connect the print head die of an ink jet print head assembly include a stage and a bonding tool. The print head die includes resistive heaters, signal lines connected to the resistive heaters, and electrical pads to connect the signal lines to an outside of the print head die to the FPC cable having conductors having bonding portions facing the pads. The print head die is supported on the stage with the pads facing upward. The bonding tool includes a tip that press bonding portions of the FPC cable against corresponding pads of the print head die placed on the stage, and heats the bonding portions in contact with the pads to bond the bonding portion to the pads.

Abstract: A bump of a semiconductor chip comprises a plurality of bond pads formed on a semiconductor chip, a conductive bump formed on the bond pads; and a sidewall insulating layer formed on sidewalls of the conductive bump. It is possible for the semiconductor chip to prevent electrical shorts and improve productivity even though a pitch of bond pad is decreased.

Abstract: A semiconductor device for reinforcing a substructure of a bond pad and a method for fabricating the same are provided. According to an embodiment, a semiconductor device for reinforcing a substructure of a bond pad comprises a semiconductor substrate and a substructure formed on the semiconductor substrate. The semiconductor device further includes an interlevel dielectric layer formed on the substructure. The interlevel dielectric layer includes a contact opening formed therein. The contact opening comprises a plurality of separate dots connected to each other. A contact plug is formed in the contact opening.

Abstract: A wafer level chip package has a redistrubution substrate, at least one lower semiconductor chip stacked on the redisctribution substrate, and an uppermost semiconductor chip. The redistribution substrate has a redistribution layer and substrate pads connected to the redistribution layer. The lower semiconductor chip is stacked on the redistribution layer and may have through holes for partially exposing the redistribution layer, the through holes corresponding to the substrate pads, and having conductive filling material filling the through holes. The uppermost semiconductor chip may have the same elements as the lower semiconductor chip, and may be flip chip bonded to the through holes. The package may further have a filling layer for filling areas between chips, a metal lid for coating most of the external surfaces, and external connection terminals formed on and electrically connected to the exposed redistribution layer from the first dielectric layer of the redistribution substrate.

Abstract: A semiconductor chip has connection lines that are routed to the side surface from bump pads on the back surface of the chip. Such semiconductor chips are stacked on a circuit board to form a chip stack package while bumps are interposed between the bump pads of the lower chip and bonding pads of the upper chip. Further, an interconnecting member such as a conductive adhesive or a wiring board is applied to the side surfaces of the stacked chips such that the connection lines are connected to the interconnecting member. Therefore, the centrally disposed bonding pads of the chips are electrically connected to the circuit board through the bumps, the bump pad, the connection lines and the interconnecting member. The semiconductor chip may have heat dissipation part formed on the back surface. Methods of manufacturing the semiconductor chip and the chip stack package are also provided.

Abstract: A thermal-stress-absorbing interface structure between a semiconductor integrated circuit chip and a surface-mount structure and a method for manufacturing the same. The thermal-stress-absorbing interface structure comprises an elongated conductive-bump pad having a first length-wise end and a second length-wise end, and a side. The thermal-stress-absorbing interface structure includes means for allowing the first end of the pad to move up when the second end of the pad moves down and alternately allowing the first end to move down when the second end moves up, upon thermal cycling. The means has a center axis and the up-and-down movements of the pad are balanced on the center axis. In accordance with this novel structure of the present invention, interconnection reliability such as solder joint reliability can be significantly improved.

Abstract: A thermal-stress-absorbing interface structure is provided between a semiconductor integrated circuit chip and a surface-mount structure. The interface structure comprises an elongated conductive-bump pad having a first length-wise end and a second length-wise end, and a side. The pad has an interconnection line extending from the side thereof intermediate the first and the second ends. The interconnection line is electrically connected to the chip. The interface structure further includes a first polymer layer having an exposed surface, and a second polymer layer, each having a different modulus of elasticity, disposed below the pad. The second polymer layer extends over substantially the entire exposed surface of the first polymer layer to absorb a thermal stress during thermal cycling.