Samsung Electronics Co., Ltd.

Samsung Electro-mechanics Co., Ltd.

Tae Je Cho

Kwan Jai Lee

Doo Hwan Lee

Young Jae Song

Ju Hyun Lyu

Yong Hoon Kim

Jin Won Lee

Tae Hong Min

In Young Lee

Heung Kyu Kwon

Do Soo Jeong

Seung H Ahn

Se Yong Oh

Jong Hee Choi

Young Hoon Ro

Chang Cheol Lee

Beung Seuck Song

Byoung Soo Kwak

Min Ho Lee

Suk Hong Chang

A semiconductor package includes: a semiconductor chip having an active surface, having connection pads disposed thereon, and an inactive surface, opposing the active surface; an encapsulant covering the inactive surface of the semiconductor chip; a thermally conductive via penetrating through at least a portion of the encapsulant on the inactive surface of the semiconductor chip and physically spaced apart from the inactive surface of the semiconductor chip; and a connection structure disposed on the active surface of the semiconductor chip and including a redistribution layer electrically connected to the connection pads.

Fan-out semiconductor package

A substrate having an embedded interconnect structure includes an interconnect structure including a circuit member including circuit layers and a passive device disposed in parallel with the circuit member and including an external electrode, and a printed circuit board including an insulating layer covering the interconnect structure, a first wiring layer disposed on the insulating layer, a first wiring via penetrating through at least a portion of the insulating layer and electrically connecting the first wiring layer to an uppermost circuit layer, among the circuit layers, and a second wiring via penetrating through at least a portion of the insulating layer and electrically connecting the first wiring layer to the external electrode of the passive device. A top surface of the uppermost circuit layer, contacting the first wiring via, is coplanar with a top surface of the external electrode, contacting the second wiring via.

Substrate having embedded interconnect structure

There is provided a semiconductor device, enhanced with process capability and reliability by way of flow control of an adhesive material to fix semiconductor chips. The semiconductor device includes a first semiconductor chip including a first surface and a second surface opposite to each other, a flow regulating structure formed at the first surface of the first semiconductor chip, and a second semiconductor chip mounted on the first surface of the first semiconductor chip. The second semiconductor chip overlaps at least a portion of the flow regulating structure.

Semiconductor device including multiple semiconductor chips

There are disclosed a stacked package formed by stacking semiconductor device packages and a manufacturing method thereof. Each package includes leads and connection terminals. A semiconductor chip is electrically connected to the connection terminals. A package body has the same thickness as that of the lead so as to expose the upper and the lower surfaces of the leads to the package body. Each of the packages is stacked on another package by electrically connecting the exposed upper and lower surfaces of the leads with each other. The manufacturing method has preparing lead frames, attaching an adhesive tape to the lower surface of the lead frame, bonding a semiconductor chip to the adhesive tape in the chip receiving cavity between the leads, connecting the semiconductor chip to the connection terminals, forming a package body, removing the adhesive tape; removing dam bars from the side frame, separating packages from the lead frame, and forming a stacked package by stacking a plurality of the packages.

Thin stacked package and manufacturing method thereof

A stacked package formed by stacking semiconductor device packages and a method of manufacturing a stacked semiconductor package. Each package includes leads and connection terminals. A semiconductor chip is electrically connected to the connection terminals. A package body has the same thickness as that of the lead so as to expose the upper and the lower surfaces of the leads at a surface of the package body. Each of the packages is stacked on another package by electrically connecting the exposed surfaces of the leads. The manufacturing method includes preparing lead frames, including a plurality of leads, supporting a semiconductor chip in a chip receiving cavity between the leads, connecting the semiconductor chip to the connection terminals of the leads, forming a package body of a thickness such that a portion of surface of the leads are exposed, separating packages from the lead frame, and forming a stacked package by stacking a plurality of the packages.

Thin stacked package

A semiconductor package includes: a substrate having an upper surface and a lower surface; an integrated circuit chip having bond pads; a lid attached on the upper surface of the substrate so as to cover the chip; and one or more projections that electrically connect the lid to a plurality of ground patterns. The substrate has substrate pads formed on the upper surface, and one or more of the substrate pads extend to form the ground patterns. The chip is bonded on the upper surface of the substrate. One or more of the bond pads are ground bond pads, and the bond pads are electrically connected to the corresponding substrate pads. An electrically nonconductive adhesive is used for the attachment of the lid to the substrate, and the projections are connected to the ground patterns by an electrically conductive adhesive. The ground projections are positioned at four corners of a cavity that is formed between the substrate and the lid. The semiconductor package further includes: external connection terminals formed on the lower surface of the substrate and electrically connected to the corresponding substrate pads; and a thermal interface material is interposed between lid and the chip, the thermal interface material transmitting heat generated by the chip to the lid.

Semiconductor package with ground projections

A multi-chip stack package does not include a die pad. The elimination of the die pad provides more room for elements in the package which. Thus, a balanced inner package structure can be achieved, and a poor molding which may expose one of the package elements can be avoided. In the package, an upper chip is bonded to the top surface of a lower chip. To stabilize the chips, auxiliary or inner leads of a lead frame attach to the top surface of a lower chip. This shortens wire lengths between the chips and the inner leads. The shorter wires reduce wire loop heights and thus reduce the probability of exposing wires in a subsequent transfer-molding. A multi-chip stack package which includes an auxiliary lead(s) is also disclosed. The auxiliary leads attach to the top surface of the lower chip and can provide a stable support of a semiconductor chip and prevent the chip from tilting and shifting in transfer-molding. An auxiliary lead can be between the lower and upper chips. The auxiliary leads can also be positioned to prevent undesirable spreading of an adhesive when an upper chip is attached to a lower chip.

Multi-chip package

A lead-on-chip semiconductor device package is formed by attaching a lead frame having a single adhesive layer to a semiconductor chip. Electrode pads of the chip are electrically connected by bonding wires and mechanically connected by the adhesive layer to the lead frame, and then encapsulated by an encapsulant such as molding compound. The adhesive layer is formed from a liquid adhesive having a certain viscosity. The adhesive material is continuously applied to spaces between adjacent inner leads as well as the top surface of the leads and then cured. The leads are disposed at the same intervals and include some side leads with a larger width in order to form the adhesive layer with a uniform thickness. Thermoplastic resins are preferably used as the adhesive, but thermosetting resins may be used as well. In the case of thermoplastic resins, the temperature of a cure step is about 200.degree. C. and that of chip attachment step is about 400.degree. C.

Growing community of inventors

Suwon-si, South Korea

Tae Je Cho