Qualcomm Incorporated

Other

Dong Wook Kim

Hong Bok We

Young Kyu Song

Kyu-Pyung Hwang

Jae Sik Lee

Shiqun Gu

Changhan Hobie Yun

Chin-Kwan Kim

Ratibor Radojcic

Vidhya Ramachandran

Rongtian Zhang

Matthew Michael Nowak

Omar James Bchir

Ryan David Lane

Reza Jalilizeinali

Xiaonan Zhang

Brian Matthew Henderson

Victor Adrian Chiriac

Jon Gregory Aday

Ronnie A Lindley

A bottom package substrate is provided that includes a plurality of metal posts that electrically couple through a die-side redistribution layer to a plurality of die interconnects. The metal posts and the die interconnects are plated onto a seed layer on the bottom package substrate.

Bottom package with metal post interconnections

A high density fan out package structure may include a contact layer. The contact layer includes a conductive interconnect layer having a first surface facing an active die and a second surface facing a redistribution layer. The high density fan out package structure has a barrier layer on the first surface of the conductive interconnect layer. The high density fan out package structure may also include the redistribution layer, which has conductive routing layers. The conductive routing layers may be configured to couple a first conductive interconnect to the conductive interconnect layer. The high density fan out package structure may further include a first via coupled to the barrier liner and configured to couple with a second conductive interconnect to the active die.

High density fan out package structure

A package on package structure may be formed by fabricating or providing a bottom package having a substrate, at least one die on top of the substrate, and bonding pads on the top of the substrate. Next, a frame is formed on the bonding pads and connected to the bonding pads. Next, a package material is molded over the top of the substrate to encapsulate the frame, the die, and the pads or substantially encapsulates these components. Next, a portion of the molded package material is removed to expose at least a portion of the frame. The exposed frame portions are formed such that a desired fan in or fan out configuration is obtained. Next, a non-conductive layer is formed on the exposed frame. Last, a second package having a die or chip is connected to the exposed portion of the frame to form a package on package structure.

Semiconductor package on package structure and method of forming the same

A substrate block is provided that has an increased width. The substrate block comprises two substrate bars, and the substrate bars each comprise a substrate and a plurality of filled vias through the substrate. The substrate block may be used to manufacture package substrates, and these package substrate may be incorporated into a PoP structure. The package substrate includes a carrier having a plurality of vertical interconnections and a bar coupled to the vertical interconnections.

Substrate block for PoP package

The present disclosure provides semiconductor packages and methods for fabricating PoP semiconductor packages. The PoP semiconductor package may comprise a first semiconductor package, the first semiconductor package comprising an anodized metal lid structure comprising (i) a central cavity having a central cavity opening direction and (ii) at least one perimeter cavity having a perimeter cavity opening direction facing in an opposite direction of the central cavity opening direction, a first semiconductor device arranged in the central cavity of the anodized metal lid structure, a redistribution layer electrically coupled to the first semiconductor device, wherein a conductive trace formed in the redistribution layer is exposed to the at least one perimeter cavity, and solder material arranged in the at least one perimeter cavity, and a second semiconductor package, the second semiconductor package comprising at least one conductive post, wherein the at least one conductive post is electrically coupled to the solder material arranged in the at least one perimeter cavity.

Low profile reinforced package-on-package semiconductor device

Some novel features pertain to a capacitor structure that includes a first conductive layer, a second conductive layer and a non-conductive layer. The first conductive layer has a first overlapping portion and a second overlapping portion. The second conductive layer has a third overlapping portion, a fourth overlapping portion, and a non-overlapping portion. The third overlapping portion overlaps with the first overlapping portion of the first conductive layer. The fourth overlapping portion overlaps with the second overlapping portion of the first conductive layer. The non-overlapping portion is free of any overlap (e.g., vertical overlap) with the first conductive layer. The non-conductive layer separates the first and second conductive layers. The non-conductive layer electrically insulates the third overlapping portion and the fourth overlapping portion from the first conductive layer.

Capacitor structure for wideband resonance suppression in power delivery networks

Some examples of the disclosure may include a package on package integrated package configuration including a first die located above the substrate in a first plane, a second die located above the first die in a second plane with a portion extending past the first die, a third die located above the first die in the second plane with a portion extending past the first die, a fourth die located above the second die and the third die in a third plane with a portion extending past the second die and the third die, and a fifth die located above the second die and the third die in the third plane with a portion extending past the second die and the third die.

Stacked package configurations and methods of making the same

Some implementations provide a semiconductor device (e.g., die, wafer) that includes a substrate, that is configured with trenches that are dry-etched into a surface of the substrate inside an area defined by scribe lines of the substrate. A crack stop structure is provided for the semiconductor device that includes a polymer dielectric layer coating that fills the trenches with a polymer dielectric material and provides a dielectric layer over the surface of the substrate inside the area. The polymer dielectric layer coating and trenches are configured to reduce cracking or chipping of the substrate in the area defined by scribe lines after cutting.

Polymer crack stop seal ring structure in wafer level package

A package substrate that includes a first portion and a redistribution portion. The first portion is configured to operate as a capacitor. The first portion includes a first dielectric layer, a first set of metal layers in the dielectric layer, a first via in the dielectric layer, a second set of metal layers in the dielectric layer, and a second via in the dielectric layer. The first via is coupled to the first set of metal layers. The first via and the first set of metal layers are configured to provide a first electrical path for a ground signal. The second via is coupled to the second set of metal layers. The second via and the second set of metal layers are configured to provide a second electrical path for a power signal. The redistribution portion includes a second dielectric layer, and a set of interconnects.

Package substrate comprising capacitor, redistribution layer and discrete coaxial connection

Some novel features pertain to a substrate that includes a first dielectric layer and a bridge structure. The bridge structure is embedded in the first dielectric layer. The bridge structure is configured to provide an electrical connection between a first die and a second die. The first and second dies are configured to be coupled to the substrate. The bridge structure includes a first set of interconnects and a second dielectric layer. The first set of interconnects is embedded in the first dielectric layer. In some implementations, the bridge structure further includes a second set of interconnects. In some implementations, the second dielectric layer is embedded in the first dielectric layer. The some implementations, the first dielectric layer includes the first set of interconnects of the bridge structure, a second set of interconnects in the bridge structure, and a set of pads in the bridge structure.

Embedded bridge structure in a substrate

Some features pertain to an integrated device that includes a first integrated circuit (IC) package, a flexible connector and a second integrated circuit (IC) package. The first integrated circuit (IC) package includes a first die, a plurality of first interconnects, and a first dielectric layer encapsulating the first die. The flexible connector is coupled to the first integrated circuit (IC) package. The flexible connector includes the first dielectric layer, and an interconnect. The second integrated circuit (IC) package is coupled to the flexible connector. The second integrated circuit (IC) package includes the first dielectric layer, and a plurality of second interconnects. The first integrated circuit (IC) package, the second integrated circuit (IC) package, and the flexible connector are coupled together through at least a portion (e.g., contiguous portion) of the first dielectric layer. In some implementations, the flexible connector comprises a dummy metal layer.

Integrated device comprising flexible connector between integrated circuit (IC) packages

An embedded multi-terminal capacitor embedded in a substrate cavity includes at least one metal layer patterned into a plurality of power rails and a plurality of ground rails. The substrate includes an external power network.

Embedded multi-terminal capacitor

Some novel features pertain to an integrated device package that includes an encapsulation portion and a redistribution portion. The encapsulation portion includes a first die, a first set of vias coupled to the first die, a second die, a second set of vias coupled to the second die, a bridge, and an encapsulation layer. The bridge is configured to provide an electrical path between the first die and the second die. The bridge is coupled to the first die through the first set of vias. The bridge is further coupled to the second die through the second set of vias. The encapsulation layer at least partially encapsulates the first die, the second die, the bridge, the first set of vias, and the second set of vias. The redistribution portion is coupled to the encapsulation portion. The redistribution portion includes a set of redistribution interconnects, and at least one dielectric layer.

Integrated device package comprising silicon bridge in an encapsulation layer

A semiconductor package according to some examples of the disclosure may include a substrate having a bridge embedded in the substrate, a first and second die coupled to the substrate, and a plurality of electrically conductive bridge interconnects in the substrate coupling the bridge to the first and second die. The plurality of electrically conductive bridge interconnects may have a first bridge contact layer directly coupled to the bridge, a first solder layer on the first bridge contact layer, a second bridge contact layer on the first solder layer, a second solder layer on the second bridge contact layer, and a die contact directly coupled to one of the first and second die where the plurality of electrically conductive bridge interconnects are embedded in the substrate.

Semiconductor package with high density die to die connection and method of making the same

A substrate includes a plurality of vias that are lined with dielectric polymer having a substantially uniform thickness. This substantial uniform thickness provides a lumen within each dielectric-polymer-layer-lined via that is substantially centered within the via. Subsequent deposition of metal into the lumen for each dielectric-polymer-layer-lined via thus provides conductive vias having substantially centered metal conductors.

Growing community of inventors

San Diego, CA, United States of America

Dong Wook Kim