Abstract:
Chip sealing structures and methods of manufacture are described. In an embodiment, a chip structure includes a main body area formed of a substrate, a back-end-of-the-line (BEOL) build-up structure spanning over the substrate, and chip edge sidewalls extending from a back surface of the substrate to a top surface of the BEOL build-up structure and laterally surrounding the substrate and the BEOL build-up structure. In accordance with embodiments, the chip structure may further include a conformal sealing layer covering at least a first chip edge sidewall of the chip edge sidewalls and a portion of the top surface of the BEOL build-up structure, and forming a lip around the top surface of the BEOL build-up structure.
Abstract:
Flexible packages and electronic devices with integrated flexible packages are described. In an embodiment, a flexibly package includes a first die and a second die encapsulated in a molding compound layer. A compliant redistribution layer (RDL) spans the molding compound layer and both dies, and includes electrical routing formed directly on landing pads of the dies. A notch is formed in the molding compound layer between the dies to facilitate flexure of the compliant RDL.
Abstract:
Electronic package structures and systems are described in which a 3D interconnect structure is integrated into a package redistribution layer and/or chiplet for power and signal delivery to a die. Such structures may significantly improve input output (IO) density and routing quality for signals, while keeping power delivery feasible.
Abstract:
Double side mounted package structures and memory modules incorporating such double side mounted package structures are described in which memory packages are mounted on both sides of a module substrate. A routing substrate is mounted to a bottom side of the module substrate to provide general purpose in/out routing and power routing, while signal routing from the logic die to double side mounted memory packages is provided in the module routing. In an embodiment, module substrate is a coreless module substrate and may be thinner than the routing substrate.
Abstract:
Fanout wafer level packages (FOWLPs) and methods of formation are described. In an embodiment, a package includes a first routing layer, a first die on a top side of the first routing layer, and a first molding compound encapsulating the first die on the first routing layer. A first plurality of conductive pillars extends from a bottom side of the first routing layer. A second die is on a top side of a second routing layer, and the first plurality of conductive pillars is on the top side of the second routing layer. A second molding compound encapsulates the first molding compound, the first routing layer, the first plurality of conductive pillars, and the second die on the second routing layer. In an embodiment, a plurality of conductive bumps (e.g. solder balls) extends from a bottom side of the second routing layer.
Abstract:
A semiconductor device package is described that includes a power consuming device (such as an SOC device). The power consuming device (120) may include one or more current consuming elements. A passive device (100) may be coupled (110) to the power consuming device. The passive device may include a plurality of passive elements formed on a semiconductor substrate. The passive elements may be arranged in an array of structures (102) on the semiconductor substrate. The power consuming device and the passive device may be coupled using one or more terminals (110). The passive device and power consuming device coupling may be configured in such a way that the power consuming device determines functionally the way the passive device elements will be used.
Abstract:
Electronic packages and modules are described. In an embodiment, a hybrid thermal interface material including materials with different thermal conductivities is used to attach a lid to a device. In an embodiment, a low temperature solder material is included as part of an adhesion layer for attachment with a stiffener structure.
Abstract:
Reconstructed 3DIC structures and methods of manufacture are described. In an embodiment, one or more dies in each package level of a 3DIC are both functional chips and/or stitching devices for two or more dies in an adjacent package level. Thus, each die can function as a communication bridge between two other dies/chiplets in addition to performing a separate chip core function.
Abstract:
Packages and 3D die stacking processes are described. In an embodiment, a package includes a second level die hybrid bonded to a first package level including a first level die encapsulated in an oxide layer, and a plurality of through oxide vias (TOVs) extending through the oxide layer. In an embodiment, the TOVs and the first level die have a height of about 20 microns or less.
Abstract:
Vertically stacked system in package structures are described. A package includes a first level (125) molding (122) and fan out structure (130), a third level (185) molding (182) and fan out structure (190) and a second level (155) molding (152) and fan out structure (160) between the first and third levels (125, 185). The first level (125) molding (122) and fan out structure (130) includes a first level die (110), the second level (155) molding (152) and fan out structure (160) includes back-to-back facing dies (142), with a front surface of each die (142) bonded to a redistribution layer (130, 160), and the third level (185) molding (182) includes a third level die (172). A plurality of first level molding dies (110) may be used. The first level die (110) may be a volatile memory die, the second level dies (142) may be non-volatile memory dies and the third level die (172) may be an active die. In a method of forming the vertical stack system in package, a carrier substrate may be used and later removed.