St Assembly Test Services Inc.

Virgil Cotoco Ararao

Il Kwon Shim

Seng Guan Chow

Sheila Marie L Alvarez

Hermes T Apale

Leo A Merilo

Dario Filoteo

Kambhampati Ramakrishna

Dario S Filoteo, Jr

Roger Alan Emigh

Weddie Pacio Aquien

Diane Sahakian

Tie Wang

Harvey Kong

Weddle Aquien

A semiconductor heat spreader from a unitary metallic plate is provided. The unitary metallic plate is formed into a panel, channel walls, at least two feet, and at least one external reversing bend. The channel walls depend from the panel to define a channel between the channel walls and the panel for receiving a semiconductor therein. The feet extend from respective channel walls for attachment to a substrate.

Semiconductor package heat spreader

A method for forming a heat spreader, and the heat spreader formed thereby, are disclosed. An array heat spreader having a plurality of connected heat spreader panels is formed. Slots are formed in opposing sides of the heat spreader panels. Legs are formed on and extending downwardly from each of the heat spreader panels in at least an opposing pair of the slots on the heat spreader panels. The legs are integral with the respective heat spreader panels from which they depend.

Array-molded package heat spreader and fabrication method therefor

An integrated circuit die is provided having a body portion having a singulation side and a pedestal portion extending from the body portion and having a singulation side coplanar with the singulation side of the body portion.

Integrated circuit die with pedestal

A method for fabricating a semiconductor heat spreader from a unitary metallic plate is provided. The unitary metallic plate is formed into a panel, channel walls, at least two feet, and at least one external reversing bend. The channel walls depend from the panel to define a channel between the channel walls and the panel for receiving a semiconductor therein. The feet extend from respective channel walls for attachment to a substrate.

Fabrication method for semiconductor package heat spreaders

A method and apparatus for stacked die packaging provide a leadframe configured for supporting a lower semiconductor die. At least one pillar is formed on the leadframe for supporting an upper semiconductor die. The pillar is formed integrally with and of the same material as the leadframe, and is sized to have a predetermined height that is higher than the height of such a lower semiconductor die plus the height of bonding wires for such a lower semiconductor die plus a predetermined spacing between such bonding wires and the bottom of an upper semiconductor die to be supported on the at least one pillar.

Method and apparatus for stacked die packaging

An electronic device having a substrate carrier is provided. A semiconductor connected to the substrate carrier. A heat spreader having upper and lower surfaces and legs recessed below the lower surface is connected to the substrate carrier. The Z-dimension between the heat spreader and the substrate carrier is maintained over substantially the entire area of the substrate carrier.

Heat spreader for thermally enhanced semiconductor package

A method for fabricating a semiconductor package with a substrate in a strip format is provided. Semiconductor devices are attached in a strip format to the substrate, and a thermal interface material is applied to the semiconductor devices. A flat panel heat spreader is attached to each semiconductor device. The semiconductor devices are encapsulated with open encapsulation, leaving the surface of the flat panel heat spreader opposite the substrate externally exposed. Individual semiconductor packages are then singulated from the strip format.

Strip-fabricated flip chip in package and flip chip in system heat spreader assemblies and fabrication methods therefor

An embodiment of the present invention allows mold compound to flow underneath a substrate where the mold compound will remain in place until the process of mold formation is completed. The mold compound of the package will penetrate all available cavities where the mold compound will remain in place and harden. After hardening, the mold compound surrounding a mold anchor will support an anchored area.

Semiconductor device package

A method and assembly are provided for anchoring the heat spreader of a PBGA package to the substrate thereof as part of the PBGA package. These anchor features are provided over the surface of the substrate of the PBGA package. The anchor features align with openings created in the heat spreader stand-off, thus allowing for quick and reliable positioning and anchoring of the heat spreader over the surface of the substrate of the package.

Heat spreader anchoring and grounding method and thermally enhanced PBGA package using the same

A new method is provided for the creation of a mold cap. The mold cap anchoring feature of the invention is designed and incorporated from the start of the design and fabrication of the substrate. Various design options of the mold anchor of the invention can be implemented. The mold anchor of the invention allows the mold compound to flow underneath the substrate where the mold compound will remain in place until the process of mold formation is completed. The mold compound of the package will penetrate all available cavities surrounding and being accessible from the mold anchor of the invention where the mold compound will remain in place and harden. After hardening, the mold compound surrounding the mold anchor will support the anchored area.

Mold cap anchoring method for molded flex BGA packages

A method for fabricating a semiconductor device heat spreader from a unitary piece of metallic material. The metallic material is stamped to form a unitary heat spreader having an upper heat dissipation region, a lower substrate contact region, and supports connecting the upper heat dissipation region and the lower substrate contact region. A recess is formed within the supports and the upper and lower regions for receiving a semiconductor device.

Heat spreaders, heat spreader packages, and fabrication methods for use with flip chip semiconductor devices

A new method and assembly are provided for anchoring the heat spreader of a PBGA package to the substrate thereof. Anchor features are made part of the PBGA package. These anchor features are provided over the surface of the substrate of the PBGA package. The anchor features align with openings created in the heat spreader stand-off, thus allowing for quick and reliable positioning and anchoring of the heat spreader over the surface of the substrate of the package.

Growing community of inventors

Atlanta, GA, United States of America

Virgil Cotoco Ararao