Abstract:
Methods and associated structures of forming a package structure including forming a low melting point solder material on a solder resist opening location of an IHS keep out zone, forming a sealant in a non SRO keep out zone region; attaching the IHS to the sealant, and curing the sealant, wherein a solder joint is formed between the IHS and the low melting point solder material.
Abstract:
A multi-component heat spreader comprising a top component having a first surface and an opposing second surface with either a cavity extending therein from the second surface thereof or a projection extending from the second surface thereof. The multi-component heat spreader further includes at least one additional component, such as a footing component or a spacer component, having a first surface and an opposing second surface with either a cavity extending therein from the second surface thereof or a projection extending from the second surface thereof, which is opposite from the top component cavity/projection. The additional component is attached to the top component, such as by brazing, wherein the top component cavity/projection is mated to the additional component cavity/projection.
Abstract:
An apparatus is described that includes a substrate and a mold compound disposed on the substrate. The semiconductor die is embedded within the mold compound and is electrically coupled to lands on the substrate. Solder balls are disposed around the semiconductor die on the substrate. Each of the solder balls have a solid coating thereon. The solid coating contains a cleaning agent to promote its solder ball's coalescence with another solder ball. Respective vias are formed in the mold compound that expose the solder balls and their respective solid coatings. In combined or alternate embodiments outer edges of the mold compound have smaller thickness than regions of the mold compound between the vias and the semiconductor die. In combined or alternate embodiments micro-channels exist between the solder balls and the mold compound.
Abstract:
Embodiments of the present disclosure are directed towards multi-solder techniques and configurations for integrated circuit (IC) package assembly. In one embodiment, a method includes depositing a plurality of solder balls on a plurality of pads of a package substrate, the plurality of solder balls corresponding with the plurality of pads and performing a solder reflow process to form a solder joint between the plurality of solder balls and the plurality of pads. Individual solder balls of the plurality of solder balls include a first solder material and a second solder material, the first solder material having a liquidus temperature that is greater than a peak temperature of the solder reflow process and the second solder material having a liquidus temperature that is less than the peak temperature of the solder reflow process. Other embodiments may be described and/or claimed.
Abstract:
Embodiments herein may relate to a patch on interposer (PoINT) architecture. In embodiments, the PoINT architecture may include a plurality of solder joints between a patch and an interposer. The solder joints may include a relatively high temperature solder ball and a relatively low temperature solder paste that at least partially surrounds the solder ball. Other embodiments may be described and/or claimed.
Abstract:
Embodiments of the present disclosure are directed towards multi-solder techniques and configurations for integrated circuit (IC) package assembly. In one embodiment, a method includes depositing a plurality of solder balls on a plurality of pads of a package substrate, the plurality of solder balls corresponding with the plurality of pads and performing a solder reflow process to form a solder joint between the plurality of solder balls and the plurality of pads. Individual solder balls of the plurality of solder balls include a first solder material and a second solder material, the first solder material having a liquidus temperature that is greater than a peak temperature of the solder reflow process and the second solder material having a liquidus temperature that is less than the peak temperature of the solder reflow process. Other embodiments may be described and/or claimed.
Abstract:
Devices and methods disclosed herein can include a conductive foam having pores disposed within the conductive foam. The conductive foam can be compressible between an uncompressed thickness and a compressed thickness. The compressed thickness can be ninety-five percent or less of the uncompressed thickness. In one example, a filler can be disposed in the pores of the conductive foam. The filler can include a first thermal conductivity. The first thermal conductivity can be greater than a thermal conductivity of air.
Abstract:
Methods and associated structures of forming a package structure including forming a low melting point solder material on a solder resist opening location of an IHS keep out zone, forming a sealant in a non SRO keep out zone region; attaching the IHS to the sealant, and curing the sealant, wherein a solder joint is formed between the IHS and the low melting point solder material.
Abstract:
An apparatus is described that includes a substrate and a mold compound disposed on the substrate. The semiconductor die is embedded within the mold compound and is electrically coupled to lands on the substrate. Solder balls are disposed around the semiconductor die on the substrate. Each of the solder balls have a solid coating thereon. The solid coating contains a cleaning agent to promote its solder ball's coalescence with another solder ball. Respective vias are formed in the mold compound that expose the solder balls and their respective solid coatings. In combined or alternate embodiments outer edges of the mold compound have smaller thickness than regions of the mold compound between the vias and the semiconductor die. In combined or alternate embodiments micro-channels exist between the solder balls and the mold compound.
Abstract:
A multi-component heat spreader comprising a top component having a first surface and an opposing second surface with either a cavity extending therein from the second surface thereof or a projection extending from the second surface thereof. The multi-component heat spreader further includes at least one additional component, such as a footing component or a spacer component, having a first surface and an opposing second surface with either a cavity extending therein from the second surface thereof or a projection extending from the second surface thereof, which is opposite from the top component cavity/projection. The additional component is attached to the top component, such as by brazing, wherein the top component cavity/projection is mated to the additional component cavity/projection.