Abstract: Methods for covalently and indelibly anchoring a polyacrylate polymer using a UV-induced polymerization process in the presence of a photoinitiator to an oxide surface are disclosed herein. The methods and compositions prepared by the methods can be used as indelible marking materials for use on microelectronic packages and as solder and sealant barriers to prevent overspreading of liquids on the oxide surfaces of microelectronic packages. The polyacrylate polymers are covalently linked to the oxide surface by use during the printing and UV-curing process of an adhesion promoter having as a first domain an oxide-reactive silyl group, bonded via a linker to an acrylate-reactive group.

Abstract: Certain embodiments relate to compositions that may be used as thermal interface materials in electronic assemblies. One such composition includes a block copolymer matrix comprising polystyrene and polybutene. The composition also includes a filler positioned in the copolymer matrix, the filler comprising carbon. The filler may in certain embodiments be a material selected from the group consisting of graphite, graphene, and carbon nanotubes. composition may include routing structures and their formation. Assemblies may include the composition positioned between a die and a heat spreader. Other embodiments are described and claimed.

Abstract: Embodiments of the present disclosure describe thermal interface techniques and configurations. In some embodiments, a thermal interface apparatus may include a flexible container, a plurality of thermally conductive objects disposed within the flexible container, and an attachment member coupled to the flexible container for attaching the thermal interface apparatus to a heat sink. The thermally conductive objects may be movable to rearrange their packing within the flexible container in response to deformation of the flexible container. Other embodiments may be described and/or claimed.

Abstract: Methods for covalently and indelibly anchoring a polyacrylate polymer using a UV-induced polymerization process in the presence of a photoinitiator to an oxide surface are disclosed herein. The methods and compositions prepared by the methods can be used as indelible marking materials for use on microelectronic packages and as solder and sealant barriers to prevent overspreading of liquids on the oxide surfaces of microelectronic packages. The polyacrylate polymers are covalently linked to the oxide surface by use during the printing and UV-curing process of an adhesion promoter having as a first domain an oxide-reactive silyl group, bonded via a linker to an acrylate-reactive group.

Abstract: Methods for covalently and indelibly anchoring a polyacrylate polymer using a UV-induced polymerization process in the presence of a photoinitiator to an oxide surface are disclosed herein. The methods and compositions prepared by the methods can be used as indelible marking materials for use on microelectronic packages and as solder and sealant barriers to prevent overspreading of liquids on the oxide surfaces of microelectronic packages. The polyacrylate polymers are covalently linked to the oxide surface by use during the printing and UV-curing process of an adhesion promoter having as a first domain an oxide-reactive silyl group, bonded via a linker to an acrylate-reactive group.

Abstract: Embodiments of the present disclosure are directed to techniques and configurations for an integrated circuit (IC) package having an underfill layer with filler particles arranged in a generally random distribution pattern. In some embodiments, a generally random distribution pattern of filler particles may be obtained by reducing an electrostatic charge on one or more components of the IC package assembly, by applying a surface treatment to filler to reduce filler electrical charge, by applying an electric force against the filler particles of the underfill material in a direction opposite to a direction of gravitational force, by using an underfill material with a relatively low maximum filler particle size, and/or by snap curing the underfill layer at a relatively low temperature. Other embodiments may be described and/or claimed.

Abstract: A die backside film including a matrix material; and an amount of filler particles to render the die backside film thermally conductive, wherein a thermal conductivity of the amount of filler particles is greater than a thermal conductivity of silica particles. A method including introducing a die backside film on a backside surface of a die, the die backside film including a matrix material including an elastomer an amount of filler particles to render the die backside film thermally conductive, wherein a thermal conductivity of the amount of filler particles is greater than a thermal conductivity of silica particles; and disposing the die in a package.

Abstract: Embodiments of the present disclosure are directed towards a thermal interface material for integrated circuit package assembly and associated techniques and configurations. In one embodiment, an apparatus includes a die and a layer of thermal interface material (TIM) thermally coupled with the die, the TIM including a polymer matrix and carbon filler having anisotropic thermal conductivity disposed in the polymer matrix, the polymer matrix being configured for deposition on the die in liquid form. Other embodiments may be described and/or claimed.

Abstract: Certain embodiments relate to compositions that may be used as thermal interface materials in electronic assemblies. One such composition includes a block copolymer matrix comprising polystyrene and polybutene. The composition also includes a filler positioned in the copolymer matrix, the filler comprising carbon. The filler may in certain embodiments be a material selected from the group consisting of graphite, graphene, and carbon nanotubes. composition may include routing structures and their formation. Assemblies may include the composition positioned between a die and a heat spreader. Other embodiments are described and claimed.

Abstract: A method for fabricating a nanostructure utilizes a templated monocrystalline substrate. The templated monocrystalline substrate is energetically (i.e., preferably thermally) treated, with an optional precleaning and an optional amorphous material layer located thereupon, to form a template structured monocrystalline substrate that includes the monocrystalline substrate with a plurality of epitaxially aligned contiguous monocrystalline pillars extending therefrom. The monocrystalline substrate and the plurality of epitaxially aligned contiguous monocrystalline pillars may comprise the same or different monocrystalline materials.