Abstract: Methods and systems for removing protective films from microfeature workpieces are disclosed herein. One particular embodiment of such a method comprises separating at least a portion of a protective tape from a workpiece to which the protective tape is attached with a separator configured to drive against an interface between the protective tape and the workpiece. The method further includes engaging the portion of the protective tape detached from the workpiece with a removal system.

Abstract: Methods relating to forming interconnects through injection of conductive materials, to fabricating semiconductor component assemblies, and to resulting assemblies. A semiconductor component substrate, such as a semiconductor die or other substrate, has dielectric material disposed on a surface thereof, surrounding but not covering interconnect elements, such as bond pads, on that surface. A second semiconductor component substrate, such as a carrier substrate with interconnect elements such as terminal pads, is adhered to the first semiconductor component substrate, forming a semiconductor package assembly having interconnect voids between the corresponding interconnect elements. A flowable conductive material is then injected into each interconnect void using an injection needle that passes through one of the substrates into the interconnect void, forming a conductive interconnect between the bond pads and terminal pads of the substrates.

Abstract: Methods relating to forming interconnects through injection of conductive materials, to fabricating semiconductor component assemblies, and to resulting assemblies. A semiconductor component substrate, such as a semiconductor die or other substrate, has dielectric material disposed on a surface thereof, surrounding but not covering interconnect elements, such as bond pads, on that surface. A second semiconductor component substrate, such as a carrier substrate with interconnect elements such as terminal pads, is adhered to the first semiconductor component substrate, forming a semiconductor package assembly having interconnect voids between the corresponding interconnect elements. A flowable conductive material is then injected into each interconnect void using an injection needle that passes through one of the substrates into the interconnect void, forming a conductive interconnect between the bond pads and terminal pads of the substrates.

Abstract: A folded interposer used to achieve a high density semiconductor package is disclosed. The folded interposer is comprised of a thin, flexible material that can be folded around one or multiple semiconductor dice in a serpentine fashion. The semiconductor dice are then attached to a substrate through electrical contacts on the interposer. The folded interposer allows multiple semiconductor dice to be efficiently stacked in a high density semiconductor package by reducing the unused or wasted space between stacked semiconductor dice. Vias extending through the folded interposer provide electrical communication between the semiconductor dice and the substrate. The present invention also relates to a method of packaging semiconductor dice in a high density arrangement and a method of forming the high density semiconductor package.

Abstract: Methods relating to forming interconnects through injection of conductive materials, to fabricating semiconductor component assemblies, and to resulting assemblies. A semiconductor component substrate, such as a semiconductor die or other substrate, has dielectric material disposed on a surface thereof, surrounding but not covering interconnect elements, such as bond pads, on that surface. A second semiconductor component substrate, such as a carrier substrate with interconnect elements such as terminal pads, is adhered to the first semiconductor component substrate, forming a semiconductor package assembly having interconnect voids between the corresponding interconnect elements. A flowable conductive material is then injected into each interconnect void using an injection needle that passes through one of the substrates into the interconnect void, forming a conductive interconnect between the bond pads and terminal pads of the substrates.

Abstract: A microelectronic substrate and method for manufacture. In one embodiment, the microelectronic substrate includes a body having a first surface, a second surface facing a direction opposite from the first surface, and a plurality of voids in the body between the first and second surfaces. The voids can extend from the first surface to a separation region beneath the first surface. At least one operable microelectronic device is formed at and/or proximate to the first surface of the substrate material, and then a first stratum of the microelectronic substrate above the separation region is separated from a second stratum of the microelectronic substrate below the separation region. The first stratum of the microelectronic substrate can be further separated into discrete microelectronic dies before the first stratum is separated from the second stratum. In one aspect of this embodiment, the substrate can support a film and microelectronic devices can be formed in the film and/or in the substrate.

Abstract: A folded interposer used to achieve a high density semiconductor package is disclosed. The folded interposer is comprised of a thin, flexible material that can be folded around one or multiple semiconductor dice in a serpentine fashion. The semiconductor dice are then attached to a substrate through electrical contacts on the interposer. The folded interposer allows multiple semiconductor dice to be efficiently stacked in a high density semiconductor package by reducing the unused or waster space between stacked semiconductor dice. Vias extending through the folded interposer provide electrical communication between the semiconductor dice and the substrate. The present invention also relates to a method of packaging semiconductor dice in a high density arrangement and a method of forming the high density semiconductor package.

Abstract: A microelectronic substrate and method for manufacture. In one embodiment, the microelectronic substrate includes a body having a first surface, a second surface facing a direction opposite from the first surface, and a plurality of voids in the body between the first and second surfaces. The voids can extend from the first surface to a separation region beneath the first surface. At least one operable microelectronic device is formed at and/or proximate to the first surface of the substrate material, and then a first stratum of the microelectronic substrate above the separation region is separated from a second stratum of the microelectronic substrate below the separation region. The first stratum of the microelectronic substrate can be further separated into discrete microelectronic dies before the first stratum is separated from the second stratum. In one aspect of this embodiment, the substrate can support a film and microelectronic devices can be formed in the film and/or in the substrate.

Abstract: A microelectronic substrate and method for manufacture. In one embodiment, the microelectronic substrate includes a body having a first surface, a second surface facing a direction opposite from the first surface, and a plurality of voids in the body between the first and second surfaces. The voids can extend from the first surface to a separation region beneath the first surface. At least one operable microelectronic device is formed at and/or proximate to the first surface of the substrate material, and then a first stratum of the microelectronic substrate above the separation region is separated from a second stratum of the microelectronic substrate below the separation region. The first stratum of the microelectronic substrate can be further separated into discrete microelectronic dies before the first stratum is separated from the second stratum. In one aspect of this embodiment, the substrate can support a film and microelectronic devices can be formed in the film and/or in the substrate.

Abstract: A folded interposer used to achieve a high density semiconductor package is disclosed. The folded interposer is comprised of a thin, flexible material that can be folded around one or multiple semiconductor die in a serpentine fashion. The semiconductor die are then attached to a substrate through electrical contacts on the interposer. The folded interposer allows multiple semiconductor die to be efficiently stacked in a high density semiconductor package by reducing the unused or wasted space between stacked semiconductor die. Vias extending through the folded interposer provide electrical communication between the semiconductor die and the substrate. The present invention also relates to a method of packaging semiconductor die in a high density arrangement and a method of forming the high density semiconductor package.

Abstract: A folded interposer used to achieve a high density semiconductor package is disclosed. The folded interposer is comprised of a thin, flexible material that can be folded around one or multiple semiconductor die in a serpentine fashion. The semiconductor die are then attached to a substrate through electrical contacts on the interposer. The folded interposer allows multiple semiconductor die to be efficiently stacked in a high density semiconductor package by reducing the unused or wasted space between stacked semiconductor die. Vias extending through the folded interposer provide electrical communication between the semiconductor die and the substrate. The present invention also relates to a method of packaging semiconductor die in a high density arrangement and a method of forming the high density semiconductor package.

Abstract: A folded interposer used to achieve a high density semiconductor package is disclosed. The folded interposer is comprised of a thin, flexible material that can be folded around one or multiple semiconductor die in a serpentine fashion. The semiconductor die are then attached to a substrate through electrical contacts on the interposer. The folded interposer allows multiple semiconductor die to be efficiently stacked in a high density semiconductor package by reducing the unused or wasted space between stacked semiconductor die. Vias extending through the folded interposer provide electrical communication between the semiconductor die and the substrate. The present invention also relates to a method of packaging semiconductor die in a high density arrangement and a method of forming the high density semiconductor package.

Abstract: A microelectronic substrate and method for manufacture. In one embodiment, the microelectronic substrate includes a body having a first surface, a second surface facing a direction opposite from the first surface, and a plurality of voids in the body between the first and second surfaces. The voids can extend from the first surface to a separation region beneath the first surface. At least one operable microelectronic device is formed at and/or proximate to the first surface of the substrate material, and then a first stratum of the microelectronic substrate above the separation region is separated from a second stratum of the microelectronic substrate below the separation region. The first stratum of the microelectronic substrate can be further separated into discrete microelectronic dies before the first stratum is separated from the second stratum. In one aspect of this embodiment, the substrate can support a film and microelectronic devices can be formed in the film and/or in the substrate.

Abstract: A microelectronic substrate and method for manufacture. In one embodiment, the microelectronic substrate includes a body having a first surface, a second surface facing a direction opposite from the first surface, and a plurality of voids in the body between the first and second surfaces. The voids can extend from the first surface to a separation region beneath the first surface. At least one operable microelectronic device is formed at and/or proximate to the first surface of the substrate material, and then a first stratum of the microelectronic substrate above the separation region is separated from a second stratum of the microelectronic substrate below the separation region. The first stratum of the microelectronic substrate can be further separated into discrete microelectronic dies before the first stratum is separated from the second stratum. In one aspect of this embodiment, the substrate can support a film and microelectronic devices can be formed in the film and/or in the substrate.

Abstract: A compressible offset printing blanket comprising a compressible cellular elastomeric layer or layers which contain resin microballoons in an elastomeric material. Preferably the compressible cellular elastomeric layer(s) is deposited from a layer of a cement of the uncured elastomer with which the resin microballoons have been admixed.