Abstract: A device and method for providing enhanced bridge structures is disclosed. A set of conducting and insulating layers are deposited and lithographically processed. The conducting layers have uFLS routing. A bridge with uFLS contacts and die disposed on the underlying structure such that the die are connected with the uFLS contacts and uFLS routing. For core-based structures, the layers are formed after the bridge is placed on the underlying structure and the die connected to the bridge through intervening conductive layers. For coreless structures, the layers are formed over the bridge and carrier, which is removed prior to bonding the die to the bridge, and the die bonded directly to the bridge.

Abstract: A device and method for providing enhanced bridge structures is disclosed. A set of conducting and insulating layers are deposited and lithographically processed. The conducting layers have uFLS routing. A bridge with uFLS contacts and die disposed on the underlying structure such that the die are connected with the uFLS contacts and uFLS routing. For core-based structures, the layers are formed after the bridge is placed on the underlying structure and the die connected to the bridge through intervening conductive layers. For coreless structures, the layers are formed over the bridge and carrier, which is removed prior to bonding the die to the bridge, and the die bonded directly to the bridge.

Abstract: A device and method for providing enhanced bridge structures is disclosed. A set of conducting and insulating layers are deposited and lithographically processed. The conducting layers have uFLS routing. A bridge with uFLS contacts and die disposed on the underlying structure such that the die are connected with the uFLS contacts and uFLS routing. For core-based structures, the layers are formed after the bridge is placed on the underlying structure and the die connected to the bridge through intervening conductive layers. For coreless structures, the layers are formed over the bridge and carrier, which is removed prior to bonding the die to the bridge, and the die bonded directly to the bridge.

Abstract: A device and method for providing enhanced bridge structures is disclosed. A set of conducting and insulating layers are deposited and lithographically processed. The conducting layers have uFLS routing. A bridge with uFLS contacts and die disposed on the underlying structure such that the die are connected with the uFLS contacts and uFLS routing. For core-based structures, the layers are formed after the bridge is placed on the underlying structure and the die connected to the bridge through intervening conductive layers. For coreless structures, the layers are formed over the bridge and carrier, which is removed prior to bonding the die to the bridge, and the die bonded directly to the bridge.

Abstract: A die interconnect substrate comprises a bridge die comprising at least one bridge interconnect connecting a first bridge die pad of the bridge die to a second bridge die pad of the bridge die. The die interconnect substrate comprises a multilayer substrate structure comprising a substrate interconnect, wherein the bridge die is embedded in the multilayer substrate structure. The die interconnect substrate comprises a via portion formed on the first bridge die pad of the bridge die. An average angle between a surface of the first bridge die pad and a sidewall of the via portion lies between 85° and 95°.

Abstract: An asymmetric electronic substrate and method of making the substrate includes forming a first layer on each opposing major surface of a removable carrier layer, the first layer being a routing layer, simultaneously laminating the first layers, and building up subsequent layers on layers previously formed and laminated on the removable carrier layer iteratively. The subsequent layers including routing layers and a core layer formed on each side of the removable carrier layer, the core layer including through holes having a larger gauge than through holes included in the routing layers. A number of layers on a first side of the core layer, between the core layer and the carrier layer, is different than a number of layers on a second side of the core layer. The carrier layer is removed to produce two asymmetric substrates, each asymmetric substrate including one of the at least one core layers.

Abstract: Various embodiments disclosed relate to semiconductor device and method of making the same using functional silanes. In various embodiments, the present invention provides a semiconductor device including a silicon die component having a first silica surface. The semiconductor device includes a dielectric layer having a second surface generally facing the first silica surface. The semiconductor device includes an interface defined between the first surface and the second surface. The semiconductor device also includes a silane based adhesion promoter layer disposed within the junction and bonded to at least one of the first silica surface and the dielectric layer second surface.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: An asymmetric electronic substrate and method of making the substrate includes forming a first layer on each opposing major surface of a removable carrier layer, the first layer being a routing layer, simultaneously laminating the first layers, and building up subsequent layers on layers previously formed and laminated on the removable carrier layer iteratively. The subsequent layers including routing layers and a core layer formed on each side of the removable carrier layer, the core layer including through holes having a larger gauge than through holes included in the routing layers. A number of layers on a first side of the core layer, between the core layer and the carrier layer, is different than a number of layers on a second side of the core layer. The carrier layer is removed to produce two asymmetric substrates, each asymmetric substrate including one of the at least one core layers.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: An asymmetric electronic substrate and method of making the substrate includes forming a first layer on each opposing major surface of a removable carrier layer, the first layer being a routing layer, simultaneously laminating the first layers, and building up subsequent layers on layers previously formed and laminated on the removable carrier layer iteratively. The subsequent layers including routing layers and a core layer formed on each side of the removable carrier layer, the core layer including through holes having a larger gauge than through holes included in the routing layers. A number of layers on a first side of the core layer, between the core layer and the carrier layer, is different than a number of layers on a second side of the core layer. The carrier layer is removed to produce two asymmetric substrates, each asymmetric substrate including one of the at least one core layers.

Abstract: A die interconnect substrate comprises a bridge die comprising at least one bridge interconnect connecting a first bridge die pad of the bridge die to a second bridge die pad of the bridge die. The die interconnect substrate comprises a multilayer substrate structure comprising a substrate interconnect, wherein the bridge die is embedded in the multilayer substrate structure. The die interconnect substrate comprises a via portion formed on the first bridge die pad of the bridge die. An average angle between a surface of the first bridge die pad and a sidewall of the via portion lies between 85° and 95°.

Abstract: Various embodiments disclosed relate to semiconductor device and method of making the same using functional silanes. In various embodiments, the present invention provides a semiconductor device including a silicon die component having a first silica surface. The semiconductor device includes a dielectric layer having a second surface generally facing the first silica surface. The semiconductor device includes an interface defined between the first surface and the second surface. The semiconductor device also includes a silane based adhesion promoter layer disposed within the junction and bonded to at least one of the first silica surface and the dielectric layer second surface.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: Embodiments disclosed include a multilayer substrate for semiconductor packaging. The substrate may include a first layer with a first side with an xy-plane and individual locations on the first side have a first side distance below the first side xy-plane, and a second side with a second side xy-plane and individual locations on the second side may have a second side distance below the second side xy-plane; and a second layer with a first side coupled to the second side of the first layer and a second side opposite the first side of the second layer, wherein a thickness of the second layer at the individual locations on the second layer may be comprised of the first side distance plus the second side distance. Other embodiments may be described and/or claimed.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: This disclosure relates generally to an electronic package and methods that include an electrically conductive pad, a package insulator layer including a substantially non-conductive material, the package insulator layer being substantially planar, and a via. The via may be formed within the package insulator layer and electrically coupled to the electrically conductive pad. The via may include a conductor extending vertically through at least part of the package insulator layer and having a first end proximate the electrically conductive pad and a second end opposite the first end and a finish layer secured to the second end of the conductor, the finish layer including a gold compound.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.

Abstract: Embodiments that allow multi-chip interconnect using organic bridges are described. In some embodiments an organic package substrate has an embedded organic bridge. The organic bridge can have interconnect structures that allow attachment of die to be interconnected by the organic bridge. In some embodiments, the organic bridge comprises a metal routing layer, a metal pad layer and interleaved organic polymer dielectric layers but without a substrate layer. Embodiments having only a few layers may be embedded into the top layer or top few layers of the organic package substrate. Methods of manufacture are also described.