Abstract:
The invention relates to a semiconductor component (10) comprising an interposer substrate (1) and provided in the form of a stack element of a semiconductor component stack (25). The interposer substrate (1) comprises, on one of the interposer substrate sides (2, 4), a semiconductor chip that is protected in its lateral edges (22) by a plastic compound (12). An interposer structure (3) is placed on the interposer side (2, 4) opposite the semiconductor chip (6) and is partially covered by a plastic compound (12). Edge areas (11) of the interposer substrate (1) remain free from any plastic compound (12) and have, on both interposer sides (2, 4), outer lands (7) which are connected to one another by via holes (8).
Abstract:
The invention relates to a semiconductor component comprising a plastic housing (41), at least one semiconductor chip (1), and a rewiring layer (8). The rewiring layer (8) is provided with an insulating level (9) and a rewiring level (10). The rewiring level (10) encompasses alternately disposed parallel signal conductors (12) and ground or power supply conductors (13) or exclusively parallel signal conductors (12). In the latter case, a electrically conducting metallic layer that can be connected to ground potential or power supply potential is additionally provided to close the rewiring layer or in the form of a coating.
Abstract:
The invention relates to a semiconductor component (1) comprising a synthetic housing material (2), a semiconductor chip (3) and a circuit support (4). The semiconductor chip (3) is embedded in the synthetic housing material (2). The top surface of the semiconductor chip (3) and the synthetic housing material (2) are disposed on a circuit support (4). An elastic adhesive layer (11) is interposed between the circuit support (4) and the synthetic housing material (2) comprising the semiconductor chip (3), thereby mechanically decoupling an upper area from a lower area of the semiconductor component (1).
Abstract:
The FBGA (fine pitch ball grid array) connection device (5) is for face-down integrated circuit chips (6). It has balls of solder (14) acting as electrical contacts on the underside of the chip. The balls are in contact with through-connectors (13) under a copper layer (18) and the chip. The connectors extend through two substrate plates (1,2). A central bonding channel extends through holes in the substrate. It consists of a stepped diameter cast mass of insulating material (16) containing bridging wires (10). The chip is encapsulated in a molding compound (17).
Abstract:
An electronic component has a chip stack with a first semiconductor chip, a second semiconductor chip, and a large number of flat conductors configured in between the first semiconductor chip and the a second semiconductor chip. The flat conductors have a central section on which the semiconductor chips are mounted. First bonding connections connect the first semiconductor chip to inner sections of the flat conductors. Second bonding connections connect the second semiconductor chip to transitional sections of the flat conductors. The outer sections of the flat conductors project out of a package.
Abstract:
A semiconductor module having an internal semiconductor chip stack on a wiring substrate is disclosed. In one embodiment, the semiconductor chip stack has semiconductor chips which are arranged such that they are offset, the semiconductor chips having bonding connection pads in at least one edge region of their active top side. These bonding connection pads are electrically connected to the wiring substrate via bonding connections. In this case, the semiconductor chips are stacked on top of one another in an offset manner such that the bonding connection pads remain free of a semiconductor chip which is stacked on top of them. In this case, the semiconductor chips may be identical silicon chips which may differ, for example in pairs, in terms of their wiring structure for the centrally arranged contact areas in different edge regions.
Abstract:
The module has an inner semiconductor chip stack (2) that exhibits an upper semiconductor chip and a lower semiconductor chip (4). The lower semiconductor chip exhibits a back wiring structure on its back. The lower semiconductor chip is electrically connected with flip chip contacts of the upper semiconductor chip. The back wiring structure stands over bond connections with external contacts of wiring substrates that are connected. An independent claim is also included for a method for manufacturing a semiconductor module.
Abstract:
An electronic component comprises a semiconductor chip stack (3,4) on a wiring substrate (11) having external contacts (12). Between the chips is a wiring layer (7) having a through opening (8) and contact regions (9,10). Connections are made through the opening and there is a plastic housing (18,19) for the component. An Independent claim is also included for a production process for the above.
Abstract:
Dual-die ball grid array (DDBGA) (30) comprises copper wiring planes on a multiplanar substrate (33) with stacked dies with opposite ball pads to receive solder balls (37) that are electrically connected to bond pads on the dies. The electrical leads to connect the lower dies (35) to the ball pads of the ball grid array substrate are lengthened to correspond with the length of the upper die (46) connections in which chip signals of the lower dies are led around from the form the wire bridges (32) through vias (41) in the substrate on to additional leads (42).
Abstract:
A semiconductor module having an internal semiconductor chip stack on a wiring substrate is disclosed. In one embodiment, the semiconductor chip stack has semiconductor chips which are arranged such that they are offset, the semiconductor chips having bonding connection pads in at least one edge region of their active top side. These bonding connection pads are electrically connected to the wiring substrate via bonding connections. In this case, the semiconductor chips are stacked on top of one another in an offset manner such that the bonding connection pads remain free of a semiconductor chip which is stacked on top of them. In this case, the semiconductor chips may be identical silicon chips which may differ, for example in pairs, in terms of their wiring structure for the centrally arranged contact areas in different edge regions.