Abstract: Chip scale package semiconductor devices include a semiconductor chip and a protective member attached to an active surface of the semiconductor chip. At least one electrically conductive pad of the semiconductor chip is exposed through the protective member. The protective member includes a cantilevered portion that extends laterally beyond a lateral boundary of the semiconductor chip. Semiconductor device assemblies include such chip scale semiconductor devices and a higher level substrate. Semiconductor chip support structures include a substantially planar carrier member and at least one protective member removably coupled thereto and configured to protect at least a portion of an active surface of a semiconductor chip. Methods for packaging at least one semiconductor chip include providing a semiconductor chip and a protective member, and attaching the protective member to the semiconductor chip.

Abstract: A substrate includes first and second regions over which first and second semiconductor devices are to be respectively positioned. The first region is located at least partially within the second region. Contact areas are located external to the first region but within the second region. In one embodiment, in which semiconductor devices are to be stacked over and secured to the substrate in a flip-chip type arrangement, the contact areas correspond to bond pads of an upper, second semiconductor device, while other contact areas located within the first region correspond to bond pads of a lower, first semiconductor device. In another embodiment, the contact areas correspond to bond pads of the first semiconductor device, which are electrically connected thereto by way of laterally extending discrete conductive elements, while other contact areas that are located external to the second region correspond to bond pads of the upper, second semiconductor device.

Abstract: A modular bare die socket assembly is provided for attaching a plurality of miniature semiconductor die to a substrate. The socket assembly is comprised of a plurality of two-sided plates joined vertically in a horizontal stack, wherein each plate has a die socket for the removable insertion of a bare semiconductor die. A multi-layer interconnect lead tape has a plurality of lithographically formed leads bent on one end to form nodes for attachment to bond pads on the removably inserted semiconductor die, and having opposing ends connectable to the substrate.

Abstract: A semiconductor package is provided which includes a substrate having a plurality of semiconductor dice mounted thereon. The substrate is divided into segments by grooves formed in the bottom surface of the substrate. Each semiconductor die is electrically connected to the substrate by electrical connections which extend from bond pads on the semiconductor die to corresponding bond pads on the substrate. An encapsulant is formed over each segment and contains grooves which correspond to the grooves of the substrate. Break points are thus formed at the grooves to permit the segments to be easily detached from the substrate to form individual integrated circuits.

Abstract: A dense semiconductor flip-chip device assembly is provided with a heat sink/spreading/dissipating member that is formed as a paddle of a metallic paddle frame in a strip of paddle frames. Semiconductor dice are bonded to the paddles by, e.g., conventional die attach methods, enabling bump attachment and testing to be conducted before detachment from the paddle frame strip.

Abstract: A rerouting element for a semiconductor device includes a substantially planar member that carries at least one contact location, at least one conductive, at least one rerouted bond pad. The contact location is positioned adjacent to a first periphered edge of the substantially planar member and at a location that corresponds to the location of a bond pad of a semiconductor device with which the rerouting element is to be used. The at least one conductive element, which communicates with the at least one contact location, reroutes the bond pad location of the semiconductor device to a corresponding rerouted bond pad location adjacent to a second one peripheral edge of the rerouted substantially planar member which is opposite the first periphered edge. In addition, assemblies including rerouting elements and methods for designing and using rerouting elements are disclosed.

Abstract: A leadframe configuration for a semiconductor device that has a die attach paddle with paddle support bars. In addition, clamp tabs extend outwardly from lesser supported locations of the paddle to underlie a conventional lead clamp. The clamp tabs are formed as an integral part of the paddle. Normal clamping during die attach and wire bonding operations prevents paddle movement and enhances integrity of the die bond and wire bonds.

Abstract: A semiconductor device assembly includes a semiconductor device and a lead frame having lead fingers for connection to the semiconductor device. The lead frame may include floating NC lead fingers with inner portions of the floating NC lead fingers electrically isolated from the semiconductor device and the associated outer portion of the floating NC lead fingers. Floating NC lead fingers may separate lead fingers prone to causing induction noise from lead fingers subject to induction effects. The floating NC lead fingers may thus reduce the inductance noise of the lead fingers. The floating NC lead fingers may also allow the semiconductor device to be securely adhered to the lead fingers with no air pockets therebetween. A method of forming a semiconductor device assembly is also provided.

Abstract: A multi-part lead frame semiconductor device assembly is disclosed including a die bonded to a die paddle. A second lead frame including leads is superimposed and bonded onto the first lead frame. Also disclosed is a method for fabricating the multi-part lead frame semiconductor device assembly which utilizes equipment designed for single lead frame processing. If desired, the materials for the multi-part lead frame may be dissimilar.

Abstract: A lead frame assembly includes at least two layers, each including an electrically conductive bus and a group of leads that extend substantially from a first edge of the assembly. The leads of each layer may include portions that extend in substantially the same direction. The electrically conductive buses are at least partially superimposed with respect to one another. Leads of one of the layers may be arranged in groups which flank the remainder of the lead of another layer. A dielectric element is disposed at least partially between the layers; for example, between at least portions of the superimposed regions of the buses. One of the buses may be connectable to a power supply source (Vcc), while the other may be connectable to a power supply ground (Vss). In such an arrangement, the mutually superimposed regions of the buses may form a decoupling capacitor.

Abstract: A rerouting element for a semiconductor device includes a dielectric film that carries conductive vias, conductive elements, and contact pads. The conductive vias are positioned at locations that correspond to the locations of bond pads of a semiconductor device with which the rerouting element is to be used. The conductive elements, which communicate with corresponding conductive vias, reroute the bond pad locations to corresponding contact pad locations adjacent to one peripheral edge or two adjacent peripheral edges of the rerouted semiconductor device. The rerouting element is particularly useful for rerouting centrally located bond pads of a semiconductor device, as well as for rerouting the peripheral locations of bond pads of a semiconductor device to one or two adjacent peripheral edges thereof. In addition, methods for designing and using rerouting elements are disclosed.

Abstract: Ball grid array packages that can be stacked to form highly dense components and the method for stacking ball grid arrays. The ball grid array packages comprise flexible or rigid substrates. The ball grid array packages additionally comprise an arrangement for the substantial matching of impedance for the circuits connected to the semiconductor devices.

Abstract: A memory package having a plurality of vertically stacked ball grid arrays. Each of the vertically stacked ball grid arrays has a memory chip coupled thereto. Further, each of the plurality of ball grid arrays includes non-metal mateable alignment features. Each of the plurality of ball grid arrays is coupled to another of the plurality of ball grid arrays to from the vertically stacked memory package.

Abstract: Ball grid array packages that can be stacked to form highly dense components and the method for stacking ball grid arrays. The ball grid array packages comprise flexible or rigid substrates. The ball grid array packages additionally comprise an arrangement for the substantial matching of impedance for the circuits connected to the semiconductor devices.

Abstract: Ball grid array packages that can be stacked to form highly dense components and the method for stacking ball grid arrays. The ball grid array packages comprise flexible or rigid substrates. The ball grid array packages additionally comprise an arrangement for the substantial matching of impedance for the circuits connected to the semiconductor devices.

Abstract: A semiconductor device assembly includes a semiconductor device and a lead frame having lead fingers for connection to the semiconductor device. The lead frame may include floating NC lead fingers with inner portions of the floating NC lead fingers electrically isolated from the semiconductor device and the associated outer portion of the floating NC lead fingers. Floating NC lead fingers may separate lead fingers prone to causing induction noise from lead fingers subject to induction effects. The floating NC lead fingers may also allow the semiconductor device to be securely adhered to the lead fingers with no air pockets therebetween. A method of forming a semiconductor device assembly is also provided.

Abstract: A semiconductor component includes adjustment circuitry configured to adjust selected physical and electrical characteristics of the component or elements thereof, and an input/output configuration of the component. The component includes a semiconductor die, a substrate attached to the die, and terminal contacts on the substrate. The adjustment circuitry includes conductors and programmable links, such as fuses or anti-fuses, in electrical communication with the die and the terminal contacts. The adjustment circuit can also include capacitors and inductance conductors. The programmable links can be placed in a selected state (e.g., short or open) using a laser or programming signals. A method for fabricating the component includes the steps of forming the adjustment circuitry, and then placing the programmable links in the selected state to achieve the selected adjustment.

Abstract: A modular bare die socket assembly is provided for attaching a plurality of miniature semiconductor dice to a substrate. The socket assembly is comprised of a plurality of two-sided plates joined vertically in a horizontal stack, wherein each plate has a die socket for the removable insertion of a bare semiconductor die. A multi-layer interconnect lead tape has a plurality of lithographically formed leads bent on one end to form nodes for attachment to bond pads on the removably inserted semiconductor die, and having opposing ends connectable to the substrate.

Abstract: A semiconductor package is provided which includes a substrate having a plurality of semiconductor dice mounted thereon. The substrate is divided into segments by grooves formed in the bottom surface of the substrate. Each semiconductor die is electrically connected to the substrate by electrical connections which extend from bond pads on the semiconductor die to corresponding bond pads on the substrate. An encapsulant is formed over each segment and contains grooves which correspond to the grooves of the substrate. Break points are thus formed at the grooves to permit the segments to be easily detached from the substrate to form individual integrated circuits.

Abstract: A semiconductor device assembly including a semiconductor device having a plurality of bond pads on the active surface thereof and a lead frame having a portion of the plurality of lead fingers of the lead frame located below the semiconductor device in a substantially horizontal plane and another portion of the plurality of lead fingers of the lead frame located substantially in the same horizontal plane as the active surface of the semiconductor device. Both pluralities of lead fingers of the lead frame having their ends being located substantially adjacent the peripheral sides of the semiconductor device, rather than at the ends thereof.