Abstract:
A semiconductor unit includes an interface plate, a supporting plate integrally formed with the interface plate, two chip packages positioned at opposite sides of the supporting plate, and leading traces running in the interface plate and the supporting plate, connected with the chip packages respectively.
Abstract:
A method of manufacturing a semiconductor package may include: forming a first board; forming second boards, in each of which at least one cavity is formed; attaching the second boards to both sides of the first board, such that the second boards are electrically connected with the first board; and connecting at least one component with the first board by a flip chip method by embedding the component in the cavity. The method can prevent damage to the semiconductor chips and lower manufacturing costs, while the connection material may also mitigate stresses, to prevent cracking in the boards and semiconductor chips, while preventing defects such as bending and warpage. Defects caused by temperature changes may also be avoided. Furthermore, it is not necessary to use an underfill in the portions where the semiconductor chips are connected with the printed circuit board, which allows for easier reworking and lower costs.
Abstract:
A semiconductor package module includes a circuit board including a board body having a receiving portion and conductive patterns formed on the board body; a semiconductor package received in the receiving portion and having conductive terminals electrically connected to the conductive patterns and an s semiconductor chip electrically connected to the conductive terminals; and a connection member electrically connecting the conductive patterns and the conductive terminals. In the present invention, after a receiving portion having a receiving space is formed in the board body of a circuit board and a semiconductor package is received in the receiving portion, and a connection terminal of the semiconductor package and a conductive pattern of the board body are electrically connected using a connection member, a plurality of semiconductor packages can be stacked in a single circuit board without increasing the thickness thereby significantly improving data storage capacity and data processing speed of the semiconductor package module.
Abstract:
A multilayered printed circuit board includes a first surface layer that includes a semiconductor integrated circuit, a second surface layer that includes a bypass capacitor and that is opposite to the first surface layer, a main power supply wiring layer, and a ground layer between the first and second surface layers. In the multilayered printed circuit board, one terminal of the bypass capacitor is connected to a midpoint of a wiring path from the main power supply wiring layer to a power supply terminal of the semiconductor integrated circuit, and an impedance of a first wiring path from the main power supply wiring layer to the terminal of the bypass capacitor is higher than an impedance of a second wiring path from the terminal of the bypass capacitor to the power supply terminal of the semiconductor integrated circuit.
Abstract:
In some embodiments, a ceramic interposer with silicon voltage regulator and array capacitor combination for integrated circuit packages is presented. In this regard, an apparatus is introduced having a bowl-shaped ceramic interposer containing conductive traces, one or more silicon voltage regulator(s) coupled with contacts on a first surface of the ceramic interposer, and one or more array capacitor(s) coupled with contacts on a second surface of the ceramic interposer. Other embodiments are also disclosed and claimed.
Abstract:
The present invention relates to a method of manufacturing a wiring board comprising: a build-up layer, in which wiring patterns are piled with insulating layers; and a core substrate, which is separately formed from the build-up layer, the method comprising the steps of: separably forming the build-up layer on a plate-shaped support; electrically connecting the core substrate to the wiring patterns of the build-up layer on the support; and removing the support from the build-up layer so as to form the wiring board, in which the build-up layer is connected to the core substrate. By separably forming the build-up layer and the core substrate, the wiring board effectively exhibiting characteristics thereof can be produced.
Abstract:
A method including depositing a suspension of a colloid comprising an amount of nano-particles of a ceramic material on a substrate; and thermally treating the suspension to form a thin film. A method including depositing a plurality of nano-particles of a ceramic material to pre-determined locations across a surface of a substrate; and thermally treating the plurality of nano-particles to form a thin film. A system including a computing device comprising a microprocessor, the microprocessor coupled to a printed circuit board through a substrate, the substrate comprising at least one capacitor structure formed on a surface, the capacitor structure comprising a first electrode, a second electrode, and a ceramic material disposed between the first electrode and the second electrode, wherein the ceramic material comprises columnar grains.
Abstract:
A circuit board module has an IC device, discrete components, and a circuit board structure in electrical communication with the IC device and the discrete component. The circuit board structure includes non-conductive material defining a top surface of the circuit board structure and a bottom surface of the circuit board structure, vias supported by the non-conductive material, top pads electrically coupled to the vias, and bottom pads electrically coupled to the vias. The top pads are disposed along the top surface of the circuit board structure and are soldered to IC device. The bottom pads are disposed along the bottom surface of the circuit board structure and are configured to solder to the discrete components. The bottom pads include a group of angled bottom pads which is soldered to a group of the discrete components substantially at 45 degree angles relative to sides of the IC device.
Abstract:
Coil(s) 11 and coil(s) 12 of LC resonant circuit(s) are oriented such that their centers are mutually perpendicular. For example, coil 11 might be mounted so as to stand upright on printed wiring board, and coil 12 might be mounted so as to lie flush against printed wiring board. Such configuration permitting lines of magnetic force from coil 11 and coil 12 to be oriented so as to be mutually perpendicular, lines of magnetic force from coil 11 and coil 12 do not merge, and coil 11 and coil 12 are not electromagnetically coupled. Accordingly, inductances of respective coils 11, 12 are unchanged; impedance frequency characteristics of respective LC resonant circuits are maintained at what they should be; and resonant impedance(s) is/are not lowered.
Abstract:
A package design is provided where a chip module is connected to a printed circuit board (PCB) via a land grid array (LGA) on the top surface of the PCB, and where a power supply is connected to the PCB via a second LGA on the bottom surface of the PCB. The stack of the chip module, power supply, and LGA is held in place and compressed with actuation hardware forming an adjustable frame. The package allows field replacibility of either the module, or the PS, and provides the shortest possible wiring distance from the PS to the module leading to higher performance.