Abstract:
A memory module with attached transposer and interposers to provide additional surface area for the placement of memory devices is disclosed. The memory module includes a memory board with a first surface, a second surface and an edge with a set of electrical contacts. A transposer is attached to each surface of the memory board, and an interposer is attached to each transposer on the opposite surface of the transposer from the memory board. The interposer has space to allow placement of memory devices on both a first surface between the interposer and the memory board, and on a second surface of the interposer away from the memory board.
Abstract:
A stacked microprocessor package architecture includes one or more microprocessor packages, the microprocessor packages including one or more microprocessor die disposed on a substrate, a satellite die, a thermal bus thermally coupled to the microprocessor die and thermally connected to system cooling, and a power bus providing power to the microprocessor die and coupled to system power. The microprocessor packages may include a module cap providing mechanical protection and/or thermal isolation or a thermal cooling path for stacked modules. Variable height standoffs provide signal connection from substrates of the stacked microprocessor packages to a system board.
Abstract:
Provided is a high-voltage power supply including a board having at least one bent portion separating a first region of the board from a second region of the board, the first region not being coplanar with the second region of the board; a first circuit, on the first region of the board, generating a second voltage according to a first voltage; and a second circuit, on the second region of the board, amplifying the second voltage and then rectifying the amplified second voltage.
Abstract:
Disclosed is an LED light bulb having safe and efficient heat dissipation, while also providing maximum light distribution by providing multiple printed circuit boards arranged in a pyramidal structure, having multiple LEDs. The multiple printed circuit boards are connected by conductor wires contained within a transparent housing, so that the multiple printed circuit boards sit on a base of the LED light bulb. A bottom printed circuit board may also be employed if additional circuitry is desired.
Abstract:
Provided are a power device package, which can be made compact by vertically stacking substrates on which semiconductor chips are mounted, and a method of fabricating the power device package. The power device package includes: a first substrate comprising a first surface and a second surface opposite to each other, and a first wiring pattern formed on the first surface; one or more power semiconductor chips mounted on the first surface of the first substrate and electrically connected to the first wiring pattern; a second substrate vertically spaced apart from the first substrate and comprising a second wiring pattern; one or more first control semiconductor chips mounted on the second substrate and electrically connected to the second wiring pattern; a lead frame electrically connected to the first wiring pattern and the second wiring pattern; and a sealing member sealing the first substrate, the power semiconductor chips, the second substrate, the first control semiconductor chips, and at least a part of the lead frame so as to expose the second surface of the first substrate.
Abstract:
A stack structure of a circuit board includes a first substrate, a second substrate and a fixing element. The first substrate has a first component area, a plurality of supporting solder elements, and a plurality of signal solder elements, wherein the plurality of signal elements is disposed in the first component area. The first substrate stacks on the second substrate. The plurality of supporting solder elements is disposed between the first and the second substrates for providing a supporting force. The fixing element secures the first substrate and the second substrate, and the supporting solder elements are disposed around the fixing element.
Abstract:
A socket structure stack and a socket structure thereof are provided. The socket structure stack includes at least two socket structures, and each socket structure includes a main body, a plurality of conductive elements, and a plurality of connecting elements. The main body includes an inner plate and an outer plate, wherein the inner plate has a receiving portion and an embedded portion. The conductive elements are embedded in the embedded portion, and the connecting elements are mounted on the outer plate so as to connect adjacent socket structures together. The socket structures are so configured that ICs, processors, and printed circuit boards connected to the socket structures or the socket structures themselves can be recycled. Moreover, the printed circuit boards can be easily assembled to the socket structures, and the socket structures can be stacked up and securely connected to form a 3D structure which is otherwise difficult to put together by soldering.
Abstract:
Systems and method for using a direct connect RF pin configuration for an ONU transceiver module to connect directly to an external component. The ONU module communicates with an optical network. The ONU module further includes an RF interface and a direct connect RF pin configuration to communicate using RF signals. In one embodiment, the direct connect RF pin configuration includes two ground pins and a data pin which are spaced apart and directly connected to a PCB of the ONU. The opposing ends of the pins are directly connected to a PCB of an external component, such as an ONU host box. The pins are thus spaced apart such that they do not impede each others' function and available for direct connection to the external component.
Abstract:
A semiconductor memory module includes a printed circuit board (PCB) including a rigid PCB part and a flexible PCB part including an overlap portion, a non-overlap portion, and memory components mounted on the PCB. The rigid PCB part includes a first surface and a second surface facing the first surface. The overlap portion of the flexible PCB part overlaps the rigid PCB part, and the non-overlap portion does not overlap the rigid PCB part. The flexible PCB part may include an overlap stacked structure including at least one doubling portion.
Abstract:
An image-sensing module for reducing its overall thickness and preventing electromagnetic interference (EMI) includes a flexible substrate, an image sensor, and a plurality of electronic elements. The flexible substrate has a first PCB (Printed Circuit Board), a flexible bending board bent upwards from one side of the first PCB, and a second PCB extending forwards from the flexible bending board and disposed above the first PCB. The second PCB has at least one first opening. The image sensor is electrically disposed on the first PCB, and the image sensor is exposed by the first opening of the second PCB. The electronic elements are selectively electrically disposed on the first PCB and/or on the second PCB so that the electronic elements are disposed between the first PCB and the second PCB.