Abstract:
A total internal reflection sub-assembly includes a body defining at least a portion of an optical path, a lens supported by the body and positioned in the optical path, and an optical turning member supported by the body and configured to change the direction of the optical path. The total internal reflection sub-assembly also includes a carrier having a first surface coupled to the body and a second surface opposite the first surface. An active device is supported on the first surface of the carrier, which is coupled to the body on opposite sides of the active device. The body and carrier are shaped so that a space is maintained between the active device and an underside surface of the body. The lens is positioned on the underside surface and aligned with the active device.
Abstract:
A battery module and a method of manufacture are provided. The battery module may include a printed circuit board (PCB) assembly. The PCB assembly may include a PCB designed to be disposed in a battery module for controlling operations of the battery module. The PCB may also include voltage sensing circuitry. In addition, the PCB assembly may include a bus bar cell interconnect. The bus bar cell interconnect may electrically couple batteries of the battery module. The PCB assembly may also include a voltage sense connection tab. The voltage sense connection tab may carry a voltage between a bus bar cell interconnect of the battery module and the voltage sensing circuitry on the PCB.
Abstract:
A method of encapsulating a panel of electronic components such as power converters reduces wasted printed circuit board area. The panel, which may include a plurality of components, may be cut into one or more individual pieces after encapsulation with the mold forming part of the finished product, e.g. providing heat sink fins or a surface mount solderable surface. Interconnection features provided along boundaries of individual circuits are exposed during the singulation process providing electrical connections to the components without wasting valuable PCB surface area. The molds may include various internal features such as registration features accurately locating the circuit board within the mold cavity, interlocking contours for structural integrity of the singulated module, contours to match component shapes and sizes enhancing heat removal from internal components and reducing the required volume of encapsulant, clearance channels providing safety agency spacing and setbacks for the interconnects. Wide cuts may be made in the molds after encapsulation reducing thermal stresses and reducing the thickness of material to be cut during subsequent singulation. External mold features can include various fin configurations for heat sinks, flat surfaces for surface mounting or soldering, etc. Blank mold panels may be machined to provide some or all of the above features in an on-demand manufacturing system. Connection adapters may be provided to use the modules in vertical or horizontal mounting positions in connector, through-hole, surface-mount solder variations. The interconnects may be plated to provide a connectorized module that may be inserted into a mating connector.
Abstract:
A method of encapsulating a panel of electronic components such as power converters reduces wasted printed circuit board area. The panel, which may include a plurality of components, may be cut into one or more individual pieces after encapsulation. The mold may be used to form part of the finished product. Interconnection features provided along boundaries of individual circuits are exposed during the singulation process providing electrical connections to the components without wasting valuable PCB surface area. The molds may include various internal features. Wide cuts may be made in the molds after encapsulation reducing thermal stresses. Blank mold panels may be machined to provide some or all of the above features in an on-demand manufacturing system. Connection adapters may be provided to use the modules in vertical or horizontal mounting positions in connector, through-hole, surface-mount solder variations.
Abstract:
Provided is a device packaging structure including: an interposer substrate including a substrate, and a plurality of through-hole interconnections formed inside a plurality of through-holes passing through the substrate from a first main surface toward a second main surface, the first main surface being one main surface of the substrate, the second main surface being the other main surface thereof; a first device which includes a plurality of electrodes and is arranged so that these electrodes face the first main surface; and a second device which includes a plurality of electrodes of which an arrangement is different from an arrangement of each of the electrodes of the first device, and is arranged so that these electrodes face the second main surface.
Abstract:
An information handling system circuit board interfaces storage device surface connectors and storage device controllers disposed on opposing sides by coupling a first circuit board portion having a controller press in connector to a second circuit board portion having plural surface connectors. The first and second circuit board portions couple to each other with an adhesive activated by curing. Resistant ink is printed over openings of the first circuit board portion where adhesive is applied in order to prevent the adhesive from flowing into the openings at or before the curing of the adhesive.
Abstract:
A main object of the present invention is to provide a suspension substrate capable of supplying electric power easily to an assisting element fitted thereto. The object is attained by providing a suspension substrate comprising a metal supporting substrate, an insulating layer formed on the metal supporting substrate, and a wiring layer formed on the insulating layer, wherein the metal supporting substrate has, in a recording element mounting region for mounting a recording element, an opening for arranging and fitting thereinto a heat assisting element, wherein the wiring layer has a heat assisting wiring layer having a terminal section for supplying electric power directly to the heat assisting element.
Abstract:
An electronic apparatus may include a circuit board, a processor disposed on an upper surface of the circuit board, and a memory disposed on a lower surface of the circuit board, such that the lower surface of the circuit board where the processor is arranged overlaps an area corresponding to where the memory is disposed.
Abstract:
In one embodiment, the present invention includes a method of mounting a semiconductor device to a first side of a circuit board; and mounting at least one voltage regulator device to a second side of the circuit board, the second side opposite to the first side. The voltage regulator devices may be output filters, inductors, capacitors, and the like. In certain embodiments, the devices may be located directly underneath the semiconductor device.
Abstract:
A microelectronic assembly can include a circuit panel having first and second surfaces and panel contacts at each surface, and first and second microelectronic packages having terminals mounted to the panel contacts at the first and second surfaces, respectively. The circuit panel can electrically interconnect terminals of the first package with corresponding terminals of the second package. Each package can include a substrate having first and second surfaces, a microelectronic element, conductive structure extending above a front face of the microelectronic element, and parallel columns of terminals at the second surface. The terminals of each package can include first terminals in a central region of the respective second surface and configured to carry address information usable by circuitry within the package to determine an addressable memory location within the respective microelectronic element. Each central region can have a width within three and one-half times a minimum pitch between adjacent terminals.