A semiconductor component system includes a motherboard and a cooling system mounted to the motherboard. The cooling system includes sidewalls projecting from the motherboard. A sub-motherboard extends between the sidewalls and is spaced apart from the motherboard. The sidewalls and the sub-motherboard define a cooling channel over the motherboard. A connector is attached to the sub-motherboard and is configured to receive a semiconductor device daughterboard. The connector has contacts to electrically couple the semiconductor device daughterboard to the sub-motherboard.

A camera module for a vehicular vision system includes a front camera housing having a housing portion and a cylindrical lens barrel extending from the housing portion and accommodating a lens. An imager printed circuit board is attached at the front camera housing portion. With the imager printed circuit board attached at the front camera housing, the imager is optically aligned with an optical axis of the lens. A rear camera housing portion is mated with the housing portion of the front camera housing so as to encase the imager printed circuit board in the camera module. The housing portion of the front camera housing includes mounting structure configured to mount the camera module at a vehicle. The lens barrel includes a material having a lower coefficient of thermal expansion as compared to the material of the front camera housing.

The present document describes a passive thermal-control structure for speakers and associated apparatuses and methods. The architecture of the passive thermal-control structure is such that heat is transferred from electronic subsystems of the electronic speaker device to the passive thermal-control structure, which acts as an internal, structural frame of the electronic speaker device and provides both thermal mitigation and structural stability. The passive thermal-control structure conducts heat from the electronic subsystems to a housing of the electronic speaker device. The housing of the electronic speaker device may dissipate the heat to the ambient environment to prevent thermal runaway of the electronic subsystems, and the internal frame mitigates the temperature of the housing from exceeding ergonomic temperature limits.

Provided is a highly reliable power circuit device. The power circuit device includes a printed substrate, a power circuit, and a housing. The power circuit is formed on the printed substrate. The housing is connected with the printed substrate. The power circuit includes secondary-side switching elements, at least one smoothing choke coil, and smoothing capacitors. Portions of a smoothing choke coil core serving as a core of the smoothing choke coil are inserted in opening portions formed in the printed substrate. A winding of the smoothing choke coil is formed on the printed substrate. The smoothing choke coil is located between a region C in which the smoothing capacitors are arranged and regions A and B serving as a second region in which primary-side switching elements and the secondary-side switching elements serving as electric elements are arranged.

Examples described herein relate to a system. The system can include a container that contains fluid to provide two phase immersion liquid cooling (2PILC) for a system within the container. The container can enclose a first circuit board with a first side of the first circuit board is conductively coupled to at least one device. The container can enclose a motherboard conductively coupled to a second side of the first circuit board with a first side of the motherboard is conductively coupled to the second side of the first circuit board. The motherboard can include at least four edges. Connectors can conductively connect the motherboard with a second circuit board. The second circuit board can include at least four edges and an edge of the motherboard is oriented approximately 90 degrees to an edge of the second circuit board. At least one device can include one or more of: a processor, memory device, accelerator device, or network interface.

An electronic device includes a heat generator including at least an electronic component generating heat, a case dissipating heat from the heat generator, a heat conductive member conducting heat of the heat generator to a heat dissipation member, and a metal bonding layer interposing between the heat generator and the heat conductive member and including at least a first bonding layer using gold or gold alloy as a constituting material. Thickness of the metal bonding layer is smaller than flatness of a bonding region which is bonded to a metal bonding layer on a facing surface of the heat generator and a facing surface of the heat conductive member. The heat conductive member has flexibility, is joined to the heat generator via the metal bonding layer, and is in contact with the case.

A detection module may be optically aligned with an optical lens assembly in a LiDAR system with a thermal management block. The thermal management block may be movably coupled to the chassis with a first screw. The detection module may be optically aligned relative to the optical lens assembly so that a laser beam emitted from a laser module is oriented with an optical path in the optical lens assembly to the detection module. The thermal management block may be translated to be adjacent to the detection module and the first screw may be tightened to fixedly couple the thermal management block to the chassis. Adhesive may be applied and cured between the thermal management block and the detection module to fixedly couple the detection module to the chassis. Thermal gel may be applied between the thermal management block and the detection module in order to form a thermal bridge.

A heat generating component is mounted on a circuit board housed and fixed in a case including a base and a cover. Heat generated from the circuit board is transferred from a back surface of the circuit board via an insulating sheet to a heat transfer base portion formed on an inner surface of the base. Protruding portions configured to press the circuit board through elastic bodies are formed on an inner surface of the cover. When a peripheral portion of the circuit board is in pressure contact with and sandwiched between base-side and cover-side hold portions, curvature deformation of the peripheral portion of the circuit board occurs in a downward direction. Before start of the curvature deformation, the elastic bodies are brought into abutment against a front surface of the circuit board to suppress a reduction in pressure contact force on the insulating sheet.

A circuit board assembly includes a printed circuit board (PCB) substrate, a cooling assembly, an intermediate layer, one or more power devices, and a plurality of conductive layers arranged within the PCB substrate. The PCB substrate has a first surface and an opposite second surface that has a first electrical pattern. The cooling assembly is thermally coupled to the second surface of the PCB substrate. The intermediate layer is sandwiched between the PCB substrate and the cooling assembly. The one or more power devices are embedded within the PCB substrate. The plurality of conductive layers are configured to electrically couple the one or more power devices and thermally couple the one or more power devices to the cooling assembly. At least a portion of the intermediate layer has a second electrical pattern that is similarly patterned to the first electrical pattern of the second surface of the PCB substrate.

A metal member-equipped circuit board 21 includes: a printed circuit board 22 including a through hole 25; a metal member 30 including a shaft portion 31 that is inserted into the through hole 25, and a head portion 32 that is arranged outside the through hole 25, the head portion 32 having a diameter larger than a diameter A1 of the through hole 25, and a conductive bonding material 35 for bonding the shaft portion 31 and an inner wall of the through hole 25 to each other.