An electronic assembly 52 includes a plurality of circuit boards 70, 74, 78 each comprising engagement grooves 84 spaced around an outer wall. The assembly includes a plurality of spacers 72, 76 with alignment elements. The alignment elements comprise a first tab 92 and a first tab receiver 93 extending in a first axial direction. The alignment elements further comprising a second tab 90 extending in a second axial direction opposite the first and a second tab receiver 91 extending in the second axial direction. A first spacer 72 is disposed between a first circuit board 70 and a second circuit board 74. The first tab 92 of the first spacer 72 is disposed within a first engagement groove of the first circuit board 70. The second circuit board 74 is disposed between the first spacer 72 and a second spacer 76. A second tab 90 of the first spacer 72 is received in a second engagement groove 84 of the second circuit board 74 and a first tab receiver 93 of the second spacer 76.

An on-board telematic device intended to be attached to a metal part (3) of a body of a motor vehicle comprises, according to the invention, a housing (1) integrating a printed circuit board (5), a face of which supports at least one electronic power component (6), a radiofrequency antenna (7), intended to extend through an opening of the metal part (3), and a metal screen (9) interposed between a lower part of the antenna (7), on the one hand, and the printed circuit board (5) and said at least one component, on the other hand, in order to isolate the antenna from parasitic emissions. The component (6) is placed in line with the metal screen (9) and in thermal contact with a portion of said screen, and said screen (9) is made of a thermally conductive material so as to form a thermal transfer means between the electronic power component (6) and the metal part (3).

The instant invention relates to a sub-miniature high powered light emitting diode and accompanying mounting tab device. The instant invention seeks to provide a solution to light fixture designers by making a readily available and tightly compact light emitting diode mounting device. The instant invention provides for a mounting tab with a heat dissipating element to take advantage of the tiny size of sub-miniature high powered light emitting diodes while adding negligible mounting and heat dissipating elements to set a new lighting device standard in versatility, optimal heat dissipation, and minimal mounting overhead.

There is provided an inexpensive metal/ceramic bonding substrate which has a metal circuit plate of aluminum or an aluminum alloy bonded directly to a ceramic substrate and which can prevent a large difference in level from being caused on portions corresponding to the grain boundaries of aluminum or the aluminum alloy even if heat cycles are repeatedly applied to the metal/ceramic bonding substrate, and a method for producing the same. In the preferred embodiment of a metal/ceramic bonding substrate, one side of a ceramic substrate 12 is bonded directly to a metal base plate 10 of aluminum or an aluminum alloy, and the other side of the ceramic substrate 12 is bonded directly to one side of a first metal plate 14 (for circuit pattern) of aluminum or the aluminum alloy, the other side of first metal plate 14 being bonded directly to one side of a graphite sheet 16, and the other side of the graphite sheet 16 being bonded directly to a second metal plate (for circuit pattern) 18 of aluminum or the aluminum alloy.

An optical engine module including a circuit board, a light valve module, a thermal conductive member, and a supporting member is provided. The circuit board having a first surface, a second surface opposite to the first surface, a first opening hole and at least one second opening hole. The light valve module is disposed on the first surface and electrically connected to the circuit board. The thermal conductive member is disposed on the second surface of the circuit board and is connected to a back surface of the light valve module through the first opening hole of the circuit board. A supporting member is disposed on one side of the first surface of the circuit board. The supporting member is partially in contact with the light valve module, and is connected to the thermal conductive member through the at least one second opening hole of the circuit board.

A terrestrial vehicle lighting module which includes an electroluminescent source including at least one electroluminescent element, an electronic device designed to control the electroluminescent element, and an interposer electrically connecting the electroluminescent source and the electronic device.

Heat-rejecting media configured to thermally couple to a heat-generating component of an information handling resource may include a source, a sink, and a thermally-conductive strip coupled between the source and the sink. The source may include a first flexible and thermally-conductive skin surrounding a first cavity comprising a first solid foam, such that mechanical compression by components of the information handling resource provides mechanical pressure for thermally coupling the source to the heat-generating component. The sink may include a second flexible and thermally-conductive skin surrounding a second cavity comprising a second solid foam, such that mechanical compression by components of the information handling resource provides mechanical pressure for thermally coupling the sink to a component of the information handling resource exposed externally to the information handling resource.

An antenna assembly comprising a base, a modem, a top lid and a housing is disclosed herein. The base is composed of an aluminum material. The modem is disposed on the base. The top lid is for the base, and the top lid comprises at least one antenna element disposed on an exterior surface. The housing covers the top lid and base. The top lid acts as an electro-magnetic barrier for the modem.

A lidar apparatus includes a sensor configured to convert light into an electrical signal, a light receiving lens configured to receive light and to guide the received light toward the sensor, a lens barrel that supports the light receiving lens, a micro-electromechanical systems (MEMS) mirror arranged at a first position in which the MEMS mirror defines a first plane that forms a first acute angle with respect to at least one surface of the lens barrel, and a light output device that is configured to output a laser light toward the MEMS mirror and that is arranged at a second position in which the light output device defines a second plane that forms a second acute angle with respect to the at least one surface of the lens barrel.

Electronic device includes a housing; an antenna module accommodated in the housing, the antenna module including a PCB including a first side and a second side opposite to the first side; one or more antenna elements disposed at the first side of the PCB; and a wireless communication circuit disposed at the second side of the PCB and configured to transmit and/or receive a radio signal through an antenna element of the one or more antenna elements; and a conductive member accommodated in the housing and including a supporting portion and a connecting portion extended from the supporting portion and connected to the conductive portion of the housing, the supporting portion configured to support the antenna module such that the first side of the PCB faces in a direction toward the lateral surface of the electronic device, and the connecting portion including a hole through which a fastening member is disposed to fasten the conductive member to the conductive portion of the housing. Heat generated by the antenna module is transferred to the conductive portion of the housing.