Abstract: A conical spring washer includes a symmetrical annular body, a plurality of inner tabs and a plurality of outer tabs formed in the body. Each of the plurality of inner tabs has a width that tapers radially inwardly. Each of the plurality of outer tabs has a maximum width that is greater than a maximum width of each of the plurality of inner tabs. An intermediate portion is defined in the body and disposed between the plurality of inner tabs and plurality of outer tabs. The plurality of inner tabs and plurality of outer tabs are flexibly coupled to the intermediate portion.

Abstract: A conical spring washer includes a symmetrical annular body, a plurality of inner tabs and a plurality of outer tabs formed in the body. Each of the plurality of inner tabs has a width that tapers radially inwardly. Each of the plurality of outer tabs has a maximum width that is greater than a maximum width of each of the plurality of inner tabs. An intermediate portion is defined in the body and disposed between the plurality of inner tabs and plurality of outer tabs. The plurality of inner tabs and plurality of outer tabs are flexibly coupled to the intermediate portion.

Abstract: A device is provided that includes a plurality of walls and at least one holding slot on a wall for temporarily holding the printed circuit board during assembly of the device at an angle with respect to the wall.

Abstract: An electronic device, such as a set top box comprises an enclosure that houses a circuit board having a peripheral edge positioned in the set top box. A heat sink has orientation features on its periphery that contact and orient the circuit board. Further, the heat sink has positioning tabs at a leading edge that contact a control surface on a rear wall of the set top box enclosure and orients the heat sink within the set top box. Antenna assemblies are positioned in corners of the set top box enclosure and adjacent to one of the vertically oriented walls, wherein the antenna assemblies are positioned outside the peripheral edge of the circuit board and the periphery of the heat sink.

Abstract: A set top box comprises multiple antennae (15) are positioned outside the periphery of the printed circuit board (5). The antennae can be vertically oriented (15V) or horizontally oriented (15H). The antennae (15) are maintained at least 20 mm from a heatsink (6) and the printed circuit board (5) to prevent electrostatic discharge. The set top box includes vents (14) in the bottom frame (2) outside the periphery of the printed circuit board (5) to promote heat dissipation.

Abstract: The present disclosure relates to a printed circuit board assembly including a printed circuit board, a first shielding structure located on a first surface of the printed circuit board and having a first extension element extending from the first shielding structure and through a first hole in the printed circuit board, a second shielding structure located on a second surface of the printed circuit board. According to at least one embodiment on the present disclosure, a first contacting element of the first extension element makes a mechanical and electrical contact between the first shielding structure and the second shielding structure in a contact region entirely located outside the first hole from which the first extension element is extending through.

Abstract: An electronic device, such as a set top box comprises an enclosure that houses a circuit board having a peripheral edge positioned in the set top box. A heat sink has orientation features on its periphery that contact and orient the circuit board. Further, the heat sink has positioning tabs at a leading edge that contact a control surface on a rear wall of the set top box enclosure and orients the heat sink within the set top box. Antenna assemblies are positioned in corners of the set top box enclosure and adjacent to one of the vertically oriented walls, wherein the antenna assemblies are positioned outside the peripheral edge of the circuit board and the periphery of the heat sink.

Abstract: A device is provided for vertical orientation during operation, that includes a plurality of vertically oriented walls, an antenna bracket having sides that support antennas which extend from corners of the antenna bracket, at least one of the sides of the antenna bracket having a curved profile, the curved profile comprising a U-shape cross section with an open end facing downward. The device further includes a horizontally oriented fan positioned closer to a base of the device than to a top of the device. The fan is positioned below the antenna bracket and is oriented to force air upward and into the interior half of the U-shape cross section, the U-shape cross section directing some upwardly directed air to travel downward between interior components of the device that are adjacent to the vertically oriented walls.

Abstract: A device is provided that includes a plurality of walls and at least one holding slot on a wall for temporarily holding the printed circuit board during assembly of the device at an angle with respect to the wall.

Abstract: Devices and methods for routing cables through a printed circuit board (PCB) include an enclosure having at least one cable guide and a cable duct. A PCB is mounted in the enclosure, such that the cable duct penetrates the PCB through a hole in the PCB. At least one additional component is mounted in the enclosure and connected to at least one cable that is attached to the at least one cable guide and the cable duct. The at least one cable enters the duct on a first side of the PCB and exits the duct on a second side of the PCB.

Abstract: At least one implementation provides a hold down for an electronic device. The electronic device includes a support frame, a circuit board coupled to the support frame and having at least one component, a thermal pad thermally coupled to the component, and a heat sink associated with the thermal pad. The hold down includes a generally planar portion adapted to be positioned over a surface of the heat sink. The hold down also includes a plurality of connecting structures extending angularly from the generally planar portion. The connecting structures and configured to engage the support frame to cause the hold down to apply the biasing force to retain the thermal pad against at least one of the heat sink or the component when the heat sink and the thermal pad are positioned between the hold down and the support frame. A method is also provided for attaching the hold down.

Abstract: An electronic device, such as a set top box comprises an enclosure that houses a circuit board having a peripheral edge positioned in the set top box. A heat sink has orientation features on its periphery that contact and orient the circuit board. Further, the heat sink has positioning tabs at a leading edge that contact a control surface on a rear wall of the set top box enclosure and orients the heat sink within the set top box. Antenna assemblies are positioned in corners of the set top box enclosure and adjacent to one of the vertically oriented walls, wherein the antenna assemblies are positioned outside the peripheral edge of the circuit board and the periphery of the heat sink.

Abstract: An electronic device assembly comprises an electronic device having a bottom and back side, wherein the bottom includes apertures and the back side includes a panel jack for connecting to cables; and a cable retainer having a base and a back upstanding wall extending from the base. The base is attached to the bottom of the electronic device. The back upstanding wall faces the back side, the back upstanding wall is spaced from the back side, and the back upstanding wall has slots for supporting the cable.

Abstract: An electronic device includes a circuit board having heat generating components thereon. A heat sink with air current generating electric device assembly lies over the circuit board, through which heat from the circuit board and the components thereon is dispersed. The assembly includes a heat sink having a solid central core and a plurality of fins protruding from the core. An air current generating electric device is disposed over the heat sink and having an air intake facing a top of the heat sink and an exhaust opening directed parallel to a plane of the circuit board. An air duct extends from the exhaust opening of the air current generating electric device to exhaust apertures on at least one side wall of the electronic device.

Abstract: An improved heat transfer system for components an electronic device is provided. The electronic device includes a printed circuit board, a component shield and a heatsink or heat spreader. An open heat transfer window is positioned in the component shield so as to enable a depression in the heat sink to pass through the window and directly contact a thermal pad for a component requiring heat dissipation. A grounding connection between the shield and the heatsink is provided to prevent radiation loss in the radio frequency shielding capability resulting from the creation of the open heat transfer window in the shield.

Abstract: An RF interference suppressor for satellite receivers and more specifically those that employ the MOCA standard is provided. The RF interference suppressor shields the connection point of the center conductor of the F-connector to the PC board from spurious signals emanating from the high speed digital portions of the receiver. In addition, the RF interference suppressor shield includes a tab portion that encompasses the threaded portion of the F-connector and operates to shield the path for RF interference resulting from the gap between the F-connector body and the inner shield wall of the receiver.

Abstract: An electronic device is provided that includes a vertical chassis wall having an aperture; a horizontal circuit board that extends toward the vertical chassis wall; an F-connector connected to the horizontal circuit board on a first side and extending out of the vertical chassis wall through the aperture; and an inner shield that shields a radiofrequency circuit components mounted on the first side of the circuit board. The inner shield includes tabs that extend partially into solder plated clearance holes in the horizontal circuit board and are reflow-soldered into the clearance holes. The tabs have distal ends that terminate between a plane of the first side and a plane of a second side of the circuit board.

Abstract: An electronic device is provided. The electronic device includes a circuit board having heat generating components thereon. The electronic device further includes a heat sink with air current generating electric device assembly, disposed over the circuit board, through which heat from the circuit board and the components thereon is released. The heat sink with air current generating electric device assembly includes a heat sink having a solid central core and a plurality of fins protruding from the core. The heat sink with air current generating electric device assembly further includes an air current generating electric device disposed over the heat sink and having an air intake facing a top of the heat sink and an exhaust opening directed parallel to a plane of the circuit board.

Abstract: A rubber foot assembly and embossed mounting assembly for supporting a structure is provided that comprise: an aperture formed along a lower wall of the structure and a rubber foot engaged in the aperture, wherein the rubber foot has a flexible contoured bottom portion connected to a top portion through a neck portion. The neck region is adapted to freely slide vertically along a wall of the aperture such that a peripheral region of the flexible contoured bottom portion contacts a portion of the embossed mounting assembly, thereby supporting the structure. A plurality of the rubber foot assemblies and embossed mounting assemblies can be incorporated into the structure, which can be a set-top box, to prevent the structure from rocking on uneven surfaces.

Abstract: A passive cooling arrangement for an electronic housing assembly is provided. The assembly includes a frame disposed in the housing assembly; a circuit board supported in the frame; a heat generating component disposed on the circuit board; and a heat sink configured with a substantially flat peripheral portion and a depression portion. The substantially flat peripheral portion faces and is nearly coextensive with an outer wall of said housing assembly, and the depression portion is in thermal engagement with the heat generating component on the circuit board. The frame includes a base having embosses which support the circuit board in a position enabling thermal engagement of the heat generating component and the depression portion of the heat sink. The outer wall of the housing assembly is preferably unvented and the housing assembly is preferably oriented in use with the outer wall facing upwardly.