Abstract: An electronic device may be provided with peripheral conductive housing structures, a first antenna, and a second antenna. A gap may divide the housing structures into a first segment forming an arm of the first antenna and a second segment forming an arm of the second antenna. A first feed terminal may be coupled to the first segment and a second feed terminal may be coupled to the second segment. Switchable components may be coupled in parallel between the first and second feed terminals across the gap. The switchable components may be adjusted to tune the frequency response of the first and/or second antenna. The switchable components may have a first state in which only the first feed terminal feeds the first antenna and may have a second state in which both the first and second feed terminals feed the first antenna.

Abstract: A portable electronic device includes a housing, a sensor array including a first camera module having a first field of view, a second camera module having a second field of view different from the first field of view, and a light source, and a rear cover formed from a glass material and defining a raised sensor array region positioned over the sensor array. The raised sensor array region defines a first hole extending through the rear cover and positioned proximate a first corner region of the raised sensor array region, and a second hole extending through the rear cover and positioned proximate a second corner region diagonal from the first corner region. The first camera module includes a first camera housing defining a recess at a corner of the first camera housing, and the second camera module includes a second camera housing extending into the recess.

Abstract: A mobile phone may include a housing, a battery at least partially within the housing, and a circuit board assembly at least partially within the housing and positioned along a side of the battery. The circuit board assembly may include a first circuit board defining a first hole, a second circuit board defining a second hole, a wall structure between the first circuit board and the second circuit board and attached to an inner surface of the first circuit board and an inner surface of the second circuit board, and a fastener assembly configured to retain the first circuit board to the second circuit board.

Abstract: An interposer for mechanically and electrically connecting two circuit boards is described. The interposer can be bent to enclose an area of a circuit board. The interposer can include a first layer external to the enclosed area. The first layer can be conductive and can serve as an EMI shield. The interposer can also include a second layer internal to the enclosed area. The second layer can be non-conductive but can carry multiple discrete pins that can electrically couple the first and second circuit boards and provide signal transmission pathways between the circuit boards. The interposer can be formed by folding a sheet of conductive material having different cutout regions that forms a comb pattern into multiple stacked layers. Then, the bent regions that connect the stacked layers can be removed so that the conductive bars in the comb patterns can be separated and isolated to form discrete pins.

Abstract: An interposer for mechanically and electrically connecting two circuit boards is described. The interposer can be bent to enclose an area of a circuit board. The interposer can include a first layer external to the enclosed area. The first layer can be conductive and can serve as an EMI shield. The interposer can also include a second layer internal to the enclosed area. The second layer can be non-conductive but can carry multiple discrete pins that can electrically couple the first and second circuit boards and provide signal transmission pathways between the circuit boards. The interposer can be formed by folding a sheet of conductive material having different cutout regions that forms a comb pattern into multiple stacked layers. Then, the bent regions that connect the stacked layers can be removed so that the conductive bars in the comb patterns can be separated and isolated to form discrete pins.

Abstract: Embodiments of the present invention provide an apparatus, a system, and a method of manufacturer for a magnetic, self-retracting, auto-aligning electrical connector. The apparatus includes a first conductor and a first magnet configured to magnetically couple with a second magnet, wherein magnetic coupling causes a change in a magnetic field of a magnetically coupled combination of the first magnet and the second magnet and wherein the change in the magnetic field causes electrical coupling of the first conductor and a second conductor. The system includes a first connector comprising a first magnet and a first conductor and a second connector comprising a second magnet and a second conductor, wherein magnetic coupling causes a change in a magnetic field of a magnetically coupled combination of the first magnet and the second magnet and wherein the change in the magnetic field causes electrical coupling of the first conductor and the second conductor.

Abstract: Embodiments of the present invention provide an apparatus, a system, and a method of manufacturer for a magnetic, self-retracting, auto-aligning electrical connector. The apparatus includes a first conductor and a first magnet configured to magnetically couple with a second magnet, wherein magnetic coupling causes a change in a magnetic field of a magnetically coupled combination of the first magnet and the second magnet and wherein the change in the magnetic field causes electrical coupling of the first conductor and a second conductor. The system includes a first connector comprising a first magnet and a first conductor and a second connector comprising a second magnet and a second conductor, wherein magnetic coupling causes a change in a magnetic field of a magnetically coupled combination of the first magnet and the second magnet and wherein the change in the magnetic field causes electrical coupling of the first conductor and the second conductor.

Abstract: A power measurement transducer includes a first surface configured to thermally couple the power measurement transducer to a device under test. A second surface is essentially parallel to and spaced apart from the first surface. Two or more temperature measurement elements are positioned between the first and second surfaces. The power measurement transducer is configured to allow at least a portion of the power generated within the device under test to enter the power measurement transducer through the first surface and exit the power measurement transducer through the second surface.

Abstract: A method of determining thermal output of a device under test includes attaching a power measurement transducer to a device under test, wherein the power measurement transducer includes two or more temperature measurement elements. A test sequence is applied to the device under test. One or more signals produced by the power measurement transducer are monitored to determine a quantity of power produced by the device under test during the test sequence.

Abstract: A power measurement transducer includes a thermally conductive heat spreading device having a first surface configured to thermally couple the power measurement transducer to a device under test. Two or more temperature measurement elements are positioned within the thermally conductive heat spreading device.