Abstract:
A connector of a cable (e.g., a 30-pin connector) can be used to facilitate various security-related and other functionalities. For example, a connector can include security locking mechanisms for engaging or locking the connector to a portable electronic device. A connector can additionally support the transmission of security signals, data signals, power, and/or the like. An unlocking tool can be used to disengage a connector locked to the portable electronic device. More specifically, the unlocking tool can be applied to a connector and cause the locking mechanisms of the connector to release such that the connector can be freely disconnected from a connected portable electronic device.
Abstract:
A lanyard for carrying or wearing portable electronic devices is disclosed. The lanyard includes a neck cord (12) having data carrying capabilities. The lanyard also includes a harness (20) that physically holds and operatively couples the portable electronic device to the neck cord. When a portable electronic device is coupled to the harness, the portable electronic device can be worn around a neck and communicate with an input and/or output (I/O) device (21) (e.g., earphones) operatively coupled to the data carrying cord. That is, the I/O device can send data through the neck cord to the portable electronic device and/or receive data being carried by the neck cord from the portable electronic device. The lanyard facilitates greater ease in wearing portable electronic devices and enables better approaches for managing wires between portable electronic devices and peripheral I/O devices.
Abstract:
Headset connector systems and headset engaging connector systems are provided. Headset connector systems can include two or more headset connector contact regions. Headset engaging connector systems can include two or more headset engaging contact regions to provide at least one of power and data. The headset connector system or the headset engaging connector system can include switching circuitry electrically coupled to the respective contact regions. The switching circuitry can be operative to determine an interface orientation between the headset connector contact regions and the headset engaging contact regions. The switching circuitry can also be operative to selectively route received signals based on the determined interface orientation. At least a portion of the headset connector system or the headset engaging connector system can be magnetically attractive.
Abstract:
An invisible, light-transmissive system (1300) with a light resistant material (700) is provided (1302). Substantially invisible light-transmissive holes (704) penetrate (1304) through at least a portion of the light resistant material (700) in a light-transmissive pattern (1200).
Abstract:
Split jack assemblies are constructed with a tubeless pin block. Elimination (or split) of the tube, or more particularly, a tube that is an integrally formed part of the pin block form the pin block allows for the use of a tubeless pin block design that results in a jack assembly having smaller overall dimensions than a conventional jack assembly constructed to accommodate a plug of the same dimensions. The tubeless pin block can be used in conjunction with a tube sleeve or with a curved surface of a housing for an electronic device, or both to provide a plug receptacle of the split jack assembly.
Abstract:
Various embodiments of digital signage systems and docking stations are described. In one embodiment, a digital signage system includes an electronic device having a rear surface and an opposing front surface at which a display of the electronic device may be viewed. The system also includes a body for supporting the electronic device. A recessed region is formed in the body from a top surface of the body, and the electronic device is positioned within the recessed region such that the rear surface of the electronic device fits entirely within the recessed region and the front surface of the electronic device is substantially flush with a portion of a top surface of the body that surrounds the recessed region. An aperture may be formed at least partially through the recessed region for receiving a cable assembly operable to connect to the electronic device. An elongated cutout may also be formed, extending from the aperture to an edge or edge surface of the body, and sized so that an insulated wire of the cable assembly can extend from the aperture to the edge or edge surface of the body.
Abstract:
A wireless headset device that includes an earbud assembly and a primary housing assembly, fixed to the earbud assembly, is provided. The earbud assembly can include an earbud flexible circuit board having mounted thereon a receiver and processing circuitry. The primary housing assembly can include a microphone and a primary housing flexible circuit board electrically coupled to the earbud circuit board and the microphone. In some embodiments, the headset device can include at least one flexible circuit board and the primary housing can include a connector assembly. The at least one flexible circuit board can be electrically coupled to the connector assembly and can include Universal Serial Bus (USB) circuitry operative to process USB protocol communications and serial circuitry operative to process serial protocol communications.
Abstract:
Various embodiments of low profile male connectors are described. In one embodiment, a connector includes a plug housing having a depth and an interior cavity designed to accommodate pins that extend within the interior cavity in a direction of the depth. The plug housing may be designed to be fully insertable into a receptacle connector of an electronic device, and to have a rear surface that conforms with a shape of an exterior surface of the electronic device. The pins arranged in the plug housing may include various features, such as connecting portions protruding from the plug housing at an angle of approximately 90 degrees for coupling to a cable, bases including cutouts for extending a length of an elongated shaft of the pin, barbs for engaging the plug housing, and limit stops for distributing a force applied to the elongated shaft upon engagement with a receiving pin.
Abstract:
Headset connector systems and headset engaging connector systems are provided. Headset connector systems can include two or more headset connector contact regions. Headset engaging connector systems can include two or more headset engaging contact regions to provide at least one of power and data. The headset connector system or the headset engaging connector system can include switching circuitry electrically coupled to the respective contact regions. The switching circuitry can be operative to determine an interface orientation between the headset connector contact regions and the headset engaging contact regions. The switching circuitry can also be operative to selectively route received signals based on the determined interface orientation. At least a portion of the headset connector system or the headset engaging connector system can be magnetically attractive.
Abstract:
An invisible, light-transmissive system (1300) with a light resistant material (700) is provided (1302). Substantially invisible light-transmissive holes (704) penetrate (1304) through at least a portion of the light resistant material (700) in a light-transmissive pattern (1200).