Abstract:
A connector system is provided for coupling an ionization emitter to an high voltage (HV) supply. The connector system includes one or more contacts for distributing voltage from the HV supply to the emitter. The connector system further includes a detection device that detects an element of an emitter that provides one or more properties of the emitter. The connector system further includes a detection logic device that sets one or more operating parameters of the HV supply according the one or more properties provided by the element of the emitter.
Abstract:
An electronic device may be provided with more than one industry-standard type of AC power connector. The electronic device may be powered in any of a variety of locations by selectively exposing one of the power connectors selected according to an AC power outlet available at that location. A location-specific power cord may be used to connect the exposed power connector to the AC power outlet. The location-specific power cord may have, for example, a line socket at one end of a type that matches the exposed power connector, and a power plug at the other end of a type that matches the AC power outlet at the location. Predefined power settings appropriate for use with the AC power outlet and the exposed power connector may be automatically invoked.
Abstract:
Methods and apparatuses presented herein control antenna connectivity for a wireless communication device as a function of rotation of a connector assembly plugged into the device, such as where an external antenna or cable includes the connector assembly. Assuming the device has a mating connector for the external antenna that changes the connections of internal and external antennas as a function of the connector mating depth, the method comprises configuring the wireless communication device and/or the external antenna with a mechanical feature that changes the mating depth between the device's and the antenna's mating connectors responsive to external antenna rotation. In one embodiment, a body portion of the external antenna retains the mating connector and includes a cam feature or other mechanical feature that engages an edge or surface of the device as the antenna is rotated, thereby pushing the antenna out from the device.
Abstract:
An exemplary electronic device includes a power module having an anode and a cathode; an audio module having a first audio signal terminal, a second audio signal terminal and a ground terminal; and an audio socket having a first audio signal terminal, a second audio signal terminal connected to the second audio terminal of the audio module, and a ground terminal, wherein the first audio terminal of the audio socket is selectively connected to the anode of the power module and the first audio signal terminal of the audio module via a first switch, the ground terminal of the audio socket is selectively connected to the cathode of the power module and the ground terminal of the ground module of the audio module via a second switch. Therefore, users can charge the electronic device via the audio interface.
Abstract:
A connector system is provided for coupling an ionization emitter to an high voltage (HV) supply. The connector system includes one or more contacts for distributing voltage from the HV supply to the emitter. The connector system further includes a detection device that detects an element of an emitter that provides one or more properties of the emitter. The connector system further includes a detection logic device that sets one or more operating parameters of the HV supply according the one or more properties provided by the element of the emitter.
Abstract:
Methods and apparatuses presented herein control antenna connectivity for a wireless communication device as a function of rotation of a connector assembly plugged into the device, such as where an external antenna or cable includes the connector assembly. Assuming the device has a mating connector for the external antenna that changes the connections of internal and external antennas as a function of the connector mating depth, the method comprises configuring the wireless communication device and/or the external antenna with a mechanical feature that changes the mating depth between the device's and the antenna's mating connectors responsive to external antenna rotation. In one embodiment, a body portion of the external antenna retains the mating connector and includes a cam feature or other mechanical feature that engages an edge or surface of the device as the antenna is rotated, thereby pushing the antenna out from the device.
Abstract:
A media power protection system comprises a media controller configured to detect a type of media card coupled to a multi-card connector, and a protection circuit configured to selectively enable at least one of a plurality of power supply interfaces of the multi-card connector based on the type of media card.
Abstract:
A display system that includes a housing, at least one light source, a diffuser, and control circuitry is provided. The housing can have an internal wall and a signal indicator region. The at least one light source can be located within the housing. The diffuser can be disposed between the at least one light source and the internal wall. The control circuitry can be electrically coupled to and operable to cause the at least one light source to emit light that passes through the diffuser to the signal indicator region. A method for displaying signals in a headset including a signal indicator region is provided. The method can include emitting light from at least one LED. The method can include transmitting the light through a diffuser and onto the signal indicator region. The diffuser can include a substantially transparent substrate in which a plurality of translucent particles are embedded.
Abstract:
A telecommunications apparatus for use with a plug having at least first, second and third pins. The telecommunications apparatus includes a plug connector for receiving the plug. The plug connector includes at least first, second and third electrical contacts for electrically contacting the first, second and third pins, respectively, when the plug is inserted in the plug connector. The plug connector also includes an electrical by-pass pathway that: i) electrically connects the first and second electrical contacts when the plug is fully removed from the plug connector such that a signal can enter the plug connector through the first contact, pass through the by-pass pathway to the second contact, and exit the plug connector through the second contact; and ii) does not electrically connect the first and second electrical contacts when the plug is fully inserted within the plug connector such that a signal can enter the plug connector through the first contact, pass through the plug to the second contact, and exit the plug connector through the second contact.
Abstract:
Methods and arrangements to adapt an electronic system to attenuate electrostatic discharges of a cable as the cable is connected with a connector on the electronic system are disclosed. Embodiments may include an adapter to couple with a connector of an electronic system. The adapter may momentarily interconnect conductors of a cable with a selected conductor of the connecter to discharge to attenuate or discharge an electrostatic charge built up on the conductors of the cable. In some embodiments, the adapter includes a selector switch so the selected conductor can be selected based upon the electronic system. In other embodiments, the selected conductor is fixed.