Abstract: Embodiments are directed to an ear-worn electronic device configured to be worn by a wearer. The device comprises an enclosure configured to be supported at, by, in or on the wearer's ear. A processor is disposed in the enclosure. A speaker or a receiver is coupled to the processor. A radio frequency transceiver is disposed in the enclosure and coupled to the processor. An antenna is disposed in or on the enclosure. A magnetically coupled feed arrangement comprises a separable transformer. The separable transformer comprises a first coil coupled to the antenna and a second coil coupled to the transceiver, wherein the second coil is physically and electrically separated from the first coil. The feed arrangement is configured to feed the antenna via mutual inductance between the first and second coils.

Abstract: Embodiments are directed to an ear-worn electronic device configured to be worn by a wearer. The device comprises an enclosure configured to be supported at, by, in or on the wearer's ear. A processor is disposed in the enclosure. A speaker or a receiver is coupled to the processor. A radio frequency transceiver is disposed in the enclosure and coupled to the processor. An antenna is disposed in or on the enclosure. A magnetically coupled feed arrangement comprises a separable transformer. The separable transformer comprises a first coil coupled to the antenna and a second coil coupled to the transceiver, wherein the second coil is physically and electrically separated from the first coil.

Abstract: Embodiments are directed to an ear-worn electronic device configured to be worn by a wearer. The device comprises an enclosure configured to be supported at, by, in or on the wearer's ear. A processor is disposed in the enclosure. A speaker or a receiver is coupled to the processor. A radio frequency transceiver is disposed in the enclosure and coupled to the processor. An antenna is disposed in or on the enclosure. A magnetically coupled feed arrangement comprises a separable transformer. The separable transformer comprises a first coil coupled to the antenna and a second coil coupled to the transceiver, wherein the second coil is physically and electrically separated from the first coil. The feed arrangement is configured to feed the antenna via mutual inductance between the first and second coils.

Abstract: Embodiments are directed to an ear-worn electronic device configured to be worn by a wearer. The device comprises an enclosure configured to be supported at, by, in or on the wearer's ear. A processor is disposed in the enclosure. A speaker or a receiver is coupled to the processor. A radio frequency transceiver is disposed in the enclosure and coupled to the processor. An antenna is disposed in or on the enclosure. A magnetically coupled feed arrangement comprises a separable transformer. The separable transformer comprises a first coil coupled to the antenna and a second coil coupled to the transceiver, wherein the second coil is physically and electrically separated from the first coil.

Abstract: One switch-state aggregation technique uses a digital-to-analog converter in combination with an analog-to-digital converter to aggregate the state of a plurality of switches. Another switch-state aggregation technique uses input/output lines of a processor to aggregate the state of a plurality of switches and to communicate data other than the state of the switches. These techniques can be used to aggregate information about whether a plug or other connector is inserted into the ports of a patch panel or other telecommunication or communication assembly, system, or device.

Abstract: A radio frequency signal distribution module and panel for receiving such a module are disclosed. One module includes a housing having a front and a rear, a radio frequency signal input connection positioned on the rear of the housing, and a plurality of radio frequency signal output connections positioned on the rear of the housing. The module also includes a splitter within the housing and connecting the radio frequency signal input connection to the plurality of radio frequency signal output connections. Certain modules include an active attenuation component connected to and providing programmable attenuation of a radio frequency signal output connection from among the plurality of radio frequency signal output connections. Other modules include a data port on the housing, the data port configured to communicate information about radio frequency signals within the module to a computing system remote from the module.

Abstract: One switch-state aggregation technique uses a digital-to-analog converter in combination with an analog-to-digital converter to aggregate the state of a plurality of switches. Another switch-state aggregation technique uses input/output lines of a processor to aggregate the state of a plurality of switches and to communicate data other than the state of the switches. These techniques can be used to aggregate information about whether a plug or other connector is inserted into the ports of a patch panel or other telecommunication or communication assembly, system, or device.

Abstract: A radio frequency signal distribution module and panel for receiving such a module are disclosed. One module includes a housing having a front and a rear, a radio frequency signal input connection positioned on the rear of the housing, and a plurality of radio frequency signal output connections positioned on the rear of the housing. The module also includes a splitter within the housing and connecting the radio frequency signal input connection to the plurality of radio frequency signal output connections. Certain modules include an active attenuation component connected to and providing programmable attenuation of a radio frequency signal output connection from among the plurality of radio frequency signal output connections. Other modules include a data port on the housing, the data port configured to communicate information about radio frequency signals within the module to a computing system remote from the module.

Abstract: Techniques are described for providing telephony devices with a ring signal that has a voltage offset. For example, a ring signal shifter may receive a ring signal and a tip signal from a source. The ring signal shifter may, for example, receive a ring signal and a tip signal that are identical except for a 180-degree phase difference during the ringing state, i.e., the ring and tip signals are balanced signals. The ring signal shifter may include circuitry that rectifies the tip signal and superimposes the tip signal onto the ring signal in order to obtain a ring signal shifted by an offset voltage. The shifted ring signal may be output to a telephony device that requires an offset voltage in order to operate properly. For example, the shifted ring signal may be output to an answering machine that require a ring signal with an offset in order to respond to calls.