Abstract: Each charging member in a group identifies a docking connection. Each charging member, responsive to identifying the docking connection, transmits information to other charging members in the group and receives information transmitted from another charging member in the group. Each charging member generates a list using the information transmitted to the group and received from the group. Each charging member also includes a ranking component for filtering, sorting, and ranking entries in the list according to a predefined selection filter and/or ranking filter. Each entry in the list is associated with a charging member with a docking connection and in the group. Each charging member determines based on a predefined indication filter that an entry in the list that is associated with the charging member is ranked at a predefined position in the list and provides an indication.

Abstract: Each charging member in a group identifies a docking connection. Each charging member, responsive to identifying the docking connection, transmits information to other charging members in the group and receives information transmitted from another charging member in the group. Each charging member generates a list using the information transmitted to the group and received from the group. Each charging member also includes a ranking component for filtering, sorting, and ranking entries in the list according to a predefined selection filter and/or ranking filter. Each entry in the list is associated with a charging member with a docking connection and in the group. Each charging member determines based on a predefined indication filter that an entry in the list that is associated with the charging member is ranked at a predefined position in the list and provides an indication.

Abstract: Each charging member in a group identifies a docking connection. Each charging member, responsive to identifying the docking connection, transmits information to other charging members in the group and receives information transmitted from another charging member in the group. Each charging member generates a list using the information transmitted to the group and received from the group. Each charging member also includes a ranking component for filtering, sorting, and ranking entries in the list according to a predefined selection filter and/or ranking filter. Each entry in the list is associated with a charging member with a docking connection and in the group. Each charging member determines based on a predefined indication filter that an entry in the list that is associated with the charging member is ranked at a predefined position in the list and provides an indication.

Abstract: A method of fault detection for battery chargers includes sensing a charge current applied to a battery with a resistive element. The method includes measuring a voltage across the resistive element. The method includes generating a trigger signal when the measured voltage across the resistive element exceeds a predetermined value. The method includes generating from the trigger signal an interrupt signal for a microprocessor. The method includes initiating an over-current handling routine in the microprocessor.

Abstract: A method of fault detection for battery chargers includes sensing a charge current applied to a battery with a resistive element. The method includes measuring a voltage across the resistive element. The method includes generating a trigger signal when the measured voltage across the resistive element exceeds a predetermined value. The method includes generating from the trigger signal an interrupt signal for a microprocessor. The method includes initiating an over-current handling routine in the microprocessor.

Abstract: A docking station for a portable electronic device comprises a housing forming a first cradle receiving slot, the housing including a first housing connector within the first cradle receiving slot in combination with a first cradle shell inerrable into the first cradle receiving slot, the first cradle shell being sized and shaped to receive a first portable electronic device therein, the first cradle shell including a first shell inner connector positioned on a device receiving side of the cradle shell so that, when a first portable electronic device is received in the first cradle shell, the first shell inner connector is aligned with a connector of the first portable electronic device and a first shell outer shell connector on a housing facing surface of the first cradle shell, the first shell outer connector being positioned so that, when the first cradle shell is inserted into the first cradle receiving slot, the first shell outer connector aligns with the first housing connector.

Abstract: An telephone media processing server is described having clock pulse steering circuit for steering clock pulses to a plurality of digital processors under control of a main processor. Other signals, such as a frame clock, for generating frame pulses, address and data lines are distributed using single conductors connected to output pins of a control processor. Typically, more than eight signal processors partitioned in a plurality of groups are interfaced to a single main processor. Each group of signal processors has a clock input controlled by the clock steering circuit. A main processor has a data port pin, an address port pin, and a switching command output connected to the clock pulse steering means for steering clock pulses to each group of processors. The signal processors set the data pin and address pin to a high impedance when the clock input is inactive. An example using the TMS320C5x processor is detailed.