Abstract: An apparatus for consolidated data services comprising a plurality of devices, a plurality of data services and a content application programming interface (API). A user API provides user identification for each of the plurality of devices using one or more of a plurality of user API methods. A feedback API configured to receive data from each of the plurality of devices that identifies media content that was delivered to the plurality of devices using one or more of a plurality of feedback API methods. A device API configured to provide a client system to one or more of the plurality of devices using one or more of a plurality of device API methods. A web service consolidator coupled to the content API, the user API, the feedback API, the device API, the update API, a plurality of data services and the plurality of devices through the communications media.

Abstract: An apparatus for consolidated data services comprising a plurality of devices, a plurality of data services and a content application programming interface (API). A user API provides user identification for each of the plurality of devices using one or more of a plurality of user API methods. A feedback API configured to receive data from each of the plurality of devices that identifies media content that was delivered to the plurality of devices using one or more of a plurality of feedback API methods. A device API configured to provide a client system to one or more of the plurality of devices using one or more of a plurality of device API methods. A web service consolidator coupled to the content API, the user API, the feedback API, the device API, the update API, a plurality of data services and the plurality of devices through the communications media.

Abstract: An apparatus for consolidated data services comprising a plurality of devices, a plurality of data services and a content application programming interface (API). A user API provides user identification for each of the plurality of devices using one or more of a plurality of user API methods. A feedback API configured to receive data from each of the plurality of devices that identifies media content that was delivered to the plurality of devices using one or more of a plurality of feedback API methods. A device API configured to provide a client system to one or more of the plurality of devices using one or more of a plurality of device API methods. A web service consolidator coupled to the content API, the user API, the feedback API, the device API, the update API, a plurality of data services and the plurality of devices through the communications media.

Abstract: In a wireless network environment, a method of transmitting data from a source device to a set of sink devices, the method comprising the steps of: (a) initially the source device broadcasting packet data collectively to each of the sink devices; (b) the sink devices collecting packet data and identifying missing packets that have been missed; (c) upon a sink device detecting a missed a packet, the sink device separately requesting the transmission of the missed packet by the source device; and (d) the source device separately sending missed data packets.

Abstract: A method of keeping global time in a wireless network, the method includes reading a Time Synchronization Function (TSF) to provide an initial time base. An interconnected clock control circuit is employed to read the TSF time from the circuitry used to read the TSF and to implement a local clock based on time values read from the TSF.

Abstract: A method of keeping global time in a wireless network, the method includes reading a Time Synchronization Function (TSF) to provide an initial time base. An interconnected clock control circuit is employed to read the TSF time from the circuitry used to read the TSF and to implement a local clock based on time values read from the TSF.

Abstract: A method of keeping global time in a wireless network, the method comprising the steps of: using a first 802.11 chip set to read a Time Synchronization Function (TSF) to provide an initial time base; using an interconnected clock control circuit to read the TSF time directly from the 802.11 chip set and to implement a local clock based on time values read from the TSF function.

Abstract: A method of keeping global time in a wireless network, the method comprising the steps of: using a first 802.11 chip set to read a Time Synchronization Function (TSF) to provide an initial time base; using an interconnected clock control circuit to read the TSF time directly from the 802.11 chip set and to implement a local clock based on time values read from the TSF function.

Abstract: In a wireless network environment, a method of transmitting data from a source device to a set of sink devices, the method comprising the steps of: (a) initially the source device broadcasting packet data collectively to each of the sink devices; (b) the sink devices collecting packet data and identifying missing packets that have been missed; (c) upon a sink device detecting a missed a packet, the sink device separately requesting the transmission of the missed packet by the source device; and (d) the source device separately sending missed data packets.

Abstract: A binary digital logic level sensitive latch comprising a first inverter that provides an output (O1). At least one input signal (I1) and an activation signal (Clk) are provided to the first inventer both being capacitively coupled to an input of the first inverter and a switching threshold of the first inverter. The capacitance of the couplings being predetermined such that the output of the first inverter (O1) is a NOR function of the inputs signals and the activation signal O1={overscore (I1+Clk)}. A second inverter has as inputs capacitively coupled the output of the first inverter (O1), the activation signal (Clk) and an inverted pervious output signal (P) to provide output (O2). A switching threshold of the second inverter and the capacitance of the couplings being predetermined such that the output of the second inverter (O2) takes the function of: O2={overscore ((Clk×P)+O1)}.

Abstract: A binary digital logic level sensitive latch comprising a first inverter that provides an output (O1). At least one input signal (I1) and an activation signal (Clk) are provided to the first inventer both being capacitively coupled to an input of the first inverter and a switching threshold of the first inverter. The capacitance of the couplings being predetermined such that the output of the first inverter (O1) is a NOR function of the inputs signals and the activation signal O1={overscore (I1+Clk)}. A second inverter has as inputs capacitively coupled the output of the first inverter (O1), the activation signal (Clk) and an inverted pervious output signal (P) to provide output (O2). A switching threshold of the second inverter and the capacitance of the couplings being predetermined such that the output of the second inverter (O2) takes the function of: O2={overscore ((Clk×P)+O1)}.