Abstract: A device, comprising: a main module; a plurality of secondary modules; and a data bus configured to enable data transmission between the main module and the plurality of secondary modules over a data line of the data bus; wherein each of the plurality of secondary modules is configured with a unique secondary address used by the main module to communicate with the respective secondary module over the data line, wherein the main module is operable to configure a first two or more of the plurality of secondary modules with a first common secondary address for simultaneous data transmission from the main module to the first two or more of the plurality of secondary modules over the data line.

Abstract: A device, comprising: a main module; a plurality of secondary modules; and a data bus configured to enable data transmission between the main module and the plurality of secondary modules over a data line of the data bus; wherein each of the plurality of secondary modules is configured with a unique secondary address used by the main module to communicate with the respective secondary module over the data line, wherein the main module is operable to configure a first two or more of the plurality of secondary modules with a first common secondary address for simultaneous data transmission from the main module to the first two or more of the plurality of secondary modules over the data line.

Abstract: A device, comprising: a main module; a plurality of secondary modules; and a data bus configured to enable data transmission between the main module and the plurality of secondary modules over a data line of the data bus; wherein each of the plurality of secondary modules is configured with a unique secondary address used by the main module to communicate with the respective secondary module over the data line, wherein the main module is operable to configure a first two or more of the plurality of secondary modules with a first common secondary address for simultaneous data transmission from the main module to the first two or more of the plurality of secondary modules over the data line.

Abstract: A clock generator system and method for providing and operating a codes with a clock signal at a desired operational rate are disclosed. The clock generator system also has a phase-locked loop circuit. The clock generator system determines whether an available clock signal within a circuit environment of the codec has a desired clock rate. If the available clock signal has the desired clock rate, the clock generator system supplies and operates the codec with the available clock signal. If the available clock signal does not have the desired clock rate, the phase-locked loop circuit generates from the available clock signal a desired clock signal having the desired clock rate and supplies and operates the codec with the desired clock signal.

Abstract: A system and method of operating a codec in an operational mode are disclosed. The codec is operated in a digital centric mode. The digital centric mode involves the following: An analog mixer of the codec first mixes analog signals, if any, to produce a mixed analog signal. An analog-to-digital converter converts the mixed analog signal into a converted digital signal. A digital mixer mixes the converted digital signal with digital signals that are otherwise generally unavailable as analog signals to the codec without additional conversions to produce a mixed digital signal. A digital-to-analog converter converts the mixed digital signal into a mixed analog signal. A digital processor may perform digital effects processing on the mixed digital signal to add digital effects to the mixed digital signal. The codec is still able to alternatively operate in an analog centric mode, a host processing mode, or a multi-channel mode.

Abstract: A system and method of operating a codec in an operational mode are disclosed. The codec is operated in a digital centric mode. The digital centric mode involves the following: An analog mixer of the codec first mixes analog signals, if any, to produce a mixed analog signal. An analog-to-digital converter converts the mixed analog signal into a converted digital signal. A digital mixer mixes the converted digital signal with digital signals that are otherwise generally unavailable as analog signals to the codec without additional conversions to produce a mixed digital signal. A digital-to-analog converter converts the mixed digital signal into a mixed analog signal. A digital processor may perform digital effects processing on the mixed digital signal to add digital effects to the mixed digital signal. The codec is still able to alternatively operate in an analog centric mode, a host processing mode, or a multi-channel mode.

Abstract: A clock generator system and method for providing and operating a codes with a clock signal at a desired operational rate are disclosed. The clock generator system also has a phase-locked loop circuit. The clock generator system determines whether an available clock signal within a circuit environment of the codec has a desired clock rate. If the available clock signal has the desired clock rate, the clock generator system supplies and operates the codec with the available clock signal. If the available clock signal does not have the desired clock rate, the phase-locked loop circuit generates from the available clock signal a desired clock signal having the desired clock rate and supplies and operates the codec with the desired clock signal.