The simultaneous transmission and reproduction of a compressed audio signal and a linear PCM signal is satisfactorily achieved. An audio signal of a predetermined unit is sequentially transmitted via a predetermined transmission line to a reception side. The audio signal of the predetermined unit is a mixed signal of a compressed audio signal and a linear PCM signal. For example, the audio signal of the predetermined unit is an audio signal of a sub-frame unit. In this case, for example, in the audio signal of the sub-frame unit, the compressed audio signal is arranged on an upper-order bit side, and the linear PCM signal is arranged on a lower-order bit side.

The simultaneous transmission and reproduction of a compressed audio signal and a linear PCM signal is satisfactorily achieved. An audio signal of a predetermined unit is sequentially transmitted via a predetermined transmission line to a reception side. The audio signal of the predetermined unit is a mixed signal of a compressed audio signal and a linear PCM signal. For example, the audio signal of the predetermined unit is an audio signal of a sub-frame unit. In this case, for example, in the audio signal of the sub-frame unit, the compressed audio signal is arranged on an upper-order bit side, and the linear PCM signal is arranged on a lower-order bit side.

The present disclosure relates to an audio data transmission method and apparatus. The method includes: determining a frequency of sampling of audio data to be processed as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, a number of slots of the audio data to be processed and a preset audio data occupied bit width; determining a duration of a high level in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; and outputting the processed audio data according to a pulse code modulation (PCM) timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal.

The present disclosure relates to an audio data transmission method and apparatus. The method includes: determining a frequency of sampling of audio data to be processed as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, a number of slots of the audio data to be processed and a preset audio data occupied bit width; determining a duration of a high level in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; and outputting the processed audio data according to a pulse code modulation (PCM) timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal.

The present disclosure relates to an audio data transmission method and apparatus. The method includes: determining a frequency of sampling of audio data to be processed as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, a number of slots of the audio data to be processed and a preset audio data occupying bit width; determining a duration of a high level in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; and outputting the processed audio data according to a pulse code modulation (PCM) timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal.

The present disclosure relates to an audio data transmission method and apparatus. The method includes: determining a frequency of sampling of audio data to be processed as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, a number of slots of the audio data to be processed and a preset audio data occupying bit width; determining a duration of a high level in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; and outputting the processed audio data according to a pulse code modulation (PCM) timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal.

Systems and methods for reliably transmitting data over wireless channels. In particular, the present disclosure relates to systems and methods for transmitting audio over available DFS and non-DFS channels. The present disclosure can include a master device including a first front end for transmitting data over at least one wireless working channel, a second front end for monitoring at least one wireless prescreened channel, and a radar and energy detector unit for detecting the presence of radar or energy over the at least one wireless working channel and the at least one wireless prescreened channel. The master device can actively monitor a working channel while simultaneously prescreening a channel that can be used to replace the working channel in the event that radar, energy, or low network quality is experienced on the working channel. Both the working channel and the prescreened channel can be actively monitored for radar and energy.

Systems and methods for reliably transmitting data over wireless channels. In particular, the present disclosure relates to systems and methods for transmitting audio over available DFS and non-DFS channels. The present disclosure can include a master device including a first front end for transmitting data over at least one wireless working channel, a second front end for monitoring at least one wireless prescreened channel, and a radar and energy detector unit for detecting the presence of radar or energy over the at least one wireless working channel and the at least one wireless prescreened channel. The master device can actively monitor a working channel while simultaneously prescreening a channel that can be used to replace the working channel in the event that radar, energy, or low network quality is experienced on the working channel. Both the working channel and the prescreened channel can be actively monitored for radar and energy.

The simultaneous transmission and reproduction of a compressed audio signal and a linear PCM signal is satisfactorily achieved. An audio signal of a predetermined unit is sequentially transmitted via a predetermined transmission line to a reception side. The audio signal of the predetermined unit is a mixed signal of a compressed audio signal and a linear PCM signal. For example, the audio signal of the predetermined unit is an audio signal of a sub-frame unit. In this case, for example, in the audio signal of the sub-frame unit, the compressed audio signal is arranged on an upper-order bit side, and the linear PCM signal is arranged on a lower-order bit side.

The simultaneous transmission and reproduction of a compressed audio signal and a linear PCM signal is satisfactorily achieved. An audio signal of a predetermined unit is sequentially transmitted via a predetermined transmission line to a reception side. The audio signal of the predetermined unit is a mixed signal of a compressed audio signal and a linear PCM signal. For example, the audio signal of the predetermined unit is an audio signal of a sub-frame unit. In this case, for example, in the audio signal of the sub-frame unit, the compressed audio signal is arranged on an upper-order bit side, and the linear PCM signal is arranged on a lower-order bit side.