A set of encoders within a transmitter (TX) physical layer (PHY) encode incoming data using a predefined encoder scheme by translating multiple data segments into a set of balanced bit sequences. Each data segment comprises a first number of bits and each balanced bit sequence comprises a second number of bits. A data striping component distributes the set of balanced bit sequences to a set of serializers by routing bits from particular bit positions in each balanced bit sequence to a corresponding serializer. The set of serializers generates serialized data based on the set of balanced bit sequences.

A set of encoders within a transmitter (TX) physical layer (PHY) encode incoming data using a predefined encoder scheme by translating multiple data segments into a set of balanced bit sequences. Each data segment comprises a first number of bits and each balanced bit sequence comprises a second number of bits. A data striping component distributes the set of balanced bit sequences to a set of serializers by routing bits from particular bit positions in each balanced bit sequence to a corresponding serializer. The set of serializers generates serialized data based on the set of balanced bit sequences.

A mobile device connected to a wireless sensor network may receive a script update in a series of transmissions from a network management device, the transmissions being broken up over an extended period of time. The transmissions may be as small as one or several packets that make up a portion of the script. Each transmission is sent and received in coordination with a predetermined active cycle of the mobile device, i.e., during the normal mode of operation for the mobile device. A device may transition from a low-power (sleep) state to an active (awake) state to perform its routine functions. During this active time, a network management device sends a message to the mobile device indicating the availability of a script update. The mobile device, in response, transmits to the network management device a requested amount of update data it wishes to receive during this period of activity. Once the requested amount of update data has been received, the mobile device returns to a low-power state, during which it receives no additional data transmissions.

The present disclosure provides a communication device and a skew correction method thereof. The communication device includes a first signal transceiving device and a correction device. The correction device is coupled to the first signal transceiving device through multiple first channels in a correction mode, each of the first channels has multiple first sub-channels. In the correction mode, the first signal transceiving device simultaneously transmits multiple first data through all the first sub-channels of first channels, and the correction device receives the first data through all the first sub-channels to calculate first skew differences of all the first sub-channels, thus calculating first skew differences according to the first skew values.

The present disclosure provides a communication device and a skew correction method thereof. The communication device includes a first signal transceiving device and a correction device. The correction device is coupled to the first signal transceiving device through multiple first channels in a correction mode, each of the first channels has multiple first sub-channels. In the correction mode, the first signal transceiving device simultaneously transmits multiple first data through all the first sub-channels of first channels, and the correction device receives the first data through all the first sub-channels to calculate first skew differences of all the first sub-channels, thus calculating first skew differences according to the first skew values.

A Digital Time Processing (DTP) disclosed herein is contributing methods, systems and circuits for filtering out a phase noise of a timing referencing signal, producing a timing implementing signal from a free running local clock and time processing over time sensitive networks (TP TSN) enabling improved utilization of IEEE 1588 PTP and better accuracy of time distribution.

A data receiving apparatus of the present disclosure includes a first phase adjustment circuit and a second phase adjustment circuit. The first phase adjustment circuit performs a phase adjustment between multiple data signals received via multiple data signal lines. The second phase adjustment circuit performs a phase adjustment of a clock signal received via a clock signal line with respect to the multiple data signals after the phase adjustment between the multiple data signals is performed by the first phase adjustment circuit.

A data receiving apparatus of the present disclosure includes a first phase adjustment circuit and a second phase adjustment circuit. The first phase adjustment circuit performs a phase adjustment between multiple data signals received via multiple data signal lines. The second phase adjustment circuit performs a phase adjustment of a clock signal received via a clock signal line with respect to the multiple data signals after the phase adjustment between the multiple data signals is performed by the first phase adjustment circuit.

An audio/video (A/V) hub that selectively determines one or more acoustic characteristics of an environment that includes the A/V hub is described. In particular, the A/V hub may detect, using wireless communication, an electronic device (such as a speaker) in the environment. Then, the A/V hub may determine a change condition, such as when the electronic device was not previously detected in the environment and/or a change in a location of the electronic device. In response to determining the change condition, the A/V hub may transition into a characterization mode. During the characterization mode, the A/V hub may: provide instructions to the electronic device to playback audio content at a specified playback time; determine one or more acoustic characteristics of the environment based on acoustic measurements in the environment; and store the one or more acoustic characteristics and/or a location of the electronic device in memory.

An audio/video (A/V) hub that selectively determines one or more acoustic characteristics of an environment that includes the A/V hub is described. In particular, the A/V hub may detect, using wireless communication, an electronic device (such as a speaker) in the environment. Then, the A/V hub may determine a change condition, such as when the electronic device was not previously detected in the environment and/or a change in a location of the electronic device. In response to determining the change condition, the A/V hub may transition into a characterization mode. During the characterization mode, the A/V hub may: provide instructions to the electronic device to playback audio content at a specified playback time; determine one or more acoustic characteristics of the environment based on acoustic measurements in the environment; and store the one or more acoustic characteristics and/or a location of the electronic device in memory.