In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may receive an otw signal that is associated with low-path pass information and transmission data. The apparatus may apply a cost function and an update function to the otw signal prior to sending the otw signal to an oscillator. The apparatus may determine a correction factor for use in estimating a gain of the oscillator based at least in part on an output of the update function.

In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may receive an otw signal that is associated with low-path pass information and transmission data. The apparatus may apply a cost function and an update function to the otw signal prior to sending the otw signal to an oscillator. The apparatus may determine a correction factor for use in estimating a gain of the oscillator based at least in part on an output of the update function.

A system for serializing input data signals and generating an output data signal includes a FIFO memory that launches the input data signals at different phases of a clock signal. The system further includes multiple stages of a serializer circuit, and each stage of the serializer circuit receives a clock signal. Each successive stage includes half the number of serializer circuits that are included in the previous stage, and each successive stage is clocked by a clock signal that transitions at twice the frequency of the previous stage clock signal. The serializer circuits that belong to a single stage receive the clock signal with different phase. The phase and frequency of clock signals of serializer stages are adjusted such that a launched input data signal is outputted as the output data signal. Further, a critical path for each serializer circuit is equal to full clock cycle of the clock signal.

A system for serializing input data signals and generating an output data signal includes a FIFO memory that launches the input data signals at different phases of a clock signal. The system further includes multiple stages of a serializer circuit, and each stage of the serializer circuit receives a clock signal. Each successive stage includes half the number of serializer circuits that are included in the previous stage, and each successive stage is clocked by a clock signal that transitions at twice the frequency of the previous stage clock signal. The serializer circuits that belong to a single stage receive the clock signal with different phase. The phase and frequency of clock signals of serializer stages are adjusted such that a launched input data signal is outputted as the output data signal. Further, a critical path for each serializer circuit is equal to full clock cycle of the clock signal.

A system for communicating data over a transmission line is disclosed. In one example implementation, the system may include a transmitter configured to modulate a control signal onto an RF signal using amplitude-shift keying modulation to generate a transmit signal. The system may include a receiver and a transmission line coupling the transmitter to the receiver. The transmitter may be configured to transmit the transmit signal over the transmission line to the receiver, and the receiver may be configured to de-modulate the control signal and extract clock information associated with the transmitter. In some embodiments, the system may include a tuning circuit and a modal antenna, and the tuning circuit may be or include the receiver. The receiver may be configured to adjust a mode of the modal antenna based on the control signal transmitted by the transmitter.

The current embodiments provide a control lever. The control lever may have a first connection unit with a plurality of inputs and at least one output. The at least one output may be configured for outputting an operation signal that represents the position of the control lever. The number of inputs of the plurality of inputs may exceed the number of outputs of the at least one output. The first connection unit may be configured to couple a first input of the plurality of inputs to the at least one output at a first point in time, and the connection unit may be configured to connect a second input of the plurality of inputs to the at least one output at a second point in time subsequent to the first point in time.

The current embodiments provide a control lever. The control lever may have a first connection unit with a plurality of inputs and at least one output. The at least one output may be configured for outputting an operation signal that represents the position of the control lever. The number of inputs of the plurality of inputs may exceed the number of outputs of the at least one output. The first connection unit may be configured to couple a first input of the plurality of inputs to the at least one output at a first point in time, and the connection unit may be configured to connect a second input of the plurality of inputs to the at least one output at a second point in time subsequent to the first point in time.

A method of a user equipment (UE) for receiving signals in a wireless communication system is provided. The method comprises receiving an enhanced synchronization signal and physical broadcast channel (eSS/PBCH) block comprising multiple consecutive symbols over downlink channels, wherein each of the multiple consecutive symbols of the eSS/PBCH block is received from a same antenna port of the BS; determining resources in the downlink channels to receive the eSS/PBCH block from the BS; and determining the eSS/PBCH block comprising the multiple consecutive symbols based on the determined resources, wherein each of the multiple consecutive symbols includes at least one of a primary synchronization signal (PSS), a secondary synchronization signal (SSS), an enhanced PSS (ePSS), an enhanced SSS (eSSS), or an enhanced PBCH (ePBCH).

The present disclosure relates to a circuit for calibrating a baud rate. The circuit includes: a first counter connected to a receiving module of a serial port chip and configured to record a first low level duration of a data frame received by the receiving module; a second counter configured to: receive a bit sampling pulse generated from sampling the data frame according to a current baud rate of the receiving module, and record a quantity of the bit sampling pulse in the first low level duration; a divider, connected to the first counter and the second counter and calculate a calibration baud rate according to the first low level duration and the quantity of the bit sampling pulse in the first low level duration; and a selector, connected to the receiving module and the divider and configured to output the calibration baud rate to the receiving module.

The present disclosure relates to a circuit for calibrating a baud rate. The circuit includes: a first counter connected to a receiving module of a serial port chip and configured to record a first low level duration of a data frame received by the receiving module; a second counter configured to: receive a bit sampling pulse generated from sampling the data frame according to a current baud rate of the receiving module, and record a quantity of the bit sampling pulse in the first low level duration; a divider, connected to the first counter and the second counter and calculate a calibration baud rate according to the first low level duration and the quantity of the bit sampling pulse in the first low level duration; and a selector, connected to the receiving module and the divider and configured to output the calibration baud rate to the receiving module.