Abstract: A system and method are provided for improving success rate of beacon frame reception from an access point (AP) in wireless networks by determining an STA wake-up time to compensate for inaccuracy in the STA's clock, optimizing client device's wake-up schedules for reliable data transmission and minimizing power usage. The client device determines the optimal STA wake-up time by analyzing beacon frames, identifying differences between the STA's clock and a reference time. Optimizing the wake-up schedules of the STA from a power-saving mode allows the STA to prepare in advance of beacon frame broadcasts, ensuring their consistent reception.

Abstract: A system and method are provided for adaptively optimizing client station wake-up schedules in wireless networks for efficient and reliable communication. By analyzing one or more received beacon frames and classifying them as current or preceding, the client station determines if the access point transmits beacon frames early. In response to detecting that the received beacon frame is a current beacon frame, a lead time is calculated based on transmission time and target time of the received beacon frame. The client station uses the lead time to wake up early enough to reliably receive beacon frames while minimizing unnecessary power usage.

Abstract: The present disclosure provides system and methods for allocating the schedule period among multiple channels. The method includes receiving a first signal from a first channel and receiving a second signal from a second channel. The first signal includes a first communication request and the second signal includes a second communication request. The method includes determining a first priority degree corresponding to the first communication request and a second priority degree corresponding to the second communication request, estimating a first data flow in the first signal over a schedule period and a second data flow in the second signal over the schedule period, and allocating the schedule period to the first channel and the second channel based on the first priority degree, the second priority degree, the estimated first data flow, and the estimated second data flow.

Abstract: A system and method are provided for improving success rate of beacon frame reception from an access point (AP) in wireless networks by determining an optimal wake-up advance amount to compensate for the AP's clock inaccuracy, optimizing client device's wake-up schedules based on the optimal wake-up advance amount for reliable data transmission and minimizing power usage. The client device determines the optimal wake-up advance amount by analyzing beacon frames, identifying differences between the AP's clock and the client station's own clock. Optimizing the wake-up schedules of the client device from a power-saving mode allows the client station to prepare in advance of beacon frame broadcasts, ensuring their consistent reception.

Abstract: A system and method are provided for improving success rate of beacon frame reception from an access point (AP) in wireless networks by determining an STA wake-up time to compensate for inaccuracy in the STA's clock, optimizing client device's wake-up schedules for reliable data transmission and minimizing power usage. The client device determines the optimal STA wake-up time by analyzing beacon frames, identifying differences between the STA's clock and a reference time. Optimizing the wake-up schedules of the STA from a power-saving mode allows the STA to prepare in advance of beacon frame broadcasts, ensuring their consistent reception.

Abstract: The present disclosure provides system and methods for allocating the schedule period among multiple channels. The method includes receiving a first signal from a first channel and receiving a second signal from a second channel. The first signal includes a first communication request and the second signal includes a second communication request. The method includes determining a first priority degree corresponding to the first communication request and a second priority degree corresponding to the second communication request, estimating a first data flow in the first signal over a schedule period and a second data flow in the second signal over the schedule period, and allocating the schedule period to the first channel and the second channel based on the first priority degree, the second priority degree, the estimated first data flow, and the estimated second data flow.

Abstract: The present disclosure addresses a system and a method for enhancing a communication range between a first device and a second device communicatively coupled to the first device. The method includes scanning within a first range of the first device to determine a first list of connectable devices; instructing, by the first device, the second device to scan within a second range of the second device to determine a second list of connectable devices; receiving, by the first device, the second list of connectable devices from the second device; determining, by the first device, a target device based on the first list of connectable devices and the second list of connectable devices; and establishing, by the first device, a communication with the second device via the target device.

Abstract: The present disclosure addresses a system and a method for adaptively adjusting sleep modes of a first device such that the first device can have a quick communication response with a low energy consumption. The method includes operating in a first sleep mode, checking for Beacon signals broadcasted by a second device at a first periodic interval, receiving a sleep mode changing trigger from a third device, changing from the first sleep mode to a second sleep mode, continuing to check for the Beacon signals broadcasted by the second device at a second periodic interval shorter than the first periodic interval, detecting that there is a communication request in the Beacon signals while operating in the second sleep mode, and establishing a communication session with a user device based on the communication request.

Abstract: Embodiments of the present application provide a data transmission method, apparatus and device, the method includes: sending, by a first device, first indication information to a second device if the first device does not receive a data packet sent by a data source device in a first time slot successfully, where the first device and the second device are configured to receive the data packet sent by the data source device in a same time slot; receiving the data packet sent by the data source device or the second device when the second device receives the data packet sent by the data source device in the first time slot successfully; and receiving the data packet sent by the data source device when the second device does not receive the data packet sent by the data source device in the first time slot successfully. The reliability of data transmission is improved.

Abstract: A multiple-input multiple-output (MIMO) receiver for Wireless Fidelity (Wi-Fi), and an electronic device. The MIMO receiver for Wi-Fi includes n antennas, an energy detection circuitry, a multilink gating circuitry, receiving links, a frequency offset adjustment circuitry, and a gating control circuitry. The multilink gating circuitry includes one energy detection gating output terminal coupled to the frequency offset adjustment circuitry through the energy detection circuitry and n-1 non-energy detection gating output terminals coupled to the frequency offset adjustment circuitry. The multilink gating circuitry connects each gating input terminal to one of the gating output terminals. The gating control circuitry periodically obtains a signal strength of each of the receiving links, and controls, based on the signal strength, the multilink gating circuitry to connect the gating input terminal corresponding to the receiving link that meets a preset condition to the energy detection gating output terminal.

Abstract: Embodiments of the present disclosure provide a data transmission method, including: a first device receiving a data packet in a first slot, where the data packet is noise or a data packet received from a data source device; the first device determining a link state between the data source device and the first device according to the data packet, where the link state comprising an idle state or a busy state; and the first device transmitting audio data to a second device in the first slot when determining the link state being the idle state, where the audio data is audio data received by the first device from the data source device.

Abstract: A Bluetooth communication method and device, and storage medium and terminal are provided. The method includes: generating a frame to be transmitted, wherein the frame to be transmitted comprises at least a Preamble, an Access Code, a Header, an Enhanced Data Rate Payload and a Trailer, wherein a configuration mode of the Preamble is consistent with a configuration mode of a Preamble in an LE frame, a configuration mode of the Header, the Enhanced Data Rate Payload and the Trailer are consistent with configuration modes of corresponding parts in an EDR frame, a configuration mode of the Access Code is consistent with a configuration mode of an Access Code in the LE frame and a configuration mode of an Access Code in the EDR frame; and generating and transmitting the frame to be transmitted by a modulation mode of the EDR frame and a Symbol Rate of the LE frame.

Abstract: A Bluetooth communication method and device, and storage medium and terminal are provided. The method includes: generating a frame to be transmitted, wherein the frame to be transmitted comprises at least a Preamble, an Access Code, a Header, an Enhanced Data Rate Payload and a Trailer, wherein a configuration mode of the Preamble is consistent with a configuration mode of a Preamble in an LE frame, a configuration mode of the Header, the Enhanced Data Rate Payload and the Trailer are consistent with configuration modes of corresponding parts in an EDR frame, a configuration mode of the Access Code is consistent with a configuration mode of an Access Code in the LE frame and a configuration mode of an Access Code in the EDR frame; and generating and transmitting the frame to be transmitted by a modulation mode of the EDR frame and a Symbol Rate of the LE frame.

Abstract: Embodiments of the present disclosure provide a data transmission method, including: a first device receiving a data packet in a first slot, where the data packet is noise or a data packet received from a data source device; the first device determining a link state between the data source device and the first device according to the data packet, where the link state comprising an idle state or a busy state; and the first device transmitting audio data to a second device in the first slot when determining the link state being the idle state, where the audio data is audio data received by the first device from the data source device.

Abstract: A wireless communication method, a terminal, an audio component, an apparatus and a storage medium are disclosed. The method comprises: establishing a first communication link, communicating with a first audio component of an electronic device according to the first communication link; establishing a second communication link, communicating with a second audio component of the electronic device according to the second communication link; sending a first audio data packet to the first audio component and receiving first acknowledgement information fed back by the first audio component; receiving second acknowledgement information fed back after monitoring the terminal sending the first audio data packet by the second audio component; and performing data coordination processing according to the first acknowledgement information and the second acknowledgement information. Working loads on the primary earpiece of a Bluetooth headset or on a terminal is reduced by the embodiments of the present disclosure.

Abstract: Embodiments of the present application provide a data transmission method, apparatus and device, the method includes: sending, by a first device, first indication information to a second device if the first device does not receive a data packet sent by a data source device in a first time slot successfully, where the first device and the second device are configured to receive the data packet sent by the data source device in a same time slot; receiving the data packet sent by the data source device or the second device when the second device receives the data packet sent by the data source device in the first time slot successfully; and receiving the data packet sent by the data source device when the second device does not receive the data packet sent by the data source device in the first time slot successfully. The reliability of data transmission is improved.

Abstract: Methods and apparatuses for communication include: after a data source device discovers a first device in a device group based on a group identifier, pairing the first device with the data source device based on the group identifier to obtain pairing information; transmitting a notification message from the first device to one or more other devices in the device group, the notification message including an instruction to update a status of each of the one or more other devices in the device group to be invisible to a device outside the device group; and providing the pairing information to a second device in the device group, the pairing information being used for establishing a connection between the second device and the data source device.

Abstract: Methods and apparatuses for communication include: after a data source device discovers a first device in a device group based on a group identifier, pairing the first device with the data source device based on the group identifier to obtain pairing information; transmitting a notification message from the first device to one or more other devices in the device group, the notification message including an instruction to update a status of each of the one or more other devices in the device group to be invisible to a device outside the device group; and providing the pairing information to a second device in the device group, the pairing information being used for establishing a connection between the second device and the data source device.

Abstract: A method, a device group, a system, and a storage medium for wireless connection include: establishing a bidirectional connection between a wireless device group and a data source device via a group identifier; connecting any two wireless devices in the wireless device group via a preset physical identifier; establishing a first bidirectional connection between a first wireless device in the wireless device group and the data source device via the group identifier; synchronizing link information of the first bidirectional connection to a second wireless device to cause the second wireless device to establish a second bidirectional connection to the data source device; and obtaining data by respectively monitoring data transmitted from the data source device to the group identifier by the first wireless device and the second wireless device.

Abstract: Method and apparatus for controlling a physical layer protocol data unit (PPDU) transmission rate of a physical layer in a first terminal are provided. The method includes: obtaining a media access control protocol data unit (MPDU) retransmission frequency of the first terminal in a first period, where the first terminal is a station or an access point in a wireless network; if the MPDU retransmission frequency is less than a frequency threshold, promoting the PPDU transmission rate in a second period; and else, suppressing the PPDU transmission rate in the second period, where the second period is following and adjacent to the first period along a time axis. The PPDU transmission rate may be adjusted adaptively according to a channel's practical transmission state, the physical layer rate may be prevented from decreasing continuously in noisy channel environment, and a throughput rate may be improved in real time.