Abstract: A wireless transceiver device includes a communication module and a processor. The communication module is used for receiving and transmitting radio frequency signals. The processor is coupled to the communication module and used for performing the following operations: determining whether to perform a spatial reuse transmission when detecting an overlapping basic service set (OBSS) packet; performing countdown of a spatial reuse backoff counter in response to determining that the spatial reuse transmission is to be performed; performing countdown of an enhanced distributed channel access (EDCA) backoff counter after the OBSS packet is transmitted; and transmitting a data packet via the communication module when one of the spatial reuse backoff counter and the EDCA backoff counter expires.

Abstract: A content channel generation device comprises a resource unit assignment circuit, for assigning scheduled station(s) as node(s) of a full binary tree according to a search algorithm; a node computing circuit, for determining first node connection information of the full binary tree, and to determine second node connection information of a smallest full binary tree according to a smallest binary tree algorithm and the first node connection information; a load balance circuit, for determining user field numbers corresponding to content channels according to a load balance function and the second node connection information; a user field generation circuit, for generating a traversal result of the smallest full binary tree according to a traversal algorithm and the second node connection information, and for generating user fields corresponding to the content channels according to the traversal result, to generate the content channels.

Abstract: Abstract of Disclosure An uplink scheduling method, for a computer communication network includes determining a ratio of a quantity of transport control protocol (TCP) data and a quantity of an acknowledgement (ACK) of the TCP according to information of a media access control (MAC) layer, system parameters of the MAC layer and transmission data of the computer communication network by a deep learning structure.

Abstract: A signal transmission method includes the following operations: selectively enabling a first backoff timer based on a spatial reuse condition when a channel on a transmission medium is in a busy state; selectively enabling a second backoff timer when the channel on the transmission medium switches from the busy state to an idle state; and controlling a transmitter circuit to transmit a data signal through the transmission medium based on a corresponding timer of the first backoff timer and the second backoff timer, in which when the corresponding timer is the first backoff timer, the transmitter circuit is controlled to transmit the data signal at first power, and when the corresponding timer is the second backoff timer, the transmitter circuit is controlled to transmit the data signal at second power, and the first power is lower than the second power.

Abstract: A transmission method for increasing a transmission throughput of a communication device includes: receiving a wireless signal, wherein the wireless signal includes a received packet; determining whether the received packet is from an overlapping basic service set (OBSS), and determining a length of a duration of a transmission opportunity (TXOP) according to information carried by the received packet; in response to the received packet being from the OBSS, performing packet transmission in a spatial reuse manner within the duration of the TXOP; and performing the packet transmission in a general manner after the duration of the TXOP ends; wherein a transmission power utilized in the spatial reuse manner is different from a transmission power utilized in the general manner, and a plurality of packets are transmitted in the spatial reuse manner within the duration of the TXOP.

Abstract: A transmission parameter decision method, used for a wireless transmission system with a plurality of user devices, includes (a) determining a plurality of characteristics corresponding to a current scene of the wireless transmission system at a first time point; and (b) determining a plurality of transmission parameters corresponding to each user device of the plurality of user devices at a second time point according to the plurality of characteristics; wherein the plurality of user devices perform wireless transmission using the corresponding plurality of transmission parameters at the second time point; wherein the second time point lags behind the first time point.

Abstract: A wireless transmission method includes obtaining an MCS (modulation and coding scheme) rate and a power amplifier gain of each station in a set of stations for a multi-user (MU) transmission, generating a maximum available MCS rate according to a plurality of MCS rates of the set of stations, selecting a power amplifier gain of the MU transmission according to the maximum available MCS rate, adjusting a digital gain of each station according to the power amplifier gain of the MU transmission and the power amplifier gain of each station, adjusting a frequency domain signal of each station according to the digital gain thereof, converting a plurality of adjusted frequency domain signals of the set of stations into a time domain signal, and generating an amplified signal for the MU transmission according to the power amplifier gain of the MU transmission and the time-domain signal.

Abstract: A wireless communication method for optimizing uplink transmission from a communication partner to a wireless communication device includes the following steps: after receiving an uplink performance estimation, determining uplink adjustment information including resource unit allocation and a target received signal strength indicator according to the uplink performance estimation; generating a target channel quality indicator (CQI) according to previous uplink sounding information and the uplink adjustment information, wherein the previous uplink sounding information indicates the characteristics of the uplink transmission; determining uplink transmission setting including a modulation and coding scheme and dual carrier modulation according to the target CQI and the type of an error correction technique and transmitting a control signal to a communication partner according to the uplink transmission setting; and updating the uplink performance estimation according to a reception signal from the communication

Abstract: An OFDMA power control method includes: transmitting a first trigger frame to a station, wherein the first trigger frame includes a first target RSSI; receiving a first TB-PPDU from the station, wherein the first TB-PPDU is transmitted by the station using a first power according to the first target RSSI; measuring a first power of the first TB-PPDU to obtain a first measured RSSI; and generating a second the target RSSI according to the first measured RSSI.

Abstract: A content channel generation device includes: a splitting circuit for generating resource units according to resource assignments; a resource unit assignment circuit for generating a full binary tree according to the resource units; a node computing circuit for generating a minimum full binary tree according to the full binary tree; a load balance circuit for generating user field numbers corresponding to content channels according to the minimum full binary tree and a load balance function; a merging circuit for generating a traversal result of the minimum full binary tree according to a traversal algorithm, and for generating a merged traversal result according to the traversal result; and a common field generation circuit for generating a resource assignment indicator according to the merged traversal result to generate a common field.

Abstract: A load balance circuit includes: a storing circuit, for storing first user field number(s) corresponding to first node(s) in a minimum full binary tree, wherein first resource unit(s) (RU(s)) corresponding to the first node(s) is smaller than or equal to an RU size; a user field number generation circuit, for generating third user field number(s) according to second user field number(s) corresponding to second node (s) in the minimum full binary tree, and generating second weight(s) according to first weight(s) corresponding to the second node(s), wherein second RU(s) corresponding to the second node(s) is greater than the RU size; and a load balance calculation circuit, for generating a plurality of user field numbers corresponding to a plurality of content channels according to the first user field number(s), the third user field number(s), the second weight(s), a load balance function and the first weight(s).

Abstract: A wireless communication system includes a transceiver circuit, a memory circuit, and a processor circuit. The transceiver circuit transmits data through subchannels that includes a first subchannel and a second subchannel. The memory circuit stores a lookup table that indicates corresponding relations between transmission rates and channel indicators.

Abstract: A wireless communication method, applied to a wireless communication device to decide uplink parameters, comprising: (a) determining which one of candidate stations can be at least one target station which can perform uplink transmissions to the wireless communication device; (b) calculating a number of the target station; (c) allocating at least one RU (Resource Unit) to the target station according to the number and pre-recorded reference allocation information, to generate the uplink parameters comprising RU allocation parameters; and (d) generating a trigger frame comprising the uplink parameters and transmitting the trigger frame to the target station.

Abstract: A wireless transmission method includes obtaining an MCS (modulation and coding scheme) rate and a power amplifier gain of each station in a set of stations for a multi-user (MU) transmission, generating a maximum available MCS rate according to a plurality of MCS rates of the set of stations, selecting a power amplifier gain of the MU transmission according to the maximum available MCS rate, adjusting a digital gain of each station according to the power amplifier gain of the MU transmission and the power amplifier gain of each station, adjusting a frequency domain signal of each station according to the digital gain thereof, converting a plurality of adjusted frequency domain signals of the set of stations into a time domain signal, and generating an amplified signal for the MU transmission according to the power amplifier gain of the MU transmission and the time-domain signal.

Abstract: The application discloses a method applied in a system. The method includes the following operations: determining a first statistics of a first signal and a second statistics of a second signal according to a power split ratio and a noise level of a relay node; relaying, by the relay node, the first signal according to the power split ratio, the first statistics and the second statistics to generate the second signal; and receiving, by a destination node, the second signal.

Abstract: A wireless communication method for optimizing uplink transmission from a communication partner to a wireless communication device includes the following steps: after receiving an uplink performance estimation, determining uplink adjustment information including resource unit allocation and a target received signal strength indicator according to the uplink performance estimation; generating a target channel quality indicator (CQI) according to previous uplink sounding information and the uplink adjustment information, wherein the previous uplink sounding information indicates the characteristics of the uplink transmission; determining uplink transmission setting including a modulation and coding scheme and dual carrier modulation according to the target CQI and the type of an error correction technique and transmitting a control signal to a communication partner according to the uplink transmission setting; and updating the uplink performance estimation according to a reception signal from the communication

Abstract: A wireless communication system includes a transceiver circuit, a memory circuit, and a processor circuit. The transceiver circuit transmits data through subchannels that includes a first subchannel and a second subchannel. The memory circuit stores a lookup table that indicates corresponding relations between transmission rates and channel indicators.

Abstract: A content channel generation device comprises a resource unit assignment circuit, for assigning scheduled station(s) as node(s) of a full binary tree according to a search algorithm; a node computing circuit, for determining first node connection information of the full binary tree, and to determine second node connection information of a smallest full binary tree according to a smallest binary tree algorithm and the first node connection information; a load balance circuit, for determining user field numbers corresponding to content channels according to a load balance function and the second node connection information; a user field generation circuit, for generating a traversal result of the smallest full binary tree according to a traversal algorithm and the second node connection information, and for generating user fields corresponding to the content channels according to the traversal result, to generate the content channels.

Abstract: The application discloses a method applied in a system. The method includes the following operations: determining a first statistics of a first signal and a second statistics of a second signal according to a power split ratio and a noise level of a relay node; relaying, by the relay node, the first signal according to the power split ratio, the first statistics and the second statistics to generate the second signal; and receiving, by a destination node, the second signal.

Abstract: A precoding method is provided. The precoding method includes computing a relaxed beamforming matrix according to multiple desired channel correlation matrices and multiple interfering channel correlation matrices; computing an approximated beamforming matrix according to the relaxed beamforming matrix; computing multiple degradations corresponding to the data streams according to multiple relaxed beamforming vectors within the relaxed beamforming matrix and multiple approximated beamforming vectors within the approximated beamforming matrix; selecting a selected data stream index according to the degradations; decomposing a selected relaxed beamforming vector corresponding to the selected data stream index into a first vector and a second vector; and updating the approximated beamforming matrix according to the first vector and augmenting the approximated beamforming matrix according to the second vector, to obtain an updated-and-augmented beamforming matrix.