134results about "Transmission path sub-channels allocation" patented technology

A method (100) of allocating discrete radio resources of an access node of a telecommunication network to wireless devices The method is performed by a scheduler node of the telecommunication network. The method comprises, sequentially, for each radio resource solving (S101) a lower-bound optimization problem, where is the number of wireless devices. The lower-bound optimization problem is dependent on a respective mean reward and a respective value, for each wireless device, to obtain an estimated optimal resource allocation. The respective parameters are updated, for each wireless device, by sampling from a probability function defined as a convex combination of the estimated optimal resource allocation and a fairness constraint. The method further comprises initiating (S103) allocation of the radio resource to the wireless device having the largest mean reward.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a transmitter node may determine a set of parameters for a waveform to be transmitted by the transmitter node, wherein the waveform is to use an allocated bandwidth that is larger than a sweeping bandwidth of a frequency modulated continuous wave (FMCW) chirp. The transmitter node may transmit the waveform according to the set of parameters. Numerous other aspects are described.

A modem chip includes a radio frequency integrated circuit (RFIC) configured to receive a data signal and a reference signal through a precoding resource block group (PRG) including a plurality of first subcarriers to which the data signal is allocated and a plurality of second subcarriers to which the reference signal is allocated, and a processor configured to calculate a delay spread value of the data signal by using the reference signal, determine one of two threshold values, adjacent to the delay spread value, of a plurality of threshold values as a maximum threshold value corresponding to the delay spread value, and calculate an adjustment log likelihood ratio (LLR) of each of at least one first subcarrier among the plurality of first subcarriers, based on an adjustment coefficient corresponding to the maximum threshold value.

The present disclosure relates to a channel detection method, device and storage medium, and belongs to the technical field of communication. The method is executed by a wireless communication device, the wireless communication device includes n antenna panels, n is an integer greater than or equal to 2; the method comprises: obtaining channel detection control information of each of k antenna panels in the n antenna panels; and respectively controlling the k antenna panels to perform channel detection through the channel detection control information of each of the k antenna panels. For a wireless communication device with multiple antenna panels, the present disclosure controls k antenna panels in n antenna panels of the wireless communication device to perform channel detection according to the channel detection control information of each of the k antenna panels, so that the wireless communication device can perform channel detection based on different antenna panels, and the application scenarios of channel detection of the wireless communication device are expanded.

A method and apparatus for wireless communication and storage medium are provided. The apparatus includes at least one processor; and memory storing instructions that, when executed by the at least one processor, cause the apparatus at least to: determine a guard band width associated with a symbol based on information about resource allocation to the apparatus; set a pulse-shaping parameter associated with the symbol based on the guard band width; and output the symbol having a waveform based on the pulse-shaping parameter.

An integrated circuit of a communication device for controlling a communication process, the communication process comprising: receiving a PHY protocol data unit comprising a duration field, the duration field comprising duration information indicating a duration for which the communication device is prohibited from transmitting a high efficiency, HE, trigger-based TB PHY protocol data unit; issuing a PHY-CCA clear channel assessment primitive parameter indicating bandwidth information about a busy or idle state of each subchannel within an operating bandwidth; updating a network allocation vector, NAV, value based on the duration information when the indicated duration is greater than a current NAV value, and when it is determined that the communication device is not a target receiver of the received PHY protocol data unit; determining a busy / idle state of at least one subchannel comprising a resource unit, RU, in which an HE TB PHY protocol data unit is to be transmitted; and controlling transmission of the HE TB PHY protocol data unit based on the updated NAV value and the busy / idle state of the at least one subchannel, and controlling transmission of the HE TB PHY protocol data unit when the at least one subchannel does not include a primary subchannel, regardless of whether the primary subchannel is busy or idle.

The application discloses a method for data transmission between nodes, an electronic device and a node communication system, and belongs to the communication field. The method for data transmission between nodes comprises the following steps: a source node acquires a backoff time under the condition that an idle time of a target channel is greater than a threshold value; the target channel is a common available channel between the source node and a target node, and the backoff time is related to the number of common available channels between the source node and the target node; if the target channel is in an idle state within the backoff time after the idle time, the source node sends a request to send frame to the target node after the end of the backoff time, and the request to send frame is used for initiating reservation of the target channel; and the source node performs data transmission with the target node by using the target channel under the condition that an allow to send frame sent by the target node is received.

A base station of a network may bar access to certain types of user equipment (UE). The base station broadcasts a system information block (SIB) identifying a plurality of random access channel (RACH) sub-bands of an uplink (UL) bandwidth and which of the plurality of RACH sub-bands includes physical random access channel (PRACH) resources and receives, from the UE, a preamble from one of the plurality of RACH sub-bands selected by the UE.

Methods, systems, and devices for wireless communications are described. A first user equipment (UE) may identify a conflict between sidelink messages in one or more sidelink resources of a set of sidelink resources reserved for communications by a second UE. In response to identifying the conflict, the first UE may measure a system load of a sidelink channel for the sidelink messages and may determine a threshold system load of the sidelink channel based on one or more priorities associated with the conflicting sidelink messages. If the system load satisfies the threshold system load, the first UE may transmit a message that indicates the conflict. Additionally, or alternatively, the first UE may transmit the conflict indication using a resource determined based on whether one or more of the conflicting sidelink messages are a broadcast sidelink message or a groupcast sidelink message.

A method for wireless communication performed by a user equipment (UE) includes receiving a first message including a configuration for reconfiguring bandwidth parts (BWPs) of a network entity. The BWPs can be used on non-terrestrial beams of a non-terrestrial entity. The method further includes reconfiguring a BWP of the BWPs based on the configuration. The method further includes switching from a current BWP to the reconfigured BWP to communicate with the network entity, e.g., a non-terrestrial entity.

Systems and methods are described herein for inserting supplemental content into a QAM signal. A unicast QAM signal between a server and a client device for delivery of content is established. The QAM signal has a particular frequency corresponding to the channel on which it will be transmitted to the client device. A request or other signal may be received from the client device requesting that supplemental content be inserted into the QAM signal. A portion of the bandwidth of the QAM signal is allocated for the supplemental content. The supplemental content is transcoded into a supplemental QAM signal in the particular frequency. The supplemental content may be packetized content such as internet protocol-based content and may be retrieved from a server or database. The supplemental QAM signal is then inserted into the unicast QAM signal using the allocated portion of the bandwidth.

A method (100) of allocating discrete radio resources of an access node of a telecommunication network to wireless devices The method is performed by a scheduler node of the telecommunication network. The method comprises, sequentially, for each radio resource solving (S101) a lower-bound optimization problem, where is the number of wireless devices. The lower-bound optimization problem is dependent on a respective mean reward and a respective value, for each wireless device, to obtain an estimated optimal resource allocation. The respective parameters are updated, for each wireless device, by sampling from a probability function defined as a convex combination of the estimated optimal resource allocation and a fairness constraint. The method further comprises initiating (S103) allocation of the radio resource to the wireless device having the largest mean reward.

Embodiments of the present disclosure relate to methods and apparatuses for time domain resource indication in a multi-cell scheduling scenario. According to some embodiments of the disclosure, a UE may: receive, from a BS, a DCI format scheduling a first set of cells among a second set of cells configured for the UE by the BS, wherein the DCI format includes a field for indicating the first set of cells and time domain resource allocations for the first set of cells by pointing to a first entry of a TDRA list for multi-cell scheduling among the second set of cells; determine the first set of cells based on the field; and determine time domain resources on the first set of cells based on the field.

This application provides a data processing method and a communication apparatus. The method is performed by a radio frequency unit side of a network device. The method includes: determining a first resource feature of first service data; and sending the first service data to a first processing module based on the first resource feature, where the first processing module is any one of at least one processing module, and the at least one processing module is used in a distributed unit side of the network device. In this way, a radio frequency unit of the network device performs resource feature identification of service data, and forwards corresponding service data to a processing module in a distributed unit, so that overall latency of data processing can be reduced.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a configuration associated with a plurality of search spaces, wherein the plurality of search spaces are distributed across a plurality of slots. The UE may drop all search spaces of an identified slot based at least in part on one or more overbooking conditions. The UE may monitor a remainder of the plurality of search spaces other than the dropped search spaces. Numerous other aspects are described.

The present application provides a method executed by a user equipment (UE), comprising: receiving bandwidth part (BWP) configuration information of a UE type of a network for the UE, wherein a BWP corresponding to the BWP configuration information is different from an initial downlink BWP of a cell; and determining, by the UE, at least one of a physical downlink control channel (PDCCH) position in a common search space, a width of a frequency domain indication field in downlink control information (DCI) for data scheduling, a value, and a position of scheduled physical downlink shared channel (PDSCH) resources according to the received BWP configuration information.

The present disclosure relates to the field of communications, and provided therein are a method, apparatus and device for determining a channel detection mechanism, and a storage medium. The method comprises: determining a detection mode on a broadband spectrum; when the detection mode is a broadband detection mode, determining a channel detection mechanism corresponding to the broadband spectrum according to at least one subband among a plurality of subbands; and when the detection mode is a subband detection mode, respectively determining a channel detection mechanism corresponding to each subband among the plurality of subbands according to the each subband. The present disclosure may employ different determination manners on the basis of different detection modes to determine a more reasonable channel detection mechanism, thereby achieving the fair occupation of channel resources on an unlicensed spectrum with other wireless communication systems.

Multiple user equipments (UEs) may initiate independent ranging sessions at approximately the same time and location and may interfere with each other. A UE receiving multiple initial messages for ranging determines whether there is a time separation between the ranging sessions. The UE may further determine whether there is a geographic separation between the ranging sessions, for example, whether the initiating UEs are separated. If there is no separation, the UE separates available ranging signal characteristics, such as frequency bandwidth, timing instance, and identifier, and communicates a different set of ranging signal characteristics to each initiating UE. Multiple ranging sessions may be conducted using different sets of ranging signal characteristics without much risk of interference.

Aspects of the disclosure are directed to method and techniques for wireless communications between wireless nodes via subband full-duplex (SBFD) resources and non-SBFD resources. In some examples, the wireless nodes may communicate using coupled bandwidth parts (BWPs) of varying bandwidth to accommodate downlink and uplink communications during SBFD resources.

A method and apparatus are provided for dynamic resource allocation, scheduling and signaling for variable data real time services (RTS) in long term evolution (LTE) systems. Preferably, changes in data rate for uplink RTS traffic are reported to an evolved Node B (eNB) by a UE using layer 1, 2 or 3 signaling. The eNB dynamically allocates physical resources in response to a change in data rate by adding or removing radio blocks currently assigned to the data flow, and the eNB signals the new resource assignment to the UE. In an alternate embodiment, tables stored at the eNB and the UE describe mappings of RTS data rates to physical resources under certain channel conditions, such that the UE uses the table to locally assign physical resources according to changes in UL data rates. Additionally, a method and apparatus for high level configuration of RTS data flows is also presented.

Various examples relate to efficient trigger-based (TB) multi-user (MU) uplink (UL) transmissions in wireless local area networks (WLANs). A station (STA) receives a trigger frame from an access point (AP) that allocates one or more resource units (RUs) corresponding to one or more of a plurality of sub-channels. The STA then performs a transmission using the allocated one or more RUs in response to receiving the trigger frame. In a case where at least one of the plurality of sub-channels is detected to be busy, the one or more sub-channels comprise a subset (e.g., some but not all) of the plurality of sub-channels.

[0009] According to some embodiments of the present disclosure, a UE may receive, from a BS, a DCI format for scheduling a first set of cells among a second set of cells configured for the UE by the BS, the DCI format including a field for indicating the first set of cells and a time domain resource allocation for the first set of cells by pointing to a first entry of a TDRA list for multi-cell scheduling among the second set of cells, determine the first set of cells based on the field, and determine the time domain resources for the first set of cells based on the field.

To improve the efficiency of uplink multi-user transmission.SOLUTION: A communication device includes a receiver that, during operation, receives a physical layer protocol data unit (PPDU) indicating duration information, and bandwidth information about one or more frequency channels on which the PPDU is received, and a transmitter that, during operation, transmits a frame on a frequency channel other than the one or more frequency channels on which the PPDU is received. The transmitter does not transmit the frame on the one or more frequency channels corresponding to the bandwidth information within a period indicated by the duration information.SELECTED DRAWING: Figure 7A

To provide a cable communication system instead of an on-vehicle CAN (controller area network) / LIN (local interconnection network) bass.SOLUTION: A cable communication system comprises: an electric power line or a transmission line that is connected to a plurality of communication units; and a master communication unit. In a first time region, each of the plurality of communication units includes a dedicated transmission frequency band, and the transmission frequency band of the plurality of communication units is not overlapped with each other, and is not overlapped to the transmission frequency band of the master communication unit or a transmission time. All of the transmission frequency bands can be coupled to a complete OFDM frequency band width, and has no guard band in the transmission frequency band.SELECTED DRAWING: Figure 1

Example embodiments of the present disclosure relate to configuring a frame pattern. A first device receives first information from a second device. The first information indicates a first frame pattern of a set of pre-configured frame patterns, and the first frame pattern is to be applied to a resource, where the resource includes, at least in part, a sub-band non-overlapping full duplex (SBFD) resource. The first device also communicates with the second device on the resource based at least in part on the first frame pattern.

Methods, systems, and devices for wireless communication are described. The described techniques generally provide spatially coupled multiple-input multiple-output (MIMO) signaling for a single codeword across multiple layers. A transmitting device may transmit a set of code blocks associated with a codeword via a plurality of time-frequency resources using a plurality of spatial layers. At a first time-frequency resource, each code block in a first subset of the set of code blocks may be mapped to a respective transmit layer, and at a second time-frequency resource, each code block in a second subset of the set of code blocks may be mapped to a respective transmit layer, where the second set of code blocks is interleaved with the first set of code blocks. By interleaving code blocks across multiple time-frequency resources, a receiving wireless device may counteract interference on one or more previously decoded code blocks.