Prioritization procedures for nr v2x sidelink shared channel data transmission

Abstract

To provide methods and apparatuses for prioritizing sidelink communication transmissions.SOLUTION: An apparatus may transmit, to a network node, assistance parameters associated with sidelink communication comprising quality of service parameters. The apparatus may receive, from the network node, configuration parameters associated with sidelink communication that comprise a logical channel configuration, a mapping of a quality of service parameter to a sidelink radio bearer, and a mapping of the sidelink radio bearer to a sidelink logical channel. The apparatus may receive a sidelink resource grant and may select, based on the logical channel configuration, one or more sidelink logical channels to be served by the sidelink resource grant. The apparatus may transmit a generated medium access control protocol data unit, comprising data associated with the selected one or more sidelink logical channels.SELECTED DRAWING: None

Description

[Technical Field]

[0001] (CROSS-REFERENCE TO RELATED APPLICATIONS) This application is a continuation of U.S. Provisional Patent Application No. 62 / 691,300, filed June 28, 2018. 2 and U.S. Provisional Patent Application No. 62 / 841,536, filed May 1, 2019. No. 6,239,999, filed on Oct. 1, 2003, the contents of which are incorporated herein by reference in their entireties. [Background technology]

[0002] Progress of Vehicle-To-X Communication (V2X) Applications As the platform advances, more resource-intensive use cases are supported. For example, sending short messages can be done using raw sensor data, vehicle intent data, and future This may be complemented by the transmission of larger messages, including coordination and confirmation of maneuvers. The expected data rates, reliability, and latency for these applications are , range, and speed requirements may be even more demanding than in traditional systems. For example, the throughput of modern V2X applications is It is expected that the throughput will be 100 times higher than that of conventional applications. However, conventional LTE V2X for sidelink data transmission, such as that used in V2X, Logical Channel Prioritization (LCP) Procedure However, there are several challenging constraints to meet the requirements of modern V2X applications. There are limitations.

[0003] Therefore, the latest V2X applications for use in New Radio (NR) systems LCP procedures for sidelink transmission and uplink (U L) Rules for prioritizing transmissions are needed. Summary of the Invention

[0004] This Summary is provided in a simplified form to provide an overview of the Detailed Description, which is further described below. This Summary is provided to introduce a selection of key features of the claimed subject matter. to identify a distinctive feature or substantial characteristic or to limit the scope of the claimed subject matter. Furthermore, claimed subject matter is not intended to be used for any purpose other than as a and is not limited to any limitation that addresses any or all of the disadvantages described in the preceding paragraph. do not have.

[0005] Methods and apparatus for prioritizing transmission of sidelink communications are described herein. According to one exemplary embodiment, the device may include a vehicle-to-X communication (V2X) configuration parameter The device may receive a configuration associated with the sidelink grant from the network. The device may receive a sidelink grant from multiple The device may select a logical channel. The device may select the logical channel with the highest priority from among the selected logical channels. Proximity-based Service associated with the highest logical channel The device may select the ProSe destination. The device may select the highest priority logical channel from among the selected logical channels. The wireless communication device may transmit to the ProSe destination via the logical channel of priority. , may determine transmission parameters associated with the radio resource grant.

[0006] According to one exemplary embodiment, the device is connected to a network via a network. and a network node configured to receive one or more aiding parameters associated with sidelink communications. In this case, one or more assistance parameters may be transmitted to one or more service The device includes Quality of Service (QoS) parameters. and receiving from the node one or more configuration parameters associated with sidelink communications. In this case, the one or more configuration parameters may include logical channel configuration, sidelink Mapping of QoS parameters to radio bearers and multiple sidelink logical channels of a device Mapping of sidelink radio bearers to one of the sidelink logical channels The device may receive a sidelink resource grant. Based on the sidelink configuration, there are multiple sidelinks that will be served by the sidelink grant. The mobile station may select one or more sidelink logical channels from the sidelink logical channels. The device transmits data associated with the selected one or more sidelink logical channels. Includes Media Access Control (MAC) protocol data units The device may generate a Protocol Data Unit (PDU) for the received sidelink. The generated MAC PDU may be transmitted using a clear resource grant.

[0007] BRIEF DESCRIPTION OF THE DRAWINGS The foregoing summary and the following detailed description should be better understood when read in conjunction with the accompanying drawings. It is well understood that various aspects of the present disclosure are shown for purposes of illustrating the present disclosure. The disclosure is not limited to the particular aspects discussed. [Brief explanation of the drawings]

[0008] [Figure 1] Figure 1 is an overview diagram of 5G eV2X requirements versus LTE V2V R14 requirements. [Figure 2] Figure 2 shows a high-level diagram of the non-roaming architecture for PC5 and LTE-Uu based V2X communications. [Figure 3] Figure 3 is a diagram of LTE V2X management objects over PC5 communication. [Figure 4] FIG. 4 is a diagram of a Geographical Area (GA) managed object. [Figure 5] FIG. 5 is a diagram of an even-N sidelink BSR and truncated sidelink BSR MAC control element. [Figure 6] FIG. 6 is a diagram of odd-N sidelink BSR and shortened sidelink BSR MAC control elements. [Figure 7] FIG. 7 shows a case where both grants are completely overlapping and have the same first allowed transmission start point, but the time lengths of the two grants are different. [Figure 8] FIG. 8 shows a case where both grants are completely overlapping and have the same final allowed transmission end point, but the time lengths of the two grants are different. [Figure 9] FIG. 9 illustrates a case where the grants have different time lengths, partially overlap, and the first allowed transmission start point and the last allowed transmission end point of each grant are different. [Figure 10] FIG. 10 shows a case where the grants have different time lengths, partially overlap, and the first allowed transmission start point and the last allowed transmission end point of each grant are different. [Figure 11] FIG. 11 shows a case where the grants have different time lengths, completely overlap, and the first allowed transmission start point and the last allowed transmission end point of each grant are different. [Figure 12]Figure 12 is a diagram of NR basic V2X management objects over PC5 communication. [Figure 13] Figure 13 is a diagram of NR enhanced V2X management objects over PC5 communication. [Figure 14] FIG. 14 is a diagram of provisioning of V2X configuration parameters in a UE. [Figure 15] FIG. 15 is a high-level diagram of the NR V2X logical channel prioritization procedure. [Figure 16] FIG. 16 is a diagram of a procedure for configuring a MAC with V2X configuration parameters. [Figure 17] FIG. 17 is a diagram of the procedure for transmission destination selection in the case of a single transmission chain. [Figure 18] FIG. 18 is a diagram of a procedure for transmission destination selection in the case of multiple transmission chains. [Figure 19] FIG. 19 is a diagram of an example resource allocation procedure during an NR V2X sidelink logical channel prioritization procedure. [Figure 20] FIG. 20 is a diagram of another example resource allocation procedure during an NR V2X sidelink logical channel prioritization procedure. [Figure 21] FIG. 21 is a diagram of another example resource allocation procedure during an NR V2X sidelink logical channel prioritization procedure. [Figure 22A] FIG. 22A illustrates one embodiment of an exemplary communication system in which the methods and apparatus described and claimed herein may be embodied. [Figure 22B] FIG. 22B is a block diagram of an example apparatus or device configured for wireless communication according to embodiments illustrated herein. [Figure 22C] FIG. 22C is a system diagram of a RAN and a core network according to one embodiment. [Figure 22D] FIG. 22D is a system diagram of a RAN and a core network according to one embodiment. [Figure 22E] FIG. 22E is a system diagram of a RAN and a core network according to one embodiment. [Figure 22F] FIG. 22F is a block diagram of an exemplary computing system in which one or more devices of the communications networks shown in FIGS. 22A, 22C, 22D, and 22E may be embodied. [Figure 22G] FIG. 22G illustrates one embodiment of an exemplary communication system 111 in which the methods and apparatus described and claimed herein may be embodied. DETAILED DESCRIPTION OF THE INVENTION

[0009] A method and method for prioritizing transmission of V2X sidelink communications over uplink (UL) transmissions The present disclosure provides an extended V2X management object (Management Object) and an apparatus for implementing the same. A User Equivalent Object (MO) is described herein, which is a It can be used to provision V2X configuration parameters to the UE. (1) Sidelink logical channel prioritization (LCP) can be implemented. (2) implementing UL Data LCP to address the impact of SL-related transmissions; and (3) For scenarios where V2X traffic priority relative to UL traffic changes dynamically , determining the priority of transmission of V2X sidelink communication relative to UL transmission; and In the embodiments described herein, the term "V2 "V2X Service", "V2X Message" or "V2X Application Data Packet" are sometimes used with the same meaning.

[0010] The techniques described herein are applicable to New Radio (NR) networks, which are more diverse and demanding than LTE V2X. Considering the V2X (Vehicle to X) communication requirements, we will solve the sidelink LCP problem. These techniques are based on the traditional system prioritization as opposed to the relative priority between SL and UL transmissions. Such prioritization in the system is dependent on the absolute sidelink LCH configured in the UE. Taking into account the fact that it is based on prioritization, This solves the problem of inter-UE prioritization between sidelink and uplink transmissions.

[0011] The following abbreviations and definitions may be used herein: 3GPP=3 rd Generation Partnership Project to) AS = Access Stratum BSD = Bucket Size Duration BSR = Buffer Status Report BWP = Bandwidth Part CE = Control Element C-RNTI = Cell Radio Network Temporary Identifier Besshi) DPR = Data Volume and Power Headroom Report Team Report) eNB = Evolved Node B eV2X = Enhanced Vehicle-to-X Communication eMBB = enhanced Mobile Broadband E-UTRAN = Evolved UMTS Terrestrial Radio Access Network Radio Access Network) GA = Geographical Area gNB = NR NodeB (NR Node B) HARQ=Hybrid Automatic Repeat Request HSS = Home Subscriber Server ITS = Intelligent Transport System ITS-AID = ITS Application Identifier LCG = Logical Channel Group LCH = Logical Channel LCID = Logical Channel Identity LCP = Logical Channel Prioritization LTE = Long Term Evolution MAC = Medium Access Control MME = Mobility Management Entity mMTC = massive Machine Type Communication MO = Management Object NR=New Radio PBR = Prioritized Bit Rate PDB = Packet Delay Budget PDCP = Packet Data Convergence Protocol Col) PDN = Packet Data Network PDU = Protocol Data Unit P-GW = PDN Gateway PHR = Power Headroom Report PLMN = Public Land Mobile Network PPPP = ProSe Per Packet Priority PPPR = ProSe Per Packet Reliability ProSe = Proximity-Based Services PSID=Provider Service Identifier PUCCH = Physical Uplink Control Channel SC = Sidelink Control SCS = Subcarrier Spacing SCI = Sidelink Control Information S-GW = Serving Gateway SL=sidelink SPS = Semi-Persistent Scheduling SR = Scheduling Request RAN = Radio Access Network RAT = Radio Access Technology RLC = Radio Link Control RNTI = Radio Network Temporary Identifier RRC = Radio Resource Control SL-SCH = Sidelink Shared Channel TTI = Transmission Time Interval UE = User Equipment UL = Uplink UL-CCCH = Uplink Common Control Channel UMTS = Universal Mobile Telecommunications System System) URLLC = Ultra-Reliable and Low Latency Communications USIM = Universal Subscriber Identify Module V2I = Vehicle-to-Infrastructure Communication communication) V2N = Vehicle-to-Network Communication V2P = Vehicle-to-Pedestrian Communication V2V = Vehicle-to-Vehicle Communication V2X = Vehicle-to-X Communication

[0012] NR V2X use cases and requirements are addressed by the techniques described herein. The SA1 is a state-of-the-art design that takes into account new applications desired in the automotive industry. It has clarified numerous use cases for V2X services. These service use cases include vehicle platooning, extended sensors, and advanced These can be categorized into four modern use cases: driving, remote driving, and remote operation.

[0013] Vehicle platooning allows vehicles to dynamically form a convoy that travels together. Each vehicle in the platoon obtains information from the lead vehicle that manages the platoon. This information is coordinated so that each vehicle is traveling in the same direction and together, This may allow vehicles to drive closer together than usual.

[0014] The expanded sensors are used in vehicles, road site units, pedestrian devices, and V2X applications. raw data collected through local sensors or live video images across application servers or transforming the processed data. Vehicles can use their own sensors to Improve your awareness of your surroundings and get a broader picture of the situation beyond what you can do. High data rates allow for an extensive sensor usage scenario. This is one of the characteristics of the Rice Group.

[0015] Advanced driving enables semi-automated or fully automated driving. Each vehicle and / or RSU When a vehicle shares its own perception data acquired from its local sensors with nearby vehicles, This allows the vehicles to synchronize and coordinate their paths or maneuvers. Similarly, each vehicle may share its driving intentions with nearby vehicles.

[0016] Remote driving is not permitted by passengers themselves or the remote vehicle in dangerous situations. For passengers, remote drivers or V2X applications can operate remote vehicles. As in the case of public transport, there are limitations on the form of variation and the route is predictable. Where possible, cloud computing-based operations may be used. Reliable and low latency are key requirements for the Remote Driving use case group.

[0017] Figure 1 shows an overview of 5G eV2X requirements versus LTE V2V R14 requirements. The target data rate for eV2X is, for example, Data rates are about 100 times higher than the 1 to 10 Mbps range, at over 1 Gbps Similarly, the target end-to-end delay 52 for 5G eV2X is, for example, 3 to 5 m, 5 to 20 times lower than the 20 to 100 ms range of Rel-14 V2V The target communication range 53 of 5G eV2X is, for example, LT E Rel-14 V2X's range of 100 to 320m is 2 to 3 times wider, 1000 The target accuracy of 5G eV2X positioning is 54, even if For example, 0.1 to 15m range, 10 times higher than the 5 to 15m range of LTE Rel-14 V2X. Improved accuracy with a range of 0.5m. Similarly, target mobility for 5G eV2X. The relative speed 55 is twice as high as, for example, 280 km / h for LTE Rel-14 V2V. The increased target relative velocity is 550 km / h. Target reliability56 is, for example, 1000% higher than 90% for LTE rel-14 V2V. The reliability requirement is improved to over 99.99%, twice as high.

[0018] Figure 2 shows the non-roaming architecture for PC5 and LTE-Uu based V2X communication. The V2X control function 201 controls network-related operations required for V2X. The V2X control function 201 is a logic function that may be used to The V2X control function 2 may communicate with the V2X application server 202 via the V2X control function 2. 01 is a parameter required for V2X communication (e.g., destination Layer 2 ID, Radio resource parameters, V2X application server 202 address information, service UEs (e.g., UE 205a, UE 205b) using a mapping between V2X frequency and V2X type. 05b, UE205c or UE205d) These parameters may be pre-configured in the UE or may be configured when in coverage. ,V in the Home Public Land Mobile Network (HPLMN) The provisioning is performed by signaling from the 2X control function 201 through the V3 reference point 210. The UE may transmit V2X control information to V2 through the V3 reference point 210. V2X control function 201. application 204a, V2X application 204b, and V2X application 20 4c or V2X application) each UE (e.g., UE 205a, U Each V2X may be associated with a UE (UE205b, UE205c, or UE205d). Applications may communicate over V5 reference points 212. V2X applications The application communicates with the V2X application server 202 via the V1 reference point 219. There are cases where this happens.

[0019] A UE (e.g., UE 205a, UE 205b, UE 205c, or UE 205d) via the LTE-Uu interface 213, the evolved UMTS terrestrial radio access network The E-UTRAN 206 may communicate with the S1 interface. The mobile station 207 accesses the mobility management entity (MME) 207 via an interface 214. The V2X Control Function 201 may communicate with the home subscriber via the V4 reference point 218. The MME 207 may access the S6a reference point 21 V2X Application Server 2 may access the HSS 209 via 5. 02 communicates with the PDN Gateway or Serving Gateway via the SGi reference point 216. When accessing PDN Gateway or Serving Gateway (S / P-GW) 208 be.

[0020] When PC5 211 is used for transmitting V2X messages, Scheduled operation mode (e.g., mode 3) and UE autonomous resource selection mode (e.g., In both modes (e.g. mode 4), the following principle may be used: ProSe per-packet priority (PPPP) is used for V2X communication via PC5 211. It can be applied to faith. The application layer must determine the V2X message before sending it to the lower layer for transmission. PPPP can be set up. Mapping of application layer V2X message priorities to PPPP is done by the UE. It may be configured. The PPPP value setting is based on the delay required by both the UE and the evolved Node B (eNB). For example, a low Packet Delay Budget (PDB) may reflect a high priority It may be mapped to a PPPP value. Mapping between V2X service types and V2X frequencies. Layer 2 ID of the destination and the V2X service, e.g., V2X application (e.g., V 2X application 204a, V2X application 204b, V2X application PSID or ITS-AID of the V2X application 204c or V2X application 204d Mapping with. Mapping PPPP to packet delay budgets.

[0021] When the network scheduled operation mode is used, the following principles apply: There are cases where this happens. The UE can provide PPPP-reflected priority information to the eNB in the resource request. When the eNB receives a request for PC5 resources from the UE, the eNB From the PPPP-reflected priority information, the packet delay budget can be inferred. The eNB uses PPPP-reflected priority information for priority handling, UE-PC5-AM for capping UE PC5 transmissions in resource management BR can be used. The UE can provide the Layer 2 ID of the V2X service destination to the eNB in the resource request. . When the eNB receives a request for PC5 resources from the UE, the eNB The system can determine the V2X frequencies on which service will be scheduled.

[0022] When the autonomous resource selection mode is used, the following additional principles apply. Based on the provisioned mapping information, the UE can A packet delay budget for the message can be derived. The UE determines the V2X service from the mapping between the V2X service type and the V2X frequency. The frequency at which the service will be transmitted can be derived.

[0023] Figure 3 shows the P for V2X communication through PC5 in LTE V2X communication provisioning. The configuration parameters of the LTE V2X MO300 configuration via C5 communication are shown.

[0024] FIG. 4 shows configuration parameters in the form of a geographic area (GA) MO 400 .

[0025] For sidelink HARQ operation, several parallel SL-SCHs are used for transmission. To the Media Access Control (MAC) entity that may continue sidelink processing. There may be one sidelink HARQ entity, e.g., V2X sidelink In the case of sidelink communication, the transmit sidelink processing associated with the sidelink HARQ entity The maximum number of logics may be eight.

[0026] A sidelink process may be configured for the transmission of multiple MAC PDUs. For example, in the case of transmission of multiple MAC PDUs, transmission using a sidelink HARQ entity is The maximum number of sidelink processes provided and configured may be 2. The sidelink grant and its associated HARQ information are associated with the sidelink process. The sidelink processing may be associated with a HARQ buffer. The sidelink processing is the process of processing multiple MAC PDUs for V2X sidelink communication. If configured to perform transmission, the process uses the counter SL_RESOURCE_RESELECTION_COUNT For other configurations of sidelink processing, this counter may be used Sometimes it's not possible.

[0027] V2X sidelink communication transmissions have priority over UL transmissions if the following conditions are met: This may be the case. The MAC entity performs UL transmission and V2X sidelink transmission simultaneously. If you cannot. · UL transmission is not prioritized by higher layers. The highest priority value of a sidelink logical channel in a MAC PDU is thresSL-TxPr If it is less than ioritization.

[0028] A UE may establish multiple logical channels. The Physical Channel Identification (LCID) identifies one source Layer 2 ID and one destination Layer 2 ID. The logical channel can be identified within the range of combinations of D. The access stratum (AS) may be configured by the upper layer to provide a PC5 interface. Each logical channel may be provided with a PPPP for PDUs sent through the interface. There may be a PPPP associated with the PDU. The PDB of the PDU is determined from the PPPP. A low PDB may be mapped to a high priority PPPP value.

[0029] When a new transmission is made, the Sidelink LCP procedures may apply. Each sidelink logical channel has an associated priority which may include PPPP. Multiple sidelink logical channels may have the same associated priority. The mapping between priority and LCID may be left to the UE implementation.

[0030] The MAC entity shall transmit the sidelink communication during the Sidelink Control (SC) period. For each Sidelink Control Information (SCI) that is sent or for each new For each SCI corresponding to a transmission, the following LCP procedures may be performed:

[0031] The MAC entity allocates resources to sidelink logical channels in the following steps: There may be cases where this is assigned.

[0032] This SC period in order to have data available for transmission in the sidelink communication, and Sidelinks that are not pre-selected during SC periods (if any) that overlap with this SC period Consider logical channels.

[0033] Among the sidelink logical channels that have data available for transmission, the highest priority Select a ProSe destination with a sidelink logical channel.

[0034] For each MAC PDU associated with an SCI, the following steps may be performed: Sidelink logic that belongs to the selected ProSe destination and has data available for transmission Among the channels, resources are allocated to the sidelink logical channel with the highest priority. If resources remain, data or SL grants for sidelink logical channels The sidelink logical channel belonging to the selected ProSe destination is used up until either of them is exhausted first. Channels may be run in descending order of priority. Side links configured with equal priority Link logical channels may function equally well.

[0035] During the above scheduling procedure, the UE may follow the following rules: If all SDUs (or partially transmitted SDUs) fit into the remaining resources The UE then sends the radio link control (RLC) SDU (or a partially transmitted SDU) to the Do not segment. When the UE segments an RLC SDU from a sidelink logical channel, You may want to maximize the size of the segments to fit as many entries as possible. · Maximize data transmission. 10 bytes or more (for sidelink communication), or 11 bytes or more (for V2X sidelink communication) The MAC entity provides the sidelink grant size for the At the same time, if the MAC entity has data available for transmission, it You can't just send

[0036] The above sidelink LCP procedure involves avoiding starvation of lower priority channels. To avoid this, logical channel priority bit rates, etc., are used for Uu interface logical channels. There is no provision similar to that used for prioritization procedures. Sidelink logical channel procedures may include delay constraints, numerology constraints, or Constraints such as allowed serving cell constraints (e.g., when packet duplication is supported) To meet the requirements imposed by the NR LCP procedure, Constraints on the logical channels that can be served by a given resource grant. There is no specific provision for

[0037] In LTE or NR, information about the UL data volume of the MAC entity is , buffer over the Uu interface to provide to the serving eNB or gNB The Fast Status Report (BSR) procedure may be used. Also, the sidelinks available for transmission in the SL buffer associated with the MAC entity The sidelink buffer is used to provide the serving eNB with information about the amount of data Radio Resource Control (RRC) may use the QoS status reporting procedure. ) is achieved by configuring two timers: periodic-BSR-TimerSL and retx-BSR-TimerSL. The BSR reporting for the sidelink may be controlled by the Each sidelink logical channel may belong to a ProSe destination. Link logical channel prioritization, and LCG ID and priority provided by higher layers Depending on the mapping between the priority and the logical channel group (LCG), LCG may be defined for each ProSe destination. Similar to the sidelink BSR, the sidelink BSR can be a regular BSR, a periodic BSR, or a padding BSR. It may be a BSR.

[0038] By the time the first sidelink BSR is sent, multiple events may cause the sidelink Even if a sidelink BSR is triggered, the MAC PDU is sent to at most one sidelink BSR. It may contain a MAC Control element, in which case it will include a regular sidelink BSR and a peripheral The primary sidelink BSR may have a higher priority than the padding sidelink BSR. There is a match.

[0039] If the MAC entity receives an SL grant, it restarts retx-BSR-TimerSL. There is.

[0040] The remaining configured SL grants are used to transmit all available packets in the V2X sidelink communication. In cases where the binding data can be effectively applied, all triggered rules The sidelink BSR may be cancelled. The case where there is no data available for transmission on any of the link logical channels. In this case, a triggered sidelink BSR may be cancelled. When a BSR (except for the shortened sidelink BSR) is included in a MAC PDU for transmission A triggered sidelink BSR may be cancelled. Configuring source selection cancels all triggered sidelink BSRs and The retx-BSR-TimerSL and periodic-BSR-TimerSL may be stopped.

[0041] A MAC entity may transmit at most one regular / periodic sideband packet in a Transmission Time Interval (TTI). A MAC entity may transmit a link BSR. When a DU needs to be transmitted, the MAC entity Any MAC PDU that does not contain a link BSR may contain a padding side link BSR. This may occur.

[0042] All sidelink BSRs sent in a TTI are sent only if a MAC PDU is constructed during the TTI. Each LCG may have at most one buffer per TTI. A buffer status value may be reported, and this value reports the buffer status of this LCG. It may be reported on all sidelink BSRs that are available.

[0043] Padding Sidelink BSR triggered by regular / periodic Sidelink BSR In some cases, it may not be possible to cancel the SR. Padding sidelink BSRs are The trigger may be triggered for a specific MAC PDU, and the trigger occurs when the MAC PDU Once constructed, it may be cancelled.

[0044] Figure 5 shows the sidelink BSR and shortened sidelink BSR MAC for an even N. 5 is a diagram of a control element 500. The example in FIG. 5 includes a destination index field 501, a report One LCG ID field 502 and one target group for each target group advertised. a BSR MAC Control Element (CE) containing a corresponding buffer size field 503; Sidelink BSR and shortened Sidelink BSR MAC CE are shown. The field 501 allows identifying the destination of the V2X sidelink communication. The length of this field may be, for example, 4 bits. The value is The index of the destination reported to the eNB as part of the V2X destination list in the information message. The LCG ID field 502 may be set to This field can identify the group of logical channels for which the The length of the field may be, for example, 2 bits. After all MAC PDUs are constructed during the TTI, all LCGs of the ProSe destination are The total amount of data available across the logical channels can be identified. The amount of data is sometimes expressed in bytes. It may contain all available data. The LCG buffer size is the destination index file. The highest priority sidelink logical channel belonging to the LCG is used regardless of the value of field 501. May be included in descending order from the top.

[0045] Figure 6 shows the sidelink BSR and shortened sidelink BSR MAC for odd N. 6 is a diagram of a control element 600. The example in FIG. 6 includes a destination index field 601, a report One LCG ID field 602 and one target group for each target group advertised. BS, including the corresponding buffer size field 603, and reserved bits 604. R MAC Control Element (CE) Sidelink BSR and Shortened Sidelink BSR Indicates MAC CE.

[0046] LTE V2X sidelink communication scheduling request is sent to the LTE Uu scheduler. It may rely on a scheduling request mechanism, which also It also serves as a benchmark for the mechanism of action.

[0047] In NR, a MAC entity may send zero, one, or multiple scheduling requests (SRs). ) configuration. The SR configuration may consist of different Bandwidth Parts (BWP) and Cell For logical channels, it may contain a set of PUCCH resources for SRs spanning In addition, a maximum of one PUCCH resource in the SR is configured per BWP.

[0048] Each SR configuration may correspond to one or more logical channels. Each logical channel may be mapped to 0 or 1 SR configuration, which is configured by RRC. The SR configuration of the LCH that triggered the BSR, if such a configuration exists, is The SR configuration may be considered to correspond to the SR configuration of the SR.

[0049] In the case of a BSR triggered by the expiration of the BSR retransmission timer, The corresponding SR configuration is the highest available data for transmission at the time the BSR is triggered. The SR configuration of the priority LCH (if such a configuration exists).

[0050] RRC may configure the following parameters for the scheduling request procedure: There is a match. ·sr-ProhibitTimer (per SR configuration). ·sr-TransMax (per SR configuration). ·sr-ConfigIndex.

[0051] The following UE variables may be used for the scheduling request procedure: . ·SR_COUNTER (per SR configuration).

[0052] When an SR is triggered and there are no other pending SRs corresponding to the same SR configuration ,The MAC entity may set the SR_COUNTER of the corresponding SR configuration to 0.

[0053] Once triggered, an SR may be considered pending until it is canceled. be.

[0054] When a MAC PDU is transmitted, all triggered MAC PDUs are reassembled. Pending SRs are either cancelled or the respective sr-ProhibitTimer is stopped. This PDU may contain a BSR MAC Control Element (CE). This BSR MAC Control Element (CE) is responsible for the MAC PDU assembly. Contains the buffer state up to (and including) the most recent event that triggered the BSR. The UL grant can accommodate all pending data available for transmission. In this case, all pending SRs may be cancelled.

[0055] Only PUCCH resources on the BWP that are active at the time of the SR transmission opportunity are valid. It may be thought that...

[0056] In Rel-15, sidelink packet duplication is supported for V2X sidelink communication. The sidelink packet for transmission may be transmitted and implemented in the PDCP layer of the UE. Regarding packet duplication, PDCP PDUs may be duplicated in a PDCP entity. Duplicate PDCP PDUs of the same PDCP entity are sent to two different RLC entities. are sent to the same entity and are associated with two different sidelink logical channels respectively. Duplicate PDCP PDUs of the same PDCP entity may be It may be transmitted on a sidelink carrier. Autonomous resource selection (in its RRC state) The UE will autonomously perform sidelink packet replication based on (pre)configuration. Scheduled Resource Allocation In the case of (Mode 3), the eNB sends ProSe packets for V2X transmissions requested by the UE. The UE is notified of the packet reliability (PPPR) information that it has in its buffer. The amount of data associated with the PPPR value(s) being used and the amount of data that the UE buffers The destination of the V2X message associated with one (or more) PPPR values in May include.

[0057] The primary use cases supported by Release 14 LTE V2V are 1 to 10M It includes basic security at relatively low data rates in the order of bps, where position, velocity, Vehicle state information, such as direction of travel, is sent to nearby vehicles, infrastructure nodes, As V2X applications advance, the status of the vehicle itself will be monitored. The sending of short messages about vehicle state data is done through raw sensor data, vehicle intent data, and This will be complemented by the transmission of larger messages containing data, future maneuvers, and confirmations. For these modern applications, the required data rates The expected requirements to meet are speed, reliability, latency, range, and speed as shown in Figure 1. The throughput of modern V2X applications can be 100x higher throughput than LTE V2X basic safety applications For example, it is expected that the UE will share the V2X applications it supports. Raw sensor data can require data rates as high as 1 Gbps. The NR LCP procedure for sidelink communication is the same as the LTE sidelink LCP procedure. or the newly defined NR Uu interface LCP procedure. Each of these has its own limitations on the NR sidelink requirements.

[0058] The current LTE V2X LCP procedure for sidelink data transmission has several limitations. At least the following restrictions apply:

[0059] (1) Primarily supports low data rate transmissions without inherent logical channel starvation avoidance mechanisms. For example, the current LTE sidelink LCP procedure is designed to work for applications with high data rate requirements. To avoid starvation of low priority logical channels by high priority logical channels, For example, it does not support specific mechanisms such as prioritized bitrate.

[0060] (2) Supports the following constraint mapping configuration for each sidelink logical channel: It is not designed to

[0061] (2a) Subcarrier spacing (SCS) transmission constraint.

[0062] (2b) Tolerable delay constraints, e.g., NR side similar to NR Uu interface A link may be characterized by variable transmission opportunity timing or variable transmission duration. As a result, sidelink logical channels are allocated to the same logical channel due to the logical channel delay tolerance requirements. may be restricted to using certain resource grants.

[0063] (2c) Other restrictions, such as data duplication restrictions and RAT / 3GPP release coexistence restrictions. Potential constraints, such as carrier frequency constraints, RAT constraints or 3GPP release constraints Taking into account the need for a coordinated design, e.g., to support different RATs or 3GPP releases. Considering the coexistence of multiple V2X devices with wireless capabilities, some of these limitations , which may be seen in LCP procedures.

[0064] (3) The criteria for selecting a sending destination (e.g., ProSe destination) during the LCP procedure are ,The priority of the logical channels towards the destination, especially the logical channel with the highest priority (e.g. Furthermore, at a given transmission opportunity, once selected, other destinations are considered. All logical channels of a selected destination must be functional before a further logical channel can be selected. In LTE V2X, the UE is configured with a mapping between PPPP and PDB. This mapping is left for implementations to choose from, but is not specified. One problem with this destination selection approach is that it is difficult to provide services beyond basic safety services. In the case of NR V2X with a diverse set of destinations, some destinations may have higher priority. Data on the highest priority logical channel is served by the selected destination's lower priority channel. In the meantime, their transmission delay requirements may not be met and may even be discarded. Another problem with current LTE V2X transmission destination selection approaches is that they do not allow for logic other than the tolerable delay constraint. Ability to efficiently allocate resource grants while taking into account channel mapping constraints Current destination selection approaches must select at least the highest priority logical The channel has an available grant or its transmission time falls within the next available grant. Runts also prevent the function from functioning, and the tolerable delay requirements cannot be met, and the data transmission destinations with unnecessary risk of being lost and radio resource grants being wasted It may be a choice.

[0065] The NR Uu LCP procedure specifies priority data rates, SCS constraints, and allowable delay constraints. High data rate with specific mechanisms to support any logical channel mapping constraints It is designed to support the NR Uu interface requirements. Although designed for text, it does not have the ability to select destinations or other potential arguments. Supports physical channel mapping constraints (e.g., service to frequency mapping constraints) Not yet.

[0066] In view of the above discussion, the existing LTE sidelink LCP procedure and the NR Uu A new NR sidelink LCP procedure based on the LCP procedure is required. Also, the grant type (e.g., mode 3 or mode 4 grant type) is The possible impact on CP procedures also needs to be investigated.

[0067] In Rel-15 LTE, during the LCP procedure, the MAC entity: may take into account the relative priorities of the ·MAC CE for C-RNTI or data from UL-CCCH. · MAC CE for Data Volume · Power Headroom Reporting (DPR). ·MAC CE for SPS verification. ·MAC CE for BSR, excluding BSR included in padding. ·MAC CE for PHR, Enhanced PHR, or Dual Connectivity PHR. MAC for Sidelink BSR, excluding Sidelink BSR included in padding CE. ·Data from any logical channel except data from UL-CCCH. ·MAC CE for recommended bitrate query. · MAC CE for BSR included in padding. MAC CE for Sidelink BSR included in padding.

[0068] In Rel-15 NR, logical channels are ordered in the following order (first in the list has highest priority): Priorities may be assigned according to the following criteria: ·C-RNTI MAC Data from CE or UL-CCCH. · Configured Grant Verification MAC CE. ·MAC CE for BSR, excluding BSR included in padding. Single-entity PHR MAC CE or multi-entity PHR MAC CE. ·Data from any logical channel except data from UL-CCCH. · MAC CE for BSR included in padding.

[0069] In this description, we will be referring to non-padding BSRs, BSRs, and In this description, we will also exclude the BSR included in the padding. Non-padding sidelink BSR, MAC CE for sidelink BSR In Rel-15 LTE, non-padding BSR is used for non-padding sidelinks. This non-padding sidelink BSR takes precedence over the UL-CCCH BSR. It has priority over data from any logical channel except for Rel- In 15 NR, the non-padding BSR is used for all data except data from the UL-CCCH. This takes priority over data from the physical channel.

[0070] The above prioritization rules determine the relative priority between sidelink and uplink transmissions. For example, the UL data that triggers the BSR does not take into account the sidelink BSR. The BSR will not send sidelink data even if it has a lower priority than the sidelink data that triggers the Always takes priority over Drink BSR.

[0071] As mentioned above, the term "BSR" refers to the UL buffer associated with the MAC entity. The serving eNB (in the case of LTE) provides information about the amount of data available for transmission within the or gNB (in the case of NR), On the other hand, the "Sidelink BSR" is a sidelink BSR associated with a MAC entity. The serving eN then transmits information about the amount of sidelink data available for transmission in the buffer. It may refer to the procedure used to provide B.

[0072] Rules for prioritizing sidelink vs. UL data transmissions are also needed. In the current LTE V2X (e.g., TS 36.321), if the following conditions are met, the V2X cycle is Drink communication transmissions are prioritized over uplink transmissions. (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. When it is not possible to simultaneously send and receive messages. (2) When uplink transmission is not prioritized by higher layers. (3) The highest priority value of the sidelink logical channel in the MAC PDU is If the link transmit prioritization threshold (thresSL-TxPrioritization) is configured, this value If it is less than.

[0073] In the LTE V2X standard, if the following conditions are met in accordance with the above conditions, Sidelink transmissions have priority over sidelink transmissions. (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. When it is not possible to simultaneously send and receive messages. (2) When uplink transmission is not prioritized by higher layers, e.g., when the UE is not receiving an urgent When PDN connection is established, the UE transmits V2X communication through PC5 to the lower layers. may send an indication to prioritize transmission over the urgent PDN connection. (e.g. TS 24.386). (3) The highest priority value of the sidelink logical channel in the MAC PDU is If the link transmit prioritization threshold (thresSL-TxPrioritization) is configured, this value is greater than or equal to.

[0074] As mentioned above, the NR system will provide enhanced mobile services over the Uu interface. In addition to enhanced Mobile Broadband (eMBB) and massive Machine Type Telecommunications (mMTC) In addition, it supports a diverse set of services, including Ultra-Reliable Low-Latency Services (URLLC). Basic safety services, as well as vehicle platooning, extended sensors, advanced driving, The latest technology is expected to support various degrees of URLLC services, such as remote driving. V2X is a technology that provides information and entertainment over sidelinks, including sidelinks by relay UE nodes. entertainment services and other time-sensitive critical services. Furthermore, sidelink or uplink transmissions are also expected to be It may be based on free resource allocation, where the UE autonomously chooses the resources for transmission. In light of these NR requirements and these latest V2X requirements, in addition to emergency calls, Some uplink transmissions are more critical and time-sensitive than some V2X communications. While other V2X transmissions are critical and uplink transmissions For example, in the case of relay UE nodes, some non- Emergency uplink transmissions are more critical and time-sensitive than sidelink transmissions. Therefore, the absolute priority configured for sidelink transmissions LTE V2X with sidelink transmissions prioritized over uplink transmissions based on a ranking threshold The prioritization approach may not be suitable regardless of the priority of the uplink transmission. Therefore, new prioritization rules are introduced between sidelink and uplink transmissions. It is needed.

[0075] In conventional systems, sidelink transmission opportunities are periodic with fixed transmission time intervals and fixed NR sidelink transmissions follow a fixed transmission duration. NR sidelink transmissions do not have a predetermined periodicity of transmission opportunities. In the case of an NR RAT design with variable transmission time intervals and variable transmission time lengths, As a result, multiple overlapping sidelink grants (e.g., sidelink transmissions) may occur. Similarly, multiple uplink grants may coexist within a UE. grants for uplink transmissions also coexist within the UE. The rules for prioritizing sidelink transmissions relative to link transmissions need to be expanded. do.

[0076] Figure 7 is a diagram 700 showing a completely overlapping grant. UL grant 701 in slot 02, and sidelink grant 703 in slot 3 704 FIG. 7 also shows that the UL Tx grant 705 in slot 5 706 is This shows that the grant overlaps completely with the sidelink Tx707 grant of 08. 709 is the time length of slot 9 708. UL Tx grant 705 and side The first allowable transmission start point of link Tx 707 is the same, but the two grants are at different times. 1, has slot 5 706 and slot 9 708.

[0077] FIG. 8 is a diagram 800 illustrating a completely overlapping grant. UL grant 801 in slot 02, and sidelink grant 803 in slot 4 804. FIG. 8 also shows that the UL Tx grant 805 in slot 5 806 is This indicates that the 808 sidelink Tx807 grant is completely overlapped with the 808 sidelink Tx807 grant. Interval 809 is the time length of slot 10 808. UL Tx grant 805 and The last allowed transmission end point of Idlink Tx807 is the same, but the two grants are different. It has a time length.

[0078] FIG. 9 is a diagram 900 illustrating grants of different durations and overlapping portions. FIG. 9 shows a UL grant 901 in slot 1 902 and a SU grant 903 in slot 3 904. 9 shows the UL Tx grant in slot 5 906. Grant 905 overlaps with Sidelink Tx907 grant in slot 9 908. The overlap interval 909 is a portion of the time length of slot 9 908. The first allowed transmission start point for L Tx grant 905 and sidelink Tx 907 is different. .

[0079] FIG. 10 is a diagram 1000 illustrating grants of different time lengths and partially overlapping. FIG. 10 shows the UL grant 1001 in slot 1 1002 and the UL grant 1002 in slot 3 10 shows a sidelink grant 1003 in slot 5 1006. UL Tx Grant 1005 in slot 9 1008 is connected to Sidelink Tx Grant 1007 in slot 9 1008. The overlap time interval 1009 is shown as slot 9 10 Part of the time length of 08. UL Tx Grant 1005 and Sidelink Tx 100 The last allowable transmission end point of 7 is different.

[0080] FIG. 11 is a diagram 1100 illustrating grants of different durations and completely overlapping. Figure 11 shows the UL grant 1101 in slot 1 1102 and the UL grant 1102 in slots 7 and 11 shows sidelink grants 1103 for slots 5 and 8 1104. FIG. 11 also shows sidelink grants 1103 for slots 5 and 8 1104. UL Tx grant 1105 in 106 is connected to side link 1108 in slots 18 and 19. The overlap time interval 1109 indicates that the TX 1107 grant is completely overlapped with the TX 1108 grant. The duration of slots 18 and 19 1108. In this example, the first The allowable transmission start point and the last allowable transmission end point are different.

[0081] The methods and apparatus described herein provide a solution to the above limitations. One solution described in the specification involves an enhanced V2X MO, which is a V2X configuration in the UE. It can be used for provisioning of configuration parameters.

[0082] Another solution described herein includes a method for implementing a sidelink LCP. configures the MAC with appropriate V2X configuration parameters, e.g., LCP control parameters The method also includes: This includes performing channel selection, which includes the selection of an allowed V2X serving cell, an allowed SCS Allowable delay, Allowable SL-SCH time length, Allowable SL-SCH K2 time length, Allowable RAT / Set of RAT versions, set of allowed BWPs, set of allowed sending profiles, The method may also be based on a selection of nodes having data available for transmission. and selecting a ProSe destination from among the selected SL LCHs. When a new SL transmission is performed, resource allocation for the SL LCH is performed. include.

[0083] Another solution described herein is to implement a UL LCP that addresses the impact of SL-related transmissions. The method includes a method for implementing a V2X SL BSR over a UL BSR. The method also includes determining when to precede the V2X SL transmission over the UL transmission. This includes determining when to prioritize.

[0084] Another solution described herein is to prioritize V2X traffic over uplink traffic. V2X size for uplink transmission in a scenario where the size of the V2X signal varies dynamically with respect to the traffic. The method also includes determining a priority for transmission of a drink communication. To prioritize V2X sidelink transmissions, sidelink PPPR or The method also includes using uplink PPPR when grants overlap. The method includes determining the priority of V2X sidelink transmissions relative to V2X sidelink transmissions.

[0085] Another solution described herein is to provide a method for determining transmission parameters associated with a radio resource grant. A method for determining the meter is included.

[0086] In support of the NR V2X solution described herein, the NR V2X MO is configured In addition to the configuration parameters, the following V2X configuration parameters are included in the LTE V2X MO: There is. Prioritized Bit Rate (PBR) for each allowed V2X service. · Bucket size length (BSD) per allowed V2X service. A list of allowed SCSs for each permitted V2X service. List of allowed V2X BWPs for each allowed V2X service. List of allowed RATs for each permitted V2X service. A list of allowed RAT versions for each permitted V2X service. A list of allowed transmission profiles for each allowed V2X service. A list of allowed carrier frequencies for each permitted V2X service. List of PPPP per allowed carrier frequency per permitted V2X service. A list of PPPR values or PPPR ranges and the corresponding number of data paths to be replicated PPPR mapping rules to packet duplication, including, for example, PPPR values or PPPR For each range, the number of parallel paths for data replication may be configured. For example, the number of paths may be 2, 3, or 4. , or even more.

[0087] NR V2X MO is based on the transmission mode (unicast, groupcast or broadcast). cast) and V2X services, e.g., PSID or ITS for V2X applications. -AID and mapping may be included. For example, the transmission mode may be For V2X services for which no transmission mode mapping is configured, a default One or more default transmission modes may be configured for V2X Mapping of transmission modes to V2X services may be configured per service. This is achieved by using a structure within the NR V2X MO that clearly associates X services with transmission modes. Alternatively, the association may be implicit and may be achieved by broadcast transmission. Layer 2 of V2X services and destinations for ,groupcast transmission, and unicast transmission The mapping to the ID is done using a separate or dedicated Information Element (IE ) or data structure. Mapping of transmission modes to V2X services defines the mapping between transmission modes and service data flows or packet filter sets. For example, the mapping between transmission modes and V2X services may include: Several mappings including transmission modes and service data flows or packet filter sets In an alternative embodiment, a mapping between transmission modes and V2X services may be implemented. For each V2X service, the mapping between the V2X service and multiple transmission modes is performed. For example, the association between the V2X service and the transmission mode may include, for each service, For example, a PSID or ITS-AID may be associated with multiple transmission modes. This is done at a service level.

[0088] NR V2X MO uses PC5 QoS Identifier (PQI) and V For example, the PQI may include a mapping to a permitted V2X service. It may be configured per V2X service. One or more default PQIs may be configured for use by the V2X service. A PQI may contain multiple service data flows or packet filter sets. The mapping between PQI and V2X service is performed by using PQI and service data flow or packet flow. For example, a mapping between PQI and V2X services. The mapping is based on the PQI and service data flow or packet filter set. In an alternative embodiment, the PQI and V2X service Mapping between V2X service and multiple PQIs is performed for each V2X service. For example, the association between the V2X service and the PQI may be If a service (e.g., PSID or ITS-AID) is associated with multiple transmission modes, It is generated at a service level where there is a possibility of

[0089] The NR V2X MO determines the transmission range and the V2X service (e.g. PSID or ITS-AID), e.g., groupcast or unicast The transmission range may be configured for each V2X service. For V2X services for which no range mapping is configured, a default transmission range is configured. The default transmission range may be, for example, In this case, it may be configured for each V2X service. Mapping of transmission ranges to V2X services contains a mapping between transmission ranges and service data flows or packet filter sets. For example, the mapping between transmission ranges and V2X services may be Several mappings including ranges and service data flows or packet filter sets In an alternative embodiment, the mapping between transmission ranges and V2X services may include V Each V2X service may contain a mapping between the V2X service and multiple transmission ranges. For example, the association between V2X services and transmission ranges is determined by the respective services (e.g., PS A service where a single ITS-ID (or ITS-AID) may be associated with multiple transmission ranges. Mapping of transmission ranges to V2X services and transmission modes and V2X services are jointly generated using the same IE or data structure. It is okay to do so.

[0090] NR V2X MO also considers each QoS rule as a QFI for the associated QoS flow, Contains a list of allowed PC5 QoS rules, including the default filter set and priority value. That's fine too.

[0091] NR V2X MO also includes mapping between QFI (QoS flow identifier) and PQI, Mapping between PQI and logical channel, mapping between QFI and sidelink bearer, Q OS characteristics, e.g., mapping PQI to QoS profile or resource allocation Mapping between resource allocation modes and logical channels, or resource allocation modes and QoS flows As used herein, the term "QFI" may also refer to a mapping between PC5 and It is sometimes called a QoS Flow Identifier (PC5 QoS Flow Identifier: PFI) .

[0092] Figure 12 shows NR basic V2X MO1200 over PC5 communication.

[0093] Figure 13 shows an enhanced V2X MO1300 for NR over PC5 communication.

[0094] FIG. 14 illustrates a transmission of V2X configuration parameters by a V2X control function to a UE, according to one embodiment. 14 shows a procedure 1400 for NR V2X provisioning, which is described herein. In step 1410, the UE- The V2X function 1402 uses each of the above V2X configuration parameters to configure the V2X control function. Pre-configured or configured by 1404 through the V3 or NR interface In step 1411, the UE RRC 1401 May notify V2X function 1402 of in-coverage and out-of-coverage events For example, if the UE returns to coverage after being out of coverage, the UE RRC14 01 detects an in-coverage event and sends a notification to the UE-V2X function 1402. In this case, the latter may be the UE-V2X provisioning configuration parameter validity type. The validity timer may be checked (step 1412), and if the validity timer expires, V A configuration parameter request to the 2X control function 1404 may be triggered (step 1413) Similarly, if the UE goes out of coverage, e.g., while the UE is out of coverage, If the configuration parameter validity timer expires, the UE-V2X function 1402 You may need to be aware of this to avoid unnecessarily triggering configuration requests to the network. In step 1414, the V2X control function 1404 V2X configuration parameters are programmed to the UE-V2X function 1402 through the NR interface. In step 1415, the UE RRC 1401 and the UE-V 2 function 1402 stores new V2X configuration parameters or updates stored V2X configuration parameters. In step 1416, the UE is in coverage and may update the 2X configuration parameters. , and the UE-V2X function 1402 is configured to In step 1417, the gNB 1403 may check the timer. A system information broadcast of V2 configuration parameters may be sent.

[0095] FIG. 15 illustrates an NR V2X sidelink LC signaling scheme described herein, in accordance with another embodiment. 15 shows a P procedure 1500, which can be combined with all of the embodiments described herein. In step 1510, the control parameters for the NR sidelink LCP are In step 1511, a logical channel is selected in the grant allocation. In step 1512, a V2X transmission destination may be selected. In step 1513, , resources may be allocated to selected logical channels.

[0096] Every time a new transmission is performed, NR V2X Sidelink LCP procedure 15 00 may be applied to each sidelink logical channel in the MAC entity. It may be configured by parameters.

[0097] (1) Sidelink logical channel priority, e.g., the priority of the sidelink logical channel associated with the sidelink logical channel. A higher priority value means a lower priority level. Channel priority along with data mapped to logical channels is used by V2X applications. The priority may be determined based on the PQI indicated by the logical channel. Further details on mapping V2X data to logical channels and the corresponding logical channel prioritization are provided. The definition will be described later.

[0098] (2) A sidelink logical channel is activated before a low-priority sidelink logical channel is activated. On the sidelink, you configure PBR, which may include the data rate at which it must function. Priority bitrate.

[0099] (3) Sidelining, which may include a period of time that fills the bucket size at the PBR rate. Side link bucket size length for setting BSD for the side link. PBR and BSD are Defines the size of the prioritized bucket for the sidelink logical channel. Sidelink logical channels have data in the block and can function. As long as there is a link grant, the sidelink logical channel can continue to operate over a lower priority sidelink channel. may be given priority in sidelink resource grant allocation over the sidelink logical channel. .

[0100] (4) Maximum data burst volume.

[0101] (5) In the embodiments of the present specification, the priority associated with the sidelink logical channel j Bj may refer to the amount of data in the destination bucket. A variable Bj may be maintained for each link logical channel j.

[0102] Additionally, a mapping for uplink resource grant to logical channel mapping is provided. Uplink restrictions for a logical channel may be configured. The mapping constraints for a link resource grant can be one or more of the following: good.

[0103] A set of allowed V2X serving cells that configures the allowed cells for transmission. For example, the carrier frequency of the serving cell is V that is mapped to a logical channel. 2X service-specific configuration, and the serving cell meets the data replication requirements. For example, logical chains carrying replicated data The channels may be mapped to different serving cells.

[0104] A list of allowable carrier frequencies.

[0105] A set of allowed V2X SCSs that configure the allowed subcarrier spacing for transmission.

[0106] A set of allowed V2X BWPs that configure the allowed bandwidth parts for transmission.

[0107] Maximum allowed SL-SCH duration sets the maximum allowed SL-SCH duration for transmission .

[0108] The maximum time from when data becomes available for sidelink transmission to when data transmission ends. Tolerance delay, which sets the maximum tolerable delay.

[0109] The time from when the SL-SCH grant becomes available for sidelink transmission to the SL-SCH date The allowed SL-SCH K2 duration sets the maximum allowed delay before data transmission begins.

[0110] Allowed RATs to set the allowed RATs for sending.

[0111] Allowed RAT Versions sets the allowed RAT versions for sending.

[0112] Set the allowed sending profile for sending. The content may include radio parameters for V2X transmissions, and may also include RAT-specific and and RAT version specific radio parameter configuration. An example of this content is the Rel-14 SL-V2X pre-configuration information element specified in TS 36.331. , and V2X MO through PC5 communication shown in Figure 3, e.g., radio parameters The sending profile may be captured as a data container. The transmission profile may include performance configuration parameters, such as a PPPR target value. S value, BWP, maximum allowable delay, maximum allowable SL-SCH time length, and allowable V2X transmission frequency It may also include NR-specific V2X transmission parameters such as the number of

[0113] For example, the allowed transmission modes such as unicast, groupcast or broadcast. Do.

[0114] For example, scheduled grants, configured grants, or autonomous resources The allowed resource allocation mode, e.g., mode 1 or mode 2, such as grant.

[0115] Acceptable transmission range.

[0116] The UE may determine control parameters for the sidelink LCP. The number of logical channels to be used and the identification information of each logical channel may be determined. Similarly, the UE may determine the number of LCGs to configure and the identification information of the LCGs. For example, V2X control functions (as defined in the NR V2X MO described herein) Uses V2X information that is pre-configured in the UE or provisioned to the UE The number of logical channels to be configured, the identification information of each logical channel, the number of LCGs to be configured, The identification information of the LCG may be determined autonomously.

[0117] The UE may use one or more of the following information, which is referred to herein as: These are referred to as "logical channel derivation parameters." One or more services in the list of allowed V2X services. A PPPP list provisioned to the UE (e.g., the NR One or more priority lists in the PPPP mapping list to PDB in the V2X MO Place value. One of the PPPP to PDB mappings in the PPPP to PDB mapping list or is plural. - one or more of the permitted carrier frequencies in the list for authorized V2X services One or more frequencies. A list of allowed transmission profiles for one or more authorized V2X services One or more sending profiles from: One or more from a list of allowed SCSs for authorized V2X services Or multiple SCSs. One or more from a list of allowed RATs for authorized V2X services Or multiple RATs. A list of allowed RAT versions for one or more authorized V2X services One or more RAT versions of these. One or more from a list of permitted BWPs for authorized V2X services Or multiple BWPs.

[0118] UEs may have the same destination identity but different V2X frequency sets, different servers, etc. for V2X messages associated with a BWP cell set or a different BWP set , LCH or LCG to ensure that different LCHs or LCGs are configured. Similarly, the UE may be configured to, for example, select different allowed serving cells or allowed carriers. Ensure that the replicated data is mapped to different LCHs that are sequentially configured in the frequency domain. Similarly, the UE may be configured for, for example, replicated data. The LCG is configured to ensure that the logical channels created are mapped to different LCGs. Alternatively, the UE may have one logical channel configured for, for example, replicated data. The LCG may be configured to ensure that only channels are mapped to it. In yet another alternative, the UE may be configured such that the LCH configured for data replication always uses the same LCG The LCG or the mapping of LCHs to LCGs may be configured to be mapped to .

[0119] Based on the V2X parameters pre-configured or provisioned in the UE, the UE Instead of the UE automatically configuring the LCH / LCG parameters, the UE CH identification information and one or more LCG identification information, and, for example, the LCG Mapping of LCH to LCG according to the LCH mapping option. C signaling (e.g., system information broadcast signaling) or dedicated RR configured by the gNB through RRC signaling (e.g., RRC reconfiguration messages) The UE may assist the gNB in configuring the UE with LCH and LCG information. To achieve this, LTE-like UE assistance information messages or LTE-like V2X UE information messages are used. In the message, one or more of the above logical channel derivation parameters are signaled to the gNB. You can also ring it.

[0120] The UE may map V2X services to logical channels. The mapping is one-to-one. mapping, multiple services mapped to one logical channel, or multiple There may be one service that is mapped to a logical channel. The UE may When determining the mapping of V2X services or V2X messages, the logical channels mentioned above are used. Alternatively, the UE may use one or more of the common RR derivation parameters. C signaling (e.g., system information broadcast signaling) or dedicated RR C signaling (e.g., RRC reconfiguration messages), V2X services to logical channels The UE may be configured by the gNB through the mapping of V2X services and logical To assist the gNB in configuring the UE with the mapping between the LT E-like UE assistance information message or LTE-like V2X UE information message, One or more of the above logical channel derivation parameters may be signalled to the gNB. The base station or scheduling entity must The UE may be configured with a priority or with an LCH and associated priority. Additionally, the base station can map V2X services to LCHs or QoS flows. Mapping of services to bearers and QoS flows to LCs The UE may be configured with a mapping of bearers to H.

[0121] Sidelink logical channel priorities may be assigned. PPP associated with the service or application data packets mapped to From the P value, a priority value may be assigned to each logical channel. Channel priority is the priority of the service or application data mapped to the logical channel. The highest priority PPPP (lowest PPPP) associated with the packet PP value) associated with each service or application data packet. The assigned PPPP value may be specified in the NR V2X MO described herein. Alternatively, the UE may use the priority values of one or more logical channels to send common RRC signaling. nulling (e.g., system information broadcast signaling, or group of UEs) multicast information signaling to the RRC) or dedicated RRC signaling (e.g., RRC The UE may be configured by the gNB through a sidelink reconfiguration message. To assist the gNB in configuring the UE with logical channel priorities, an LTE-like UE assistance information message or LTE-like V2X UE information message, One or more of the physical channel derivation parameters may be signaled to the gNB. Instead of logical channel priority, such as the Id link QoS feature, but not limited to, Any other sidelink QoS including OS flow, transmission range, reliability, PQI or delay The features may be used.

[0122] The UE receives service or application data packets that are mapped to logical channels. A PBR value may be assigned to each logical channel from the PBR values associated with the logical channel. The PBR of a channel is determined, for example, by the service or application that is mapped to the logical channel. The highest PBR of the application data packets or the packets mapped to the logical channel V2 may be the sum of the PBRs of the service or application data packets. The PBR per X service is provisioned in the NR V2X MO described herein. Alternatively, the UE may determine the PBR per logical channel as Using common RRC signaling (e.g., system information broadcast signaling) ) or through dedicated RRC signaling (e.g., RRC reconfiguration messages) The UE may be configured by an LTE-like UE assistance information message or an LTE-like A similar V2X UE information message will contain a list of V2X communication logical channels and the following: One or more of these may be signaled to the gNB. of logical channels as defined in the NR V2X MO described herein One or more for the service or application data packets mapped to each Multiple PBRs. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more packets for a service or application data packet Allowed RATs, allowed RAT versions, or allowed sending profiles. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more S for the uploaded service or application data packets CS. Priority of each logical channel.

[0123] In response, the gNB may signal the PBR for each logical channel to the UE.

[0124] The UE receives service or application data packets that are mapped to logical channels. A BSD may be assigned to each logical channel from the BSD values associated with the logical channel. The BSD of a channel is, for example, the service or application that is mapped to the logical channel. The highest BSD of the data packet or the BSD mapped to the logical channel It may be the sum of the BSDs of the service or application data packets. The per-service BSD is provisioned in the NR V2X MO described herein. Alternatively, the UE may determine the bucket size per logical channel. The size length is used to transmit common RRC signaling (e.g., system information broadcast signaling). null signaling) or through dedicated RRC signaling (e.g., RRC reconfiguration messages) , may be configured by the gNB. The UE may receive an LTE-like UE assistance information message or LTE-like V2X UE information message containing a list of V2X communication logical channels, and , one or more of the following may be signaled to the gNB: - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more P packets for a service or application data packet BR. of logical channels as defined in the NR V2X MO described herein One or more packets for the service or application data packets mapped to each allows multiple allowed RATs, allowed RAT versions, or allowed sending profiles. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more S for the uploaded service or application data packets CS. · Priority of each logical channel.

[0125] In response, the gNB may signal the BSD of each logical channel to the UE.

[0126] The UE may assign a list of allowed SCSs to each logical channel. The list of allowed SCSs is the list of allowed SCSs for each V2X service mapped to a logical channel. The list of allowed SCSs for each V2X service may be a common subset of the It may be determined as provisioned in the NR V2X MO described in the specification. Alternatively, the UE may use a list of allowed SCSs for each logical channel to communicate with the common RRC Signaling (e.g., system information broadcast signaling) or dedicated RRC Configured by the gNB through signaling (e.g., RRC reconfiguration messages) The UE may receive an LTE-like UE assistance information message or an LTE-like V2X UE information message. In the information message, the list of V2X communication logical channels shall be specified along with one or more of the following: It may signal to the NB. Each logical, as provisioned in the NR V2X Management Objective (MoD) described herein. One or more for service or application data packets mapped to a channel or multiple acceptable SCS. Allows service or application data packets to be mapped to logical channels One or more of the carrier frequencies. - The number of service or application data packets mapped to each logical channel one or more delay budgets or the most restrictive packet delay budget. Logical channel priority, PPPP value, or each service mapped to a logical channel The highest PPPP value for a service or application data packet. Of the service or application data packets mapped to a logical channel Accordingly, the gNB may assign a PBR to one or more of the logical channels associated with each of the logical channels. One or more allowed SCSs may be signaled to the UE.

[0127] The UE shall assign to each logical channel the allowed RATs, allowed RAT versions, or allowed transmission protocols. A list of files may be assigned. Allowed RATs and allowed RAT versions for the logical channel The list of allowed transmission profiles is used by the V2X service mapped to the logical channel. Sharing a list of allowed RATs, allowed RAT versions, or allowed sending profiles per service Allowed RAT and RAT version for each V2X service. , or the list of allowed transmission profiles in the NR V2X MO described herein. Alternatively, the UE may determine the logical channel Use a list of allowed RATs, allowed RAT versions, or allowed sending profiles per Therefore, common RRC signaling (e.g., system information broadcast signaling) or or by the gNB through dedicated RRC signaling (e.g., RRC reconfiguration messages). The UE may be configured to receive an LTE-like UE assistance information message or an LTE-like V2X UE Information Messages include the V2X Communication Logical Channel along with one or more of the following: The gNB may signal the list of rules to the gNB. Allowance for service or application data packets mapped to each logical channel One or more of the available carrier frequencies. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more of the allowed RATs for the uploaded service or application data packets is plural. - The number of service or application data packets mapped to each logical channel one or more delay budgets or the most restrictive packet delay budget. Logical channel priority, PPPP value, or the services mapped to each logical channel The highest PPPP value for a service or application data packet. One or more services or application devices mapped to each logical channel PBR for data packets.

[0128] In response, the gNB may assign one or more allowed RATs, allowed The allowed RAT versions or allowed transmission profiles may be signaled to the UE.

[0129] The UE may assign a maximum allowed delay to each logical channel. Packet delay budget for mapped service or application data packets For example, the UE may derive the tolerable delay for each logical channel from the Delay budget, e.g., the services or applications mapped to the logical channels The minimum delay budget of the data packets is used to allocate the logical channel The allowable delay for the services or applications mapped to the logical channels may be derived. The delay budget for the mobile data packets is specified in the NR V2X MO described herein. Alternatively, the UE may determine the delay using the allowed delay. Common RRC signaling (e.g., system information broadcast signaling) or to the gNB through dedicated RRC signaling (e.g., RRC reconfiguration messages) The UE may be configured with an LTE-like UE assistance information message or an LTE-like V2X UE Information Message of the V2X Communication Logical Channel together with one or more of the following: The list of channels may be signaled to the gNB. Each logical, as provisioned in the NR V2X Management Objective (MoD) described herein. Allowable P for service or application data packets mapped to a channel One or more of the DBs or the most constrained PDB. Logical channel priority, one or more PPPP values, or a map for each logical channel The highest priority PPPP ( (e.g., the smallest PPPP value). Accordingly, the gNB determines the allowable delay per logical channel as U Instead of delay as sidelink QoS feature, the limitation is However, any other information including QoS flow, transmission range, reliability, PQI or priority Sidelink QoS features may also be used.

[0130] The UE may allocate a maximum allowed SL-SCH duration to each logical channel. Packets of service or application data packets mapped to logical channels From the delay budget, the allowed SL-SCH duration for each logical channel may be derived. For example, the UE may transmit service or application data packets that are mapped to logical channels. The most constrained delay budget, which may be the minimum delay budget of the packet. The budget may be used to derive the allowed SL-SCH duration for a logical channel. Delay budget for service or application data packets mapped to a channel The event is initiated from the provisioning as specified in the NR V2X MO described herein. Alternatively, the UE may use the allowed delay to determine the RRC time from common RRC signaling (e.g. System Information Broadcast Signaling) or dedicated RRC signaling (e.g. The UE may be configured by the gNB through, for example, an RRC reconfiguration message. TE-like UE assistance information message or LTE-like V2X UE information message, Signalling to the gNB a list of V2X communication logical channels together with one or more of the following: You can also use it. Each logical, as provisioned in the NR V2X Management Objective (MoD) described herein. Allowable P for service or application data packets mapped to a channel One or more of the DBs or the most constrained PDB. Logical channel priority, one or more PPPP values, or a map for each logical channel The highest priority PPPP ( e.g., the smallest PPPP value). Each logical, as provisioned in the NR V2X Management Objective (MoD) described herein. Allowable S for service or application data packets mapped to a channel One or more of the CS.

[0131] In response, the gNB may signal the allowable delay for each logical channel to the UE.

[0132] The UE assigns a list of allowed V2X serving carrier frequencies to each logical channel. The list of allowed carrier frequencies for a logical channel may be specified for each It may be a common subset of the list of allowed carrier frequencies for V2X services. The list of allowed carrier frequencies for each service is provided in the NR V2X M Alternatively, the UE may decide to use the logical channel A list of allowed carrier frequencies per channel is used to facilitate common RRC signalling (e.g. System information broadcast signaling) or dedicated RRC signaling (e.g., R RC reconfiguration message) by the gNB. The UE may be configured in an LTE-like UE assistance information message or LTE-like V2X UE information message, The gNB may signal a list of V2X communication logical channels together with one or more of the good. Allowance for service or application data packets mapped to each logical channel One or more of the available carrier frequencies. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more of the allowed RATs for the uploaded service or application data packets is plural. - The number of service or application data packets mapped to each logical channel one or more delay budgets or the most restrictive packet delay budget. Logical channel priority, PPPP value, or the services mapped to each logical channel The highest PPPP value for a service or application data packet. - The number of service or application data packets mapped to each logical channel PBR for one or more of these.

[0133] In response, the gNB may assign one or more allowed carrier frequencies associated with each logical channel. The frequency may be signaled to the UE.

[0134] The UE may assign a list of allowed BWPs to each logical channel. The list of allowed BWPs is a list of allowed BWPs for each V2X service mapped to a logical channel. The list of allowed BWPs for each V2X service shall be determined by the NR It may be determined as provisioned in the V2X MO. Alternatively, the UE uses a list of allowed BWPs per logical channel to communicate with common RRC signaling (e.g. , system information broadcast signaling) or dedicated RRC signaling (e.g. , RRC reconfiguration message) by the gNB. Similar UE assistance information messages or LTE-like V2X UE information messages, including: and signaling to the gNB a list of V2X communication logical channels together with one or more of: That's fine. Allowance for service or application data packets mapped to each logical channel One or more of the following BWPs: Allowance for service or application data packets mapped to each logical channel One or more of the available carrier frequencies. - Each logical channel is mapped as defined in the NR V2X MO described herein. One or more of the allowed RATs for the uploaded service or application data packets is plural. - The number of service or application data packets mapped to each logical channel one or more delay budgets or the most restrictive packet delay budget. Logical channel priority, PPPP value, or the services mapped to each logical channel The highest PPPP value for a service or application data packet. - The number of service or application data packets mapped to each logical channel PBR for one or more of these.

[0135] In response, the gNB may assign one or more allowed carrier frequencies associated with each logical channel. The frequency may be signaled to the UE.

[0136] The UE may assign transmission modes to logical channels. The mapping is a one-to-one mapping. or multiple transmission modes may be mapped to one logical channel. uses the logical channel derivation described above when determining the mapping of transmission modes to logical channels. Alternatively, the UE may use one or more of the parameters for the logical channel. The transmission mode mapping is used to perform RRC signaling (e.g., system information broadcasting). broadcast signaling) or dedicated RRC signaling (e.g., RRC reconfiguration messages) The UE may be configured by the gNB through a UE page. The UE may be configured with the transmission mode, logical channels, and LTE-like UE support to support gNBs in configuring UEs with mapping between Assistance information message or LTE-like V2X UE information message, which are transmitted over the above logical channels. The base station may signal one or more of the rule derivation parameters to the gNB. Mapping of V2X services to LCH, in other words, services to QoS flows Mapping of QoS flows to bearers and mapping of bearers to LCHs and configure the UE with the mapping of the service, QoS flow or bearer. As used herein, a base station is a station that is RAN, or any other RAN network node or core network node An alternative embodiment replaces the transmission mode with a transmission range or resource allocation mode. Alternatively, it may be derived.

[0137] LTE-like UE assistance information messages or LTE-like V2X as presented herein The UE information message may additionally include one or more of the following: List of PC5 Flow Identifiers (PFI) List of PC5 QoS Profile Identifiers (PQIs) Transmission range for PFI or PQI Transmit mode for PFI or PQI Transmission resource allocation mode for PFI or PQI Priority requirements, reliability requirements, delay requirements, range requirements, transmission mode requirements, resource types For example, guaranteed bit rate (GBR), delay critical G BR, or non-GBR, guaranteed flow bit rate, maximum flow bit rate, etc. or multiple QoS requirements -Mapping of transmission mode (unicast, groupcast, or broadcast) and V2X services, e.g. PSID or ITS- AID Mapping PC5 QoS Identifier (PQI) to V2X services Mapping of transmission range to V2X service (e.g. PSID or ITS-AID) G Each QoS rule specifies the QFI, packet filter set, and Allowed PC5 QoS rules when including priority values Mapping between PFI (QoS Flow Identifier) and PQI, and between PQI and logical channels Mapping, mapping between QFI and sidelink bearer, QoS characteristics, e.g. QoS profile Mapping of PQI to profile or resource allocation mode and logical channel or resource allocation modes and QoS flows

[0138] The logical channel derivation parameters mentioned above may also include any of the parameters mentioned above. stomach.

[0139] FIG. 16 illustrates a procedure 160 for configuring a MAC with V2X configuration parameters. 0, which may be used in combination with any of the embodiments described herein. In step 1610, the UE-RRC signals that the UE is interested in V2X communication. In step 1611, the UE-V2X function 1603 may In step 1612, the UE may pre-configure or provision the configuration parameters. -RRC1602 sends a V2X configuration parameter request to the UE with coverage indication In step 1613, the UE-RRC 1602 and the V2X function 1603 may transmit the and UE-V2X function 1603 when the UE is in coverage and Step 16: The UE may determine that the switching configuration parameter validity timer has expired. At 14, the UE-V2X function sends a V2X configuration parameter request via the gNB 1604. In step 1615, the V2X configuration parameters may be transmitted to the V2X control function 1605. may be provisioned over the V3 interface (NR basic V2X MO or all or part of the NR enhanced V2XX MO). 1602 and the UE-V2X function 1603 store the new V2X configuration parameters. or update stored V2X configuration parameters. A response to the V2X configuration parameter request may be received (NR Basic V2X MO or NR In step 1618, the UE RRC 1602 and The UE-V2X function 1603 stores or updates the new V2X configuration parameters. In step 1619, the UE may update the V2X configuration parameters stored in the RR. RAN-specific V2X configuration parameters in C-dedicated signaling or RRC common signaling Along with LTE-like UE assistance information message or LTE-like V2X UE information message In step 1620, the UE-RRC1 602 and the UE-V2X function 1603 store the new V2X configuration parameters or Alternatively, the stored V2X configuration parameters may be updated. The E-MAC1601 is configured with appropriate V2X parameters and LCP control parameters. It may be done.

[0140] The UE receives a sidelink transmission resource grant from the base station for a new sidelink transmission. The received sidelink resource grant may be The side link resource grant may be a resource grant, which may be PHY sidelink control when routing is performed over the sidelink interface If the scheduling information (SCI) or scheduling is performed over the Uu interface, In this case, PHY Downlink Control Information (DCI) It is assigned to the UE via Physical Layer (PHY) signaling. Alternatively, the received sidelink resource grant may be the configured resource grant, e.g. For example, even if it is a Type 1-like resource grant or a Type 2-like resource grant, In this case, Type 1 and Type 2 resource grants are often used for NR releases. The current definitions of Type 1 and Type 2 Resource Grants in the In another alternative, the received sidelink resource grant is For example, a resource pool (pre-configured by the base station) is used to provide a resource to the UE. Therefore, the sidelink resource grant may be autonomously selected. In this case, the received resource grant is allocated in the so-called resource allocation mode 1 or mode 2, and more specifically to Mode 2d as discussed in the context of Release 16 NR. Therefore, it may be assigned.

[0141] When a new sidelink transmission is to be performed, the MAC entity shall One or more of these may be authorized to function by a Sidelink Grant. A sidelink logical channel may be determined. Set of allowed V2X serving cells for sidelink logical channels (if configured) If so, the sidelink grant contains the cell information associated with the sidelink grant. The set of allowed SCSs for the sidelink logical channel (if configured) Contains the SCS associated with the link grant. The allowed delay for the sidelink logical channel (if configured) is The delay may be greater than or equal to the tolerable delay associated with the component. The allowed SL-SCH duration for a sidelink logical channel (if configured) is Greater than or equal to the SL-SCH duration associated with the idle link grant may be. Allowed SL-SCH K2 duration for sidelink logical channels (if configured) is greater than or equal to the SL-SCH duration associated with the sidelink grant. It can be anything. The set of allowed RATs for a sidelink logical channel (if configured) is The RAT may include a RAT associated with the Set of allowed RAT versions for sidelink logical channels (if configured) may include the RAT version associated with the sidelink grant. The set of allowed BWPs for the sidelink logical channels (if configured) It may also include a BWP associated with the link grant. A set of allowed transmission profiles for sidelink logical channels (if configured) may include a transmission profile associated with the sidelink grant. The allowed transmission modes of the sidelink logical channels (if configured) are The request may include a transmission mode associated with the request grant. The allowed transmission range of the sidelink logical channel (if configured) is It may also include a transmission range associated with the grant. The allowed resource allocation mode for the sidelink logical channel (if configured) is , may indicate the resource allocation mode used for the resource grant.

[0142] Selected according to the mapping of constraints to sidelink logical channels as specified above The selected sidelink logical channel is called the "selected sidelink logical channel". There is.

[0143] When a new transmission is to be performed, the MAC entity Only the following rules may be assigned resources:

[0144] For the selection of the V2X transmission destination as part of the logical channel selection procedure, the term " The "selected sidelink logical channel" is, as mentioned above, e.g., a sidelink resource graph. regarding the selected sidelink logical channels that are allowed to function by the This may be used as a mapping for the sidelink resource grants mentioned above. It may include a sidelink logical channel that implements ping constraints.

[0145] Another embodiment of destination selection is described herein, which is described herein. The first transmission destination selection method may be used in combination with any of the embodiments. The entity may, when a new transmission is made, specify the ProSe destination, e.g. From the selected sidelink logical channels with available data, the highest priority selected sidelink logical channel is selected. A send destination having a link logical channel may be selected. With the same destination ID and data available for transmission, as defined in the channel selection solution. Each selected sidelink logical channel is multiplexed and assembled within one PDU. It is okay to do so.

[0146] If the UE supports multiple transmit chains, the UE can transmit to multiple destinations simultaneously. The UE may select the ProSe destinations, one per transmission chain, in descending order of the priority of the transmission destinations. Select one ProSe destination. The priority of a transmission destination is determined by the selected logical channel of that destination. the selected sidelink logic having the highest priority and available data for transmission. The priority of the channel. The destination selected by the destination selection procedure is called the "selected destination." This may be referred to herein as "destination."

[0147] FIG. 17 shows a V2X transmission destination selection procedure 1700 for a single transmit chain. In step 1710, logical channel selection may be performed on the grant allocation. At 1711, selecting from among available V2X transmission destinations having data available for transmission. A V2X transmission destination having a logical channel may be selected.

[0148] FIG. 18 illustrates a V2X transmission destination selection procedure 1800 for multiple transmit chains. In step 1810, logical channel selection may be performed on the grant allocation. 1811, selecting from among available V2X transmission destinations having data available for transmission; A V2X transmission destination having a logical channel may be selected. Step 181: The X transmission destination may be removed from the set of available V2X transmission destinations. In 3, it may be determined whether there are more available transmit chains, and If there is a possible transmit chain, step 1811 is repeated.

[0149] Transmission modes may include broadcast, groupcast or unicast. The transmission mode priority may be (pre-)configured or defined in the UE. For example, a broadcast transmission may have a higher priority than a groupcast transmission. Often, this groupcast transmission may have a higher priority than unicast transmission. be.

[0150] In the alternative transmission destination selection method, the MAC entity selects the ProSe destination, e.g., a selected sidelink logical channel with data available for transmission and selects a transmission destination from among the selected sidelink logical channels that has the highest priority. In the case of a tie, for example, multiple transmission destinations may choose the highest priority destination with data available for transmission. If it has a preferred selected logical channel, the UE shall select the transmission destination according to one of the following: You may choose.

[0151] The destination among the tie-up destinations that has the highest transmission mode priority and is available for transmission. Among the selected logical channels having data, the logical channel with the highest selection priority is In other words, the destination with the highest transmission mode priority and the highest transmission mode priority among the tie-up destinations. The selected logical channel having the data is identified. The transmission destination is then determined based on the most recent transmission mode. The highest priority logical channel among those determined to have available data transmission. It may be selected as the destination corresponding to the logical channel.

[0152] Among the tied-up destinations, the destination with the higher transmission mode priority is the one that is available for transmission. The destination with the highest selected priority logical channel that has data. Among the tie-up destinations, the selected destination is the selected highest priority destination with data available for transmission. The higher priority channel is the one with the higher transmission mode.

[0153] The term "selected logical channel" refers to the channel selected by the sidelink resource grant, as described above. Used for selected sidelink logical channels that are allowed to function This may be achieved by implementing the mapping constraints for sidelink resource grants mentioned above. It may include the sidelink logical channels that can be implemented.

[0154] In another alternative transmission destination selection method, the UE selects the destination with the highest transmission mode priority and available for transmission. The logical channel mapping scheme for the resource grants described above is also included. In case of a tie, the UE may select a transmission destination with a logical channel that satisfies the following conditions: You may select among the tie-up sending destinations according to one of the following:

[0155] The highest transmission mode priority, has data available for transmission, and has the resources mentioned above. The highest priority logical channel that implements the logical channel to grant mapping constraints. Destination with a rule.

[0156] of logical channels that have data available for transmission and for which the resource grants are mentioned above The destination with the highest priority logical channel that can fulfill the mapping constraints.

[0157] In yet another alternative transmission destination selection method, the UE selects the transmission mode with the highest transmission mode priority and has data available for the resource grants and has the above-mentioned mapping of logical channels to resource grants. The transmission destination may be selected to have the highest priority logical channel that can fulfill the routing constraints.

[0158] One or more of the alternative procedures may be used to link between sidelink LCP procedures. It may be used for source allocation.

[0159] FIG. 19 illustrates an example during an NR V2X sidelink LCP procedure according to one embodiment. 19 shows an exemplary resource allocation procedure 1900, which is implemented as described herein. The entity may use the When the resource allocation is completed, the resource may be allocated based on the procedure 1900.

[0160] In step 1910, it may be determined whether there is a resource grant available. In step 1911, the selected sidelink logical channel (LCHj with Bj>0 of the selected destination) may be assigned resources in descending order of priority, with the selected logical channel and the selected destination The logical channel selection solution and the destination selection solution described herein are respectively The PBR of the selected logical channel of the selected destination is set to "infinite". If so, the MAC entity shall select the selected sidelink logical channel with lower priority. Before satisfying the PBR, all data available for transmission on the selected sidelink logical channel shall be In step 1912, Bj may allocate resources according to the above side link theory. The number may be decremented by the total size of the MAC SDUs provided to the physical channel j.

[0161] In step 1913, it may be determined whether there is a resource grant available. In step 1914, if there are any remaining resource grants, the data for that logical channel is All selected cycles of the selected destination are continued until either the selected or sidelink grants are exhausted first. Drink logical channels operate in strictly descending order of priority (regardless of the value of Bj) The selected sidelink logical channels of the selected destinations configured with equal priority are It may work fine.

[0162] FIG. 20 illustrates a method for transmitting a NR V2X sidelink LCP signal during an NR V2X sidelink LCP procedure according to another embodiment. 20 illustrates another exemplary resource allocation procedure 2000, which is described herein. The entity may be used in combination with any of the embodiments described above. When performed, the logical channel is assigned resources according to procedure 2000. In step 2010, it may be determined whether there is a resource grant available. In step 2011, the resource is selected from the highest priority destinations that have data for transmission. The selected logical channel and the selected sidelink logical channel may be assigned to the selected sidelink logical channel. The selected destination is the logical channel selection solution and the destination selection solution described herein. In step 2012, the available resource grants are In step 2013, if there are resources remaining, the selection The data for the sidelink logical channel or the sidelink grant is used up, whichever comes first. Until the selected sidelink logical channel is reached, the selected sidelink logical channel belonging to the selected destination is Selection sidelink logic for equally prioritized selection destinations The channels may function equally well.

[0163] FIG. 21 illustrates a method for transmitting a NR V2X sidelink LCP signal during an NR V2X sidelink LCP procedure according to another embodiment. Yet another exemplary resource allocation procedure 2100 is shown, which is The present invention may be used in combination with any of the embodiments described above. When a communication is performed, resources are allocated to the logical channel according to procedure 2100. In step 2110, it is determined whether there is a resource grant available. In step 2111, the resource selects the first of the selected destinations that has data for transmission. may be assigned to selected sidelink logical channels with high priority, and and selected destinations in the logical channel selection and destination selection solutions described herein. , respectively. In step 2112, the available resource graph In step 2113, if there are resources remaining, , the selected sidelink logical channel (LCHj with Bj>0 of the selected destination) is sorted in descending order of priority. The selected logical channel and the selected destination may be assigned to resources in accordance with the present invention. As defined in the logical channel selection solution and destination selection solution described in If the PBR of the selected sidelink logical channel of the selected destination is set to "infinite", If so, the MAC entity shall serve selected sidelink logical channels of lower priority. Before transmitting, the resources are allocated for all data available for transmission on the sidelink logical channels. In step 2114, Bj may be assigned to the sidelink logical channel j. The total size of the MAC SDU provided may be decremented. In step 2116, it may be determined whether there is a resource grant available. If there are resources remaining, either data or UL grants for that logical channel are available. All selective sidelink logical channels of the selected destination have strict priority until the It may work in descending order (regardless of the value of Bj). Selected sidelink logical channels of selected destinations may function equally.

[0164] A solution for uplink data logical channel prioritization according to another embodiment is As described herein, this may be combined with any of the embodiments described herein. This solution may be used in conjunction with the NR uplink data logical channel prioritization procedure. Logical channel prioritization procedures over the NR Uu interface Regarding the impact of sidelink related transmissions on the UE.

[0165] In Rel-15 LTE, the non-padding BSR is a non-padding sidelink BSR. This non-padding sidelink BSR takes precedence over the data from the UL-CCCH. It takes priority over data from any logical channel except Rel-15 N. In R, the non-padding BSR is used for all logical channels except for data from the UL-CCCH. For NR V2X deployments, the sidelink BSR The prioritization of non-padding BSR for uplink and sidelink transmissions is The same priority order may be followed between the two, e.g., sidelink transmissions take priority over uplink transmissions. If preceded by a BSR, the corresponding sidelink BSR takes precedence over the corresponding uplink transmit BSR. In particular, a non-padding V2X sidelink BSR is allowed if the following conditions are met: If so, it may take precedence over a non-padding BSR. (1) UL data related to BSR is transmitted by higher layers to the sidelink BSR. does not take priority over the Sidelink data being transmitted. (2) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza tion) is configured to be less than this value.

[0166] The second of the above conditions is that non-emergency uplinks are allowed regardless of the priority of uplink communications. Absolute V2X sidelink threshold for prioritizing sidelink communications over V2X communications As mentioned above, this condition is based on the NR V2X sideband for uplink transmissions. Therefore, according to one embodiment, The priority of uplink transmission is given to V2X sidelink transmission, which has a higher priority than uplink transmission. It may also be used to rank items. Therefore, an alternative example to the second condition above is may include the following:

[0167] (1) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of a channel is the highest priority of a logical channel for UL data involved in BSR. If it is less than the rank value.

[0168] (2) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If the Sidelink BSR is configured, the value must be less than this value and the The highest priority value of the sidelink logical channel for sidelink data that is If it is less than the highest priority value of the involved UL data-oriented logical channel. The threshold parameter (thresSL-TxPrioritization) determines whether SL V2X transmissions are uplink transmissions. In the case of overlapping time periods, this is used to determine whether the former should be given higher priority than the latter. It may be pre-configured in the UE or may be configured specifically for RRC. signaling, RRC common signaling, e.g., RRC broadcast signaling It may be configured in the UE through a

[0169] (3) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If the UL data involved in the BSR is smaller than this value, The highest priority value of the logical channel for If sUL-TxPriortization) is configured, it is greater than this value. The parameter thresUL-TxPrioritization determines the time at which UL transmissions overlap with sidelink communications. If so, indicates the threshold used to determine whether the former should be given lower priority than the latter. It may be pre-configured in the UE or used for RRC dedicated signaling. , through RRC common signaling, e.g., RRC broadcast signaling, It may be configured as follows.

[0170] (4) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If the UL data involved in the BSR is smaller than this value, The highest priority value of the logical channel for If sUL-TxPriortization is configured, it must be greater than this value and the side link Highest priority of sidelink logical channel for sidelink data involved in BSR The value of this parameter is less than the highest priority value of the logical channel for UL data involved in the BSR. If so.

[0171] Another embodiment of the present invention provides a method for prioritizing sidelink data relative to uplink data. A solution for this is described herein, which may be implemented in any of the embodiments described herein. As mentioned above, in conventional LTE V2X, If the conditions are met, V2X sidelink transmissions will have priority over uplink transmissions. . (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. When it is not possible to simultaneously send and receive messages. (2) When uplink transmission is not prioritized by higher layers. (3) The highest priority value of the sidelink logical channel in the MAC PDU is If the link transmit prioritization threshold (thresSL-TxPrioritization) is configured, this value If it is less than.

[0172] The third of the above three conditions is that non-urgent uplinks are allowed regardless of the priority of the uplink communications. Absolute V2X sidelink for prioritizing sidelink communications over V2X sidelink communications As mentioned above, this third condition is the NR V It may not be sufficient to prioritize 2X sidelink communications. Depending on the state, the priority of the uplink transmission is subject to a third condition with one of the following alternatives: By replacing the V2X sidelink transmission with the V2X uplink transmission, the V2X sidelink transmission is prioritized over the uplink transmission. It may be used when

[0173] (1) The priority value of the V2X sidelink transmission is smaller than the priority value of the uplink transmission. This criterion is used for all sidelink transmission modes and , may be used especially in the case of unicast transmissions, for example.

[0174] (2) The priority value of V2X sidelink transmission is equal to the sidelink transmission prioritization threshold ( If thresSL-TxPrioritization is configured, it must be less than this value and V2X If the priority value of the sidelink transmission is less than the priority value of the uplink transmission. The priority threshold parameter thresSL-TxPrioritization determines whether SL V2X transmissions are uplink transmissions. In the case of overlapping time periods, this is used to determine whether the former should be given higher priority than the latter. It may be pre-configured in the UE or may be configured specifically for RRC. signaling, RRC common signaling, e.g., RRC broadcast signaling This criterion is used for all sidelink transmission modes. At the same time, this standard is specific to broadcast or groupcast transmissions. may be used for.

[0175] (3) The priority value of V2X sidelink communication is equal to the sidelink transmission prioritization threshold ( If thresSL-TxPrioritization is configured, it must be less than this value and The priority value of the uplink transmission is equal to or greater than the uplink transmission prioritization lower threshold (thresUL-TxPriortizat If the priority threshold parameter thresUL is configured, it is greater than this value. -TxPrioritization: When UL transmission overlaps in time with sidelink communication, the former is prioritized. When used to indicate the threshold used to determine whether a This may be pre-configured in the UE or may be implemented using RRC dedicated signaling, RRC shared signaling, etc. Nulling, e.g., configured in the UE through RRC broadcast signaling This criterion is used for all sidelink transmission modes and also applies to: It may be particularly used for broadcast or groupcast transmissions.

[0176] (4) The priority value of V2X sidelink transmission is equal to the sidelink transmission prioritization threshold ( If thresSL-TxPrioritization is configured, it must be less than this value and The priority value of the uplink transmission is equal to or greater than the uplink transmission prioritization lower threshold (thresUL-TxPriortizat ion) is configured, it must be greater than this value and the V2X sidelink transmission priority The priority value is less than the priority value of the uplink transmission. This criterion is applied to all sidelinks. This criterion is used for broadcast transmission or group transmission as well as for group transmission mode. It may be particularly useful for broadcast transmission.

[0177] In the above, the priority value of the V2X sidelink transmission is set to the sidelink priority in the MAC PDU. It may be the highest priority value of the logical channel. Similarly, the priority value of the uplink transmission may be the highest priority value of an uplink logical channel in a MAC PDU. The lower the priority value of a logical channel, the higher the priority of the logical channel may be. Similarly, the lower the priority value of a transmission, the higher the priority of the transmission may be.

[0178] (5) The highest priority value of the sidelink logical channel in the MAC PDU is If the link transmit prioritization threshold (thresSL-TxPrioritization) is configured, this value In this case, the parameter thresSL-TxPrioritization is set to Specific to each transmission destination, specific to each transmission mode, or specific to each sidelink transmission destination and transmission mode The V2X sidelink transmissions relative to the uplink transmissions may be (pre-)configured in the specific UE. When determining the priority, V2X sidelink transmission PPPR or uplink transmission PPP R may also be taken into account by the UE. Similarly, V2X support for uplink transmissions When prioritizing link transmissions, if one transmission is preferred over another The amount of radio resources at risk of being lost may be taken into account by the UE. ,The third condition above may be modified as follows:

[0179] (1) The priority value of the V2X sidelink transmission is smaller than the priority value of the uplink transmission. If the priorities are equal, V2X sidelink communication will be based on the PPPR value of the uplink. It may be prioritized if it is greater than the PPPR value of the link transmission, or if it has equal priority. In this case, the amount of resource grant for V2X sidelink communication is This criterion applies to all sidelinks. While this criterion is used for the network transmission mode, it is also used in the case of unicast transmission, e.g. It may be used in particular.

[0180] (2) The priority value of V2X sidelink transmission is equal to the sidelink transmission prioritization threshold ( If thresSL-TxPrioritization is configured, it must be less than this value and V2X If the priority value of the sidelink transmission is less than the priority value of the uplink transmission. V2 X If the priority between the sidelink communication priority and the uplink transmission priority is equal, V2X sidelink communication has a PPPR value that is greater than the PPPR value of uplink transmission. Alternatively, if the priorities are equal, the V2X sidelink communication , the amount of resource grant for that transmission is greater than the amount of resource grant for uplink transmission. This criterion is the same as that used for all sidelink transmission modes. Sometimes this standard is used specifically for broadcast or groupcast transmissions. good.

[0181] (3) The priority value of V2X sidelink transmission is equal to the sidelink transmission prioritization threshold ( If thresSL-TxPrioritization is configured, it must be less than this value and The priority value of the uplink transmission is equal to or greater than the uplink transmission prioritization lower threshold (thresUL-TxPriortizat ion) is configured, it must be greater than this value and the V2X sidelink transmission priority If the priority value is smaller than the priority value of the uplink transmission, V2X sidelink communication priority is If the priority between the V2X sidelink communication and the uplink transmission priority is equal, A transmission should be prioritized if its PPPR value is greater than the PPPR value of the uplink transmission. If the priority is equal, the V2X sidelink communication will If the amount of source grant is greater than the amount of resource transmission for uplink transmission, it is prioritized. This criterion is used for all sidelink transmission modes and also applies to It may be particularly used for broadcast or groupcast transmissions.

[0182] In the above, the PPPR value for V2X sidelink transmission is the sidelink The maximum PPPR value of the logical channel is given by , the largest PPPR value of the uplink logical channels in the MAC PDU. The higher the PPPR value of the channel, the higher the reliability requirement for the logical channel may be. Similarly, the higher the PPPR value of a transmission, the higher the reliability requirements for the transmission may be.

[0183] As noted above in light of the embodiments described herein with respect to UL LCP, BSRs other than the BSR included in the padding and Sidelink BSRs included in the padding The sidelink BSR, excluding the UL-CCCH, also transmits data from any logical channel, excluding the UL-CCCH. It may take priority over data from other channels. Sidelink BSR prioritization,BSR prioritization for sidelink transmissions The prioritization algorithm described in the embodiments described herein for the UL LCP The approach is to prioritize the relative priority between the UL data involved in the BSR and the sidelink data. Similarly, the sidelink BS for UL data transmission may R prioritization is performed to distinguish between sidelink data involved in sidelink BSR and UL data. The relative prioritization between the

[0184] The non-padding V2X sidelink BSR is based on UL data if the following conditions are met: may also be given priority. (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. When it is not possible to simultaneously send and receive messages. (2) UL data is sent by higher layers to the sidelink device involved in the sidelink BSR. If it does not take precedence over the data. (3) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza tion) is configured to be less than this value.

[0185] Examples of alternatives to the third condition above may include:

[0186] (1) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of a logical channel in the UL MAC PDU is the highest priority value of a logical channel in the UL MAC PDU. This criterion is used for all sidelink transmission modes, e.g. For example, the highest priority sidelink for sidelink data involved in the sidelink BSR. This criterion may be used in particular when the link logical channel supports unicast transmission. .

[0187] (2) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If the Sidelink BSR is configured, the value must be less than this value and the The highest priority value of the sidelink logical channel for sidelink data in the UL M If the value is less than the highest priority of any logical channel in the AC PDU, the priority threshold parameter The meter thresSL-TxPrioritization is used to determine whether SL V2X transmissions overlap in time with uplink transmissions. If so, indicate the threshold used to determine whether the former should be given higher priority than the latter. It may be pre-configured in the UE or used for RRC dedicated signalling. RRC common signaling, e.g., RRC broadcast signaling This criterion is the same as that used for all sidelink transmission modes. Sometimes, for example, the highest priority for sidelink data involved in the sidelink BSR. If the sidelink logical channel supports groupcast or broadcast transmissions, In this case, this criterion may be particularly useful.

[0188] (3) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If UL MAC PDU is configured, it must be less than this value and the logical The highest priority value of the physical channel is equal to or exceeds the uplink transmission prioritization lower threshold (thresUL-TxPr If priority threshold parameter is configured, it is greater than this value. The threshold UL-TxPrioritization is used when UL transmissions overlap in time with sidelink communications. Used to indicate the threshold used to determine whether the former should be given lower priority than the latter. It may be pre-configured in the UE or transmitted via RRC dedicated signaling, RRC Common signaling, e.g., configured in the UE through RRC broadcast signaling This criterion is used for all sidelink transmission modes and may be used for For example, the highest priority sidelink for sidelink data involved in the sidelink BSR. This is used when the logical channel supports groupcast or broadcast transmission. The criteria may be used specifically.

[0189] (4) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If UL MAC PDU is configured, it must be less than this value and the logical The highest priority value of the physical channel is equal to or exceeds the uplink transmission prioritization lower threshold (thresUL-TxPr If Sidelink BSR is configured, it must be greater than this value. The highest priority value of the sidelink logical channel for sidelink data involved in If the value is smaller than the highest priority value of the logical channel in the UL MAC PDU, this criterion is used for all sidelink transmission modes and at the same time, e.g., for the sidelink BSR. The sidelink logical channel with the highest priority for the sidelink data involved is the group This criterion may be used in particular when dealing with cast or broadcast transmissions. .

[0190] (5) Sidelink logical channel for sidelink data involved in sidelink BSR The highest priority value of the channel is the sidelink transmission prioritization threshold (thresSL-TxPrioritiza If the threshold is less than this value, the parameter thresSL-Tx Prioritization can be specific to each sidelink transmission destination, specific to each transmission mode, or specific to each sidelink Drink transmission destinations and transmission modes may be specific (pre-)configured in the UE.

[0191] V2X sidelink transmissions have priority over non-padding BSRs if the following conditions are met: It is okay to do so. (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. When it is not possible to simultaneously send and receive messages. (2) UL data related to BSR is prioritized by higher layers over sidelink data. If not preceded. (3) The highest priority value of the sidelink logical channel in the sidelink MAC PDU. However, the sidelink transmission prioritization threshold (thresSL-TxPrioritization) is configured. This criterion is used for all sidelink transmission modes. At the same time, this criterion may be used especially in the case of unicast transmissions, for example.

[0192] Examples of alternatives to the third condition may include:

[0193] (1) The highest priority value of the sidelink logical channel in the sidelink MAC PDU. is less than the highest priority value of the logical channel for UL data involved in the BSR. This criterion is used for all sidelink transmission modes, and at the same time, this criterion is For example, it may be used especially in the case of unicast transmission.

[0194] (2) The highest priority value of the sidelink logical channel in the sidelink MAC PDU. However, the sidelink transmission prioritization threshold (thresSL-TxPrioritization) is configured. When the Sidelink MAC PDU is The highest priority value of a channel is the highest priority of a logical channel for UL data involved in BSR. The priority threshold parameter thresSL-TxPrioritization is set to S L When V2X transmissions overlap in time with uplink transmissions, the former should be given priority over the latter. It may be used to indicate the threshold used to determine whether to increase Pre-configured in the UE or RRC dedicated signaling, RRC common signaling, e.g. This may be configured to the UE through RRC broadcast signaling. This criterion is used for all sidelink transmission modes as well as for broadcast transmission. It may be particularly used for broadcast or groupcast transmissions.

[0195] (3) The highest priority value of the sidelink logical channel in the sidelink MAC PDU. However, the sidelink transmission prioritization threshold (thresSL-TxPrioritization) is configured. When the maximum logical channel for UL data involved in BSR is less than this value, The high priority value is the uplink transmission prioritization lower threshold (thresUL-TxPriortization). If configured, the priority threshold parameter thresUL-TxPr is greater than this value. Prioritization is when UL transmissions overlap in time with sidelink communications, and the former takes priority. It is sometimes used to indicate the threshold used to determine whether the It can be pre-configured in the UE or can be implemented using RRC dedicated signaling, RRC common signaling, etc. may be configured in the UE via RRC broadcast signaling, for example. This criterion is used for all sidelink transmission modes, and also applies to broadcast It may be particularly used for broadcast or groupcast transmissions.

[0196] (4) The highest priority value of the sidelink logical channel in the sidelink MAC PDU. However, the sidelink transmission prioritization threshold (thresSL-TxPrioritization) is configured. When the maximum logical channel for UL data involved in BSR is less than this value, The high priority value is the uplink transmission prioritization lower threshold (thresUL-TxPriortization). If configured, it must be greater than this value and the sub- Page 14 14 Page ... The highest priority value of the Idlink logical channel is the logical channel for UL data involved in the BSR. The value is less than the highest priority of the channel. This criterion is applied to all sidelink transmission modes. At the same time as being used for broadcast or groupcast transmissions, this standard It may be particularly useful for trust.

[0197] Prioritization solutions for sidelink transmissions relative to uplink transmissions described herein where the parameter thresSL-TxPrioritization may be (pre-)configured in the UE, and Specific to each sidelink transmission destination, specific to each transmission mode, or specific to each sidelink transmission destination and Such configuration signaling may be specific to the Uu RR. C signaling, PC5-RRC signaling, or PC3-S signaling This may be done.

[0198] Priority, one of the QoS features, is the priority of sidelink transmissions over uplink transmissions. While used in ranking, any other QoS characteristic may be used instead of or in preference to priority. For example, in the prioritization method described above, Sidelink transmission when the link transmission QoS requires higher prioritization than UL transmission Priority replaces any other QoS criteria, so that UL transmissions take priority over UL transmissions. Similarly, the logical channel for data involved in sidelink BSR may be Non-padding side if the UL requires higher priority than the UL BSR. Sidelink BSRs, such as link BSRs, have priority over UL transmissions, including UL BSRs. An example of a QoS feature that may be used in the prioritization method described above is priority Instead, delay, range, a combination of priority and delay and range, or PQI (PC5 Any other single metric that may be used to represent QoS, such as a QoS identifier. It's okay to have one.

[0199] Examples of different overlapping grant scenarios are shown in Figures 7, 8, 9, 10 and 11. do.

[0200] Figure 7 shows that both grants overlap completely and the first allowed transmission start point is the same. Similarly, Figure 8 shows the case where the two grants have completely overlapping time lengths. The grants are the same, and the last allowed transmission end point is the same, but the duration of the two grants is different. Figures 9 and 10 show the case where the grants have different durations and overlap partially. , the first allowable transmission start point and the last allowable transmission end point of each grant are different. Figure 11 shows that the grants have different durations, completely overlap, and the maximum duration of each grant is This shows a case where the first allowable transmission start point and the last allowable transmission end point are different.

[0201] In LTE V2X, the priority of uplink transmission is higher than that of the above-mentioned side link. The first condition for prioritizing upstream link communications is that the MAC entity must "When V2X sidelink communication transmission and V2X sidelink communication transmission cannot be performed simultaneously." The sentence "at the time of sending" is unclear and is not clear enough in the context of overlapping grants. Therefore, the condition "The MAC entity is "When V2X sidelink transmission and V2X sidelink communication transmission cannot be performed simultaneously," UE behavior needs to be clarified, updated or extended to avoid ambiguity. For example, if a transmission is in progress on the uplink, then a subsequent transmission may occur on the sidelink. Considering a scenario triggered by a traffic jam, the existing LTE V2X transmission prioritization rules are In this scenario, the sidelink transmission may be prioritized over the ongoing uplink. how uplink transmissions are handled (e.g., whether interruption or abandonment of uplink transmissions may be implemented) Therefore, it is not clear whether V2X sidelink transmissions are prioritized over uplink transmissions. The first of the three preceding LTE V2X conditions is extended with one of the following conditions: It is okay to do so.

[0202] (1) When transmitting, the MAC entity performs uplink transmission and V2X sidelink communication. The prioritization is performed when the uplink transmission cannot be performed simultaneously with the uplink transmission. It is not possible to forcibly discard uplink TBs that have already been sent to lower layers for transmission during this period. No. The prioritization rules in the LTE V2X regulations make it impractical or An example of a scenario where an uplink transmission may be forced to be discarded if it is not feasible is shown in Fig. 8, the scenario of sidelink and uplink transmission overlap as shown in Figs. 10 and 11. It could be Rio.

[0203] Alternatively, the fourth condition for prioritizing V2X sidelink transmission over uplink transmission is: It could be something like the below.

[0204] (1) The prioritization is based on the packets already sent to lower layers for transmission in this uplink transmission period. It is not possible to forcibly discard a received uplink TB.

[0205] Regarding random access transmission, the priority of sidelink transmission is given to random access. If the triggering event is higher than the sidelink transmission, e.g., random access, For example, it may be given priority over random access message 1 transmission. UL data during RRC_CONNECTED when there are no available PUCCH resources The arrival of the UL data triggers random access, but the UL data arrives at the side link. If the sidelink transmission has a lower priority than the random access, the sidelink transmission will take precedence over the random access. It needs to be prioritized.

[0206] The determination of transmission parameters associated with the radio resource grant is described herein. One issue that needs to be resolved is the scheduled grant, configured Submissions associated with resource grants, either autonomous or non-autonomous grants The question is how the MAC determines the parameters.

[0207] The determination of the allowed transmission modes associated with a radio resource grant comprises the following steps: This may occur.

[0208] The UE MAC determines the radio resource grant based on one or more of the following: The allowable transmission modes may be determined by the

[0209] A grant may also include an indication of the allowable transmission modes associated with the grant. good.

[0210] The PHY may indicate to the MAC the allowed transmission modes associated with the grant.

[0211] For example, the RRC (pre-)configures the UE with sidelink radio resources (e.g. The physical sidelink shared channel resource (e.g., physical sidelink shared channel resource) is determined by the allowed transmission modes associated with the resource. This may include side configuration, e.g., side configuration (pre-)configured in the UE by RRC. Link radio resources (e.g., physical sidelink shared channel resources) are allocated in the transmission mode Scheduled, e.g., dynamic grant or Mode 1 When a grant is allocated to a UE, the MAC is assigned to the UE to which the grant is mapped. The transmission mode of the grant is determined based on the allowed transmission modes of the configured sidelink radio resources. The user may determine the code.

[0212] For example, the sidelink resource pool (pre-configured) in the UE by RRC is: This may include the configuration of allowed transmission modes associated with the resource, e.g., by RRC. Therefore, the sidelink radio resource pool (pre-configured) in the UE is transmission mode specific. An autonomous grant or a Mode 2 grant may be selected by the UE. If so, the MAC will determine the sidelink radio resource configured for the UE to which the grant is mapped. The transmission mode of the grant may be determined based on the allowed transmission mode of the spool.

[0213] Determining the allowed transmission range associated with the radio resource grant comprises the steps of: There are cases where this happens.

[0214] The UE MAC determines the radio resource grant based on one or more of the following: The allowable transmission range may be determined by the

[0215] The grant may include an indication of the allowable transmission range associated with the grant. stomach.

[0216] The PHY may indicate to the MAC the allowable transmission range associated with the grant.

[0217] For example, the RRC (pre-)configures the UE with sidelink radio resources (e.g. A resource (e.g., a physical sidelink shared channel resource) is defined by the allowable transmission range associated with the resource. For example, side links (pre-)configured in the UE by RRC. The sidelink radio resources (e.g., physical sidelink shared channel resources) are transmission range specific. Scheduled, e.g., dynamic grant or Mode 1 grant. When a grant is assigned to a UE, the MAC is configured in the UE to which the grant is mapped. Determine the transmission range of the grant based on the allowed transmission range of the sidelink radio resource You may do so.

[0218] For example, the sidelink resource pool (pre-configured) in the UE by RRC is: This may include configuration of the allowed transmission range associated with the resource, e.g., by RRC. The sidelink radio resource pool (pre-configured in the UE) is transmission range specific. If autonomous grant or Mode 2 grant is selected by the UE, If so, the MAC will assign the sidelink radio resource configured for the UE to which the grant is mapped. The transmission range of the grant may be determined based on the allowed transmission modes of the pool.

[0219] The base station is responsible for the logical channels (LCHs) included in or associated with the BSR. Based on Logical Channel Groups (LCGs) or included in or related to the BSR Based on the associated LCG and destination combination or LCH and destination combination It is important to understand the transmission mode associated with a Buffer Status Report (BSR) This can be done.

[0220] Similarly, a base station may request a LCH or LCG that is included in or associated with a BSR. based on the LCG and destination pair contained in or associated with the BSR. The BSR-associated sender is based on the LCH and destination combination, or the LCH and destination combination. The range can be recognized.

[0221] Based on the (pre)configuration information in the UE, the UE selects the LCH or LCG and the transmission mode. Similarly, based on the (pre)configuration information in the UE, the UE can associate the LC A transmission range can be associated with the H or LCG.

[0222] The 3rd Generation Partnership Project (3GPP) is a global leader in wireless access, core transceiver, and Port network and service capabilities (encoding, security, and service offerings) For cellular telecommunications network technology, including those affecting quality, The latest radio access technology (RAT) standards are WCDMA (registered trademark) ) (commonly referred to as 3G), LTE (commonly referred to as 4G), and LTE-A 3GPP is working on a new standard called New Radio (NR), also known as "5G." , has begun work on standardizing next-generation cellular technology. 3GPP NR standard development is , which is expected to include provisions for next generation radio access technologies (new RATs), which will include 6G New flexible radio access provisions below 6 Hz and new This is expected to include the provision of new ultra-mobile broadband wireless access. Flexible wireless access is being promoted in new frequency bands below 6 GHz. It is expected to consist of new, non-backward compatible radio access and will be aggregated in the same frequency band. First multiplexed to address a broad set of 3GPP NR use cases with diverse requirements It is expected that the range of mobile broadband networks will include different modes of operation that may be different. The brand is, for example, offering ultra-mobile broadband for indoor use and hotspots. It is envisaged that this will include centimetre and millimetre wave frequency bands, which will provide access opportunities. In particular, ultra-mobile broadband with centimeter-wave and millimeter-wave specific design optimization The standard will share a common design framework with sub-6GHz flexible radio access. It is expected that this will happen.

[0223] 3GPP has developed a wide range of user experience requirements for data rate, latency, and mobility. It identifies various use cases that NR is expected to support, including: The cases fall into the general category of advanced mobile broadband (e.g., high density Broadband access in high-density areas, indoor ultra-high-density broadband access, and in crowds broadband access, 50+Mbps everywhere, ultra-low cost broadband band access, mobile broadband in vehicles), critical communications, large-scale machines Type communication, network operations (e.g., network slicing, routing, migration) Interworking and energy saving), and vehicle-to-vehicle communication (Vehicle-to-Vehicle Communication: V2V), vehicle-to-infrastructure Vehicle-to-Infrastructure Communication (V2I), Vehicle-to-Network Vehicle-to-Network Communication (V2N), Vehicle-to-Pedestrian Vehicle-To-Pedestrian Communication (V2P), and other entities Enhanced Vehicle-to-Everything (EV-2) may include any of the following: This includes enhanced Vehicle-To-Everything (eV2X) communications. Physical services and applications include, for example, monitoring and security, to name a few. Sensor network, device remote control, two-way remote control, personal cloud computing video streaming, wireless cloud-based office, emergency responder connectivity Activity, Automotive e-call, Disaster warning, Real-time gaming, Multi-person video call, Autonomy These use cases include driving, augmented reality, tactile internet, and virtual reality. All and others are contemplated herein.

[0224] FIG. 22A is a block diagram of a system in which the methods and apparatus described and claimed herein are embodied. 1 illustrates an embodiment of an exemplary communication system 100 in which The system 100 includes a Wireless Transmit / Receive Unit (WTRU). ) 102a, 102b, 102c, 102d, 102e, 102f and / or 102 g (sometimes generally or collectively referred to as WTRU 102), and Network (RAN) 103 / 104 / 105 / 103b / 104b / 105b and Network 106 / 107 / 109 and the Public Switched Telephone Network Public Telephone Network (PSTN) 108, the Internet 110, and other networks network 112 and a V2X server (or ProSe function and server) 113. Although the disclosed embodiments may be implemented in any number of WTRUs, base stations, networks, and It will be appreciated that multiple network elements and / or multiple network elements are contemplated. 02b, 102c, 102d, 102e, 102f, and 102g are each designed to operate in a wireless environment. Any type of apparatus or device configured to operate and / or communicate Each of the WTRUs 102a, 102b, 102c, 102d, 102e, 102f, and 10 2g is depicted in Figures 22A to 22E as a handheld wireless communication device, but 5G wireless In various possible communication use cases, each WTRU may be, by way of example only, a user equipment. (UE), Mobile Station, Fixed or Mobile Subscriber Unit, Pager, Cellular -Telephones, personal digital assistants (PDAs), smartphones, Laptops, tablets, netbooks, notebook computers, personal computers computers, wireless sensors, consumer electronics products, smart watches or smart clothing Wearable devices, medical or e-health devices, robots, industrial equipment, drones, etc. Any vehicle that transmits and / or receives radio signals, including vehicles such as cars, trucks, trains, or airplanes. comprising or configured to receive any type of apparatus or device It will be understood that the invention may be embodied in any of the above.

[0225] The communications system 100 may also include a base station 114a and a base station 114b. The base station 114a may be configured to receive at least one of the WTRUs 102a, 102b, and 102c. It interfaces wirelessly with the core network 106 / 107 / 109 and the one or more communication networks, such as a network 110, and / or other networks 112. Any type of device configured to facilitate access to a communications network. The base station 114b may include remote radio heads (RRHs) 118a, 118b, and TRPs ( Transmitting and receiving points) 119a, 119b and / or RSU (Roadside Unit) 1 20a, 120b and / or 20c. The network consists of the core network 106 / 107 / 109, the Internet 110, and other networks. Network 112 and / or V2X Server (or ProSe Function and Server) 1 configured to facilitate access to one or more communications networks, such as The RRHs 118a, 118b may be any type of device. c, and a core network 106 / 107 / 109, the Internet 110, and / or other networks 112 Any configured to facilitate access to any one or more communications networks The TRPs 119a and 119b may be of the same type as the WTRU 102d. and wirelessly interfaces with at least one of the core networks 106 / 107. 1 such as / 109, the Internet 110, and / or other networks 112 Any type configured to facilitate access to one or more communications networks The RSUs 120a and 120b may be WTRUs 102e or 10 2f and wirelessly interfaces with at least one of the core networks 106. / 107 / 109, the Internet 110, other networks 112 and / or One or more communication servers, such as a V2X server (or ProSe function and server) 113 Any type of device configured to facilitate access to a network As an example, the base stations 114a and 114b may be base transceiver stations. r Station:BTS), Node-B, eNode B, Home Node B, Home e Node B, Site Controller, Access Point (AP), Wireless The base stations 114a and 114b may each be depicted as a single element. Although shown, the base stations 114a, 114b may be any number of interconnected base stations and / or It will be appreciated that the network element may also include a network element.

[0226] The base station 114a may be part of the RAN 103 / 104 / 105. AN also includes a Base Station Controller (BSC), a wireless network other nodes such as Radio Network Controller (RNC) and relay nodes. Base station 114b may also include base stations and / or network elements (not shown). , RAN 103b / 104b / 105b, which may also be part of Base Station Controller (BSC), Radio Network Controller (RNC), Relay Node It may also include other base stations and / or network elements (not shown), such as Station 114a transmits radio signals within a particular geographic area (not shown), sometimes called a cell. The base station 114b may be configured to transmit and / or receive signals. Transmitting wired and / or wireless signals within a specific geographic area (not shown) that may be exposed and / or may be configured to receive. Cells may be further divided into cell sectors. For example, the cell associated with base station 114a may be divided into three sectors. Thus, in one embodiment, the base station 114a may, for example, In one embodiment, the base station 114 may include three transceivers, one for each sector. a) is used when Multiple-Input Multiple Output (MIMO) technology is adopted. Therefore, multiple transceivers may be used per sector of a cell.

[0227] The base station 114a may be connected to any suitable wireless communication link (e.g., radio frequency :RF), microwave, infrared (IR), ultraviolet (UV), air interface 115 / 116 / , which may be optical, centimeter wave, millimeter wave, etc. 117 to communicate with one or more of the WTRUs 102a, 102b, 102c. The air interfaces 115 / 116 / 117 may be any suitable wireless access point. The information may be established using the RAT.

[0228] The base station 114b may be connected via any suitable wired (e.g., cable, fiber optic, etc.) or Wireless communication links (e.g., radio frequency (RF), microwave, infrared (IR), ultraviolet (UV) ), visible light, centimeter-wave, millimeter-wave, etc.) RRH118a, 118b, TRP119a, 1 through 115b / 116b / 117b 19b and / or one or more of the RSUs 120a, 120b. The air interfaces 115b / 116b / 117b may be implemented using any suitable radio access technology. This may be established using the RAT technique.

[0229] RRH118a, 118b, TRP119a, 119b, and / or RSU120a , 120b may be any suitable wireless communication link (e.g., radio frequency (RF), microwave, infrared, infrared (IR), ultraviolet (UV), visible light, centimeter waves, millimeter waves, etc. WTRUs 102c, 102d, through interfaces 115c / 116c / 117c 102e, 102f. The stations 115c / 116c / 117c may use any suitable radio access technology (RAT). may be established.

[0230] WTRUs 102a, 102b, 102c, 102d, 102e, 102f and / or The 102g may be implemented using any suitable wireless communication link (e.g., radio frequency (RF), microwave, infrared, infrared (IR), ultraviolet (UV), visible light, centimeter waves, millimeter waves, etc. They communicate with each other through interfaces 115d / 116d / 117d (not shown in the figure). The air interface 115d / 116d / 117d may be any suitable air interface. It may be established using a Linear Access Technology (RAT).

[0231] More particularly, as noted above, communication system 100 is a multiple access system. and may be one of CDMA, TDMA, FDMA, OFDMA, SC-FDMA, etc. Alternatively, multiple channel access schemes may be employed. For example, RAN103 / 10 The base station 114a and the WTRUs 102a, 102b, and 102c in 4 / 105, or RRH118a, 118b, and TRP119a in RAN103b / 104b / 105b; 119b and RSU120a, 120b and WTRU102c, 102d, 102e, 1 02f is a Universal Mobile Telecommunication System (UMTS) s System:UMTS), Universal Terrestrial Radio Access (UTRA) Wireless technologies such as UTRA may be implemented, thereby MA:WCDMA) using air interface 115 / 116 / 117 or 11 WCDMA is a high-speed packet High-Speed Packet Access (HSPA) and / or evolved HSPA HSPA may include communication protocols such as HSPA+ (High Speed HSPA). Downlink Packet Access (HSDPA) and and / or High-Speed Uplink Packet Access HSUPA).

[0232] In one embodiment, the base station 114a and the WTRUs 102a, 102b, and 102c also RRH118a, 118b, and TRP119 in RAN103b / 104b / 105b a, 119b and / or RSUs 120a, 120b and WTRUs 102c, 102d is Evolved UMTS Terrestrial Radio Access (EUMTS Terrestrial Radio Access) may implement radio technologies such as E-UTRA, thereby enabling Long Term Evolution (LTE) Long Term Evolution (LTE) and / or LTE-Advanced anced:LTE-A) using air interface 115 / 116 / 117 or 115c / 116c / 117c can be established respectively. Interfaces 115 / 116 / 117 may implement 3GPP NR technology. and LTE-A technology, which includes LTE D2D and V2X technologies (such as sidelink communications). 3GPP NR technology may include sidelink communication and It may include NR V2X technologies and interfaces, such as:

[0233] In one embodiment, a base station 114a in the RAN 103 / 104 / 105 and a WTRU 10 2a, 102b and 102c, or in RAN 103b / 104b / 105b RRH118a and 118b, TRP119a and 119b, and / or RSU1 20a and 120b and WTRUs 102c, 102d, 102e, and 102f are IEEE 802.16 (e.g., Worldwide Interoperability for Multimedia Worldwide Interoperability For Microwave Access (WMIC) iMAX)), CDMA2000, CDMA2000 1X, CDMA2000 EV- DO, Interim Standard 2000 (IS-2000), Interim Standard 95 (IS-95), Interim Standard 856 (IS-856), Global System for Mobile Communications (Global System For Mobile Communications: GSM (registered trademark)), GSM evolution Enhanced Data Rates For GSM Evolution (EDGE), GS Wireless technologies such as M EDGE (GERAN) may also be implemented.

[0234] The base station 114c in FIG. 22A includes a wireless router, a home Node B, a home eNode B, and a It may be a B, or an access point, for example, a business establishment, a home, a vehicle, a camp Any suitable location may be used to facilitate wireless connectivity within a local area, such as a path or location. In one embodiment, the base station 114c and the WTRU 102e may utilize a suitable RAT. Implementing wireless technologies such as IEEE802.11, wireless local area networks ( In one embodiment, a base station may establish a wireless local area network (WLAN). Station 114c and WTRU 102d may implement a wireless technology such as IEEE 802.15 to communicate with each other. Wireless Personal Area Network (WPAN) In yet another embodiment, the base station 114c and the WTRU 102e may establish Cellular-based RATs (e.g., WCDMA, CDMA2000, GSM, LTE, L A picocell or femtocell may be established using a TE-A or other TE-A based system. As shown, base station 114b may have a direct connection to the Internet 110. Therefore, the base station 114c can communicate with the internet via the core network 106 / 107 / 109. In some cases, access to the Internet 110 is not required.

[0235] RAN103 / 104 / 105 and / or RAN103b / 104b / 105b , may communicate with the core network 106 / 107 / 109, The network may include voice, data, applications, and / or voice over internet. Protocol (Voice Over Internet Protocol: VoIP) service on WTRU102 a, 102b, 102c and 102d. For example, the core network 106 / 1 07 / 109 includes call control, billing services, mobile location-based services, and prepaid Provides calling, internet connectivity, video streaming, etc. and / or may perform high-level security functions such as user authentication.

[0236] Although not shown in FIG. 22A, RAN 103 / 104 / 105 and / or RA N103b / 104b / 105b and / or Core Network 106 / 107 / 10 9 is RAN103 / 104 / 105 and / or RAN103b / 104b / 105 b) may communicate directly or indirectly with other RANs employing the same or different RATs. For example, it will be understood that RAN10, which may utilize E-UTRA radio technology, 3 / 104 / 105 and / or RAN103b / 104b / 105b In addition, the core network 106 / 107 / 109 also adopts GSM wireless technology. It may also communicate with another RAN (not shown).

[0237] The core network 106 / 107 / 109 also includes the WTRUs 102a, 102b, 10 2c, 102d, and 102e are connected to the PSTN 108, the Internet 110, and / or It may also function as a gateway to access other networks 112. PSTN108 is a basic telephone service (Plain Old Telephone Service: POTS). The Internet 110 may include a circuit-switched telephone network that provides transmission control. Protocol (Transmission Control Protocol: TCP), User Datagram Protocol User Datagram Protocol (UDP), and TCP / IP Internet Protocol Common communications such as Internet Protocol (IP) in the Corssuite A global network of interconnected computer networks and devices that use protocols Network 112 may include a global system operated by other service providers. This may include wired or wireless communication networks owned and / or operated by For example, the network 112 may include the RANs 103 / 104 / 105 and / or the RAN 103. b / 104b / 105b may employ the same RAT or a different RAT. may include another core network that is connected to multiple RANs.

[0238] Within the communication system 100, WTRUs 102a, 102b, 102c, 102d, 102e, 102f, 102g, 102h, 102m ... 2b, 102c, and 102d, e.g., WTRUs 102a, 102b , 102c, 102d and 102e are connected to different wireless networks through different wireless links. For example, the WTRU 10 shown in FIG. 22A may include multiple transceivers communicating with the network. 2e includes a base station 114a, which may employ cellular-based wireless technology, and an IEE may be configured to communicate with base station 114c, which may employ E802 wireless technology. stomach.

[0239] FIG. 22B illustrates a wireless network according to an embodiment illustrated herein, such as a WTRU 102. 22B is a block diagram of an example apparatus or device configured for wired communication. As shown, the exemplary WTRU 102 includes a processor 118, a transceiver 120, a transmit / receive request element 122, speaker / microphone 124, keypad 126, display / touch panel cad / indicator 128, non-removable memory 130, removable memory 132, Power supply 134, Global Positioning System (GPS) chipset The WTRU 102 may include a wireless LAN controller 136, and other peripherals 138. It is understood that the present invention may include any subcombination of the above elements while remaining consistent. The embodiments also include, but are not limited to, a base transceiver station (BTS), a Nod eB, Site Controller, Access Point (AP), Home Node-B, Advanced Home Node-B (Evolved Home Node-B: eNodeB), home evolved Node -B (Home Evolved Node-B: HeNB), a home evolved Node-B gateway; and base stations 114a and 114b, such as proxy nodes, and / or base stations 11 The nodes, which may refer to 114a and 114b, are depicted in FIG. 22B and described herein. It is contemplated that the present invention may include some or all of the elements set forth.

[0240] The processor 118 may be a general-purpose processor, a special-purpose processor, a conventional processor, a digital Digital Signal Processor (DSP), multiple microprocessors one or more microprocessors associated with the DSP cores, a controller, Microcontrollers, Application Specific Integrated Circuits ASICs, Field Programmable Gate Arrays FPGA (Field Programmable Gate Array) circuits, any other type of integrated circuit (IC) C), a state machine, etc. The processor 118 may be a signal coding, a data processing processing, power control, input / output processing, and / or the WTRU 102 operating within the wireless environment. The processor 118 may also implement any other functionality that allows the transmit / receive 22B, the transceiver 120 may be coupled to the element 122. Although the processor 118 and the transceiver 120 are shown as separate components, The processor 118 and the transceiver 120 are integrated together in an electronic package or chip. It will be understood that this is also acceptable.

[0241] The transmit / receive element 122 communicates with the base station through the air interface 115 / 116 / 117. to transmit signals to or receive signals from a station (e.g., base station 114a) For example, in one embodiment, the transmit / receive element 122 may be configured to transmit an RF signal It may be an antenna configured to transmit and / or receive. The transmit / receive element 122 may transmit and / or receive, for example, IR, UV, or visible light signals. may be an emitter / detector configured to receive. The transmit / receive element 122 is configured to transmit and receive both RF and optical signals. The transmit / receive element 122 may transmit and / or receive any combination of wireless signals. It will be appreciated that the device may be configured to receive

[0242] In addition, the transmit / receive element 122, although depicted in FIG. 22B as a single element, may be The TRU 102 may include any number of transmit / receive elements 122. More specifically, The TRU 102 may employ MIMO technology. The U102 transmits and receives radio signals through the air interface 115 / 116 / 117. The transmitter / receiver includes two or more transmit / receive elements 122 (e.g., multiple antennas) for transmitting and receiving signals. That's fine too.

[0243] The transceiver 120 modulates the signal to be transmitted by the transmit / receive element 122. , and may be configured to demodulate signals received by the transmit / receive element 122. As noted above, the WTRU 102 may have multi-mode capabilities. The transceiver 120 may be configured to allow the WTRU 102 to support multiple RATs, such as UTRA and IEEE802.11a. It may contain multiple transceivers to enable communication via 02.11.

[0244] The processor 118 of the WTRU 102 controls the speaker / microphone 124, the keypad 1 26, and / or a display / touchpad / indicator 128 (e.g., LCD Liquid Crystal Display (LCD) display device or organic light-emitting diode connected to an Organic Light-Emitting Diode (OLED) display device The processor 118 may also receive user input data from the The data is fed to a speaker / microphone 124, a keypad 126, and / or a display / The touchpad / indicator 128 may also output the touchpad / indicator 128. In addition, the processor 118 may Any type of removable memory 130 and / or removable memory 132 The device may access information from and store data in suitable memory. The available memory 130 may be a random-access memory (RAM). ), Read-Only Memory (ROM), hard disk, or any Other types of memory storage devices may also be included. , Subscriber Identity Module (SIM) card, memory stick Examples of such memory cards include a Secure Digital (SD) memory card and a Secure Digital (SD) memory card. In one embodiment, the processor 118 is a server or a home computer (not shown). access information in memory that is not physically located on the WTRU 102, such as in Data may be stored here.

[0245] The processor 118 may derive power from a power supply 134 and other components within the WTRU 102. The power supply 13 may be configured to distribute and / or control power to the components. 4 may be any suitable device for powering the WTRU 102. For example, power supply 13 4 may include one or more dry batteries, solar cells, fuel cells, etc.

[0246] The processor 118 also generates location information (e.g., longitude, and latitude) to a GPS chipset 136. In addition to or instead of information from the GPS chipset 136, the WTR The U 102 communicates with a base station (e.g., a receive location information from a base station 114a, 114b) and / or from two or more nearby base stations; Its location may be determined based on the timing of signals received from the ground station. The RU 102 may obtain location information by any suitable location determination method while remaining consistent with an embodiment. It will be appreciated that the

[0247] The processor 118 may further include additional features, functionality, and / or wired or wireless connections. One or more software and / or hardware modules that provide the The peripherals 138 may also be connected to other peripherals 138, which may include other modules. 8 includes various sensors such as accelerometers, biometric (e.g., fingerprint) sensors, e- ampus, satellite transceiver, digital camera (for photos or videos), universal serial a Universal Serial Bus (USB) port or other interconnection interface; Vibration devices, TV receivers, hands-free headsets, Bluetooth (registered trademark) module, Frequency Modulated (FM) radio unit, digital Music players, media players, video game player modules, internet browsers It may also include a browser.

[0248] The WTRU102 is ideal for sensors, consumer electronics products, smart watches, or smart clothing. Wearable devices, medical or e-health devices, robots, industrial equipment, other apparatus or device, such as a motor vehicle, car, truck, train, or airplane The WTRU 102 may be embodied in one of the peripheral devices 138. and one or more interconnection interfaces, such as an interconnection interface other components, modules, or systems of such equipment or devices. It may be connected to the stem.

[0249] FIG. 22C illustrates a system of a RAN 103 and a core network 106 according to one embodiment. As mentioned above, the RAN 103 employs UTRA radio technology to The WTRUs 102a, 102b, and 102c may communicate with each other through the interface 115. The RAN 103 may also communicate with a core network 106. As shown in FIG. The RAN 103 then communicates with the WTRUs 102a, 102b over the air interface 115. 102c, and 102d may each include one or more transceivers for communicating with Node-B 140 may include Node-B 140a, 140b, and 140c. Each of 140a, 140b, and 140c is associated with a particular cell (not shown) within the RAN 103. The RAN 103 may also include RNCs 142a, 142b. N103 may include any number of Node-Bs and RNCs while remaining consistent with the embodiment. It will be understood that there is a consensus.

[0250] As shown in FIG. 22C, Node-Bs 140a and 140b communicate with an RNC 142a. In addition, Node-B 140c may communicate with RNC 142b. The Node-Bs 140a, 140b, and 140c communicate with each other via the Iub interface. The RNCs 142a, 142b may communicate with the corresponding RNCs 142a, 142b. The RNCs 142a and 142b may communicate with each other via the r interface. Each of them controls the respective Node-Bs 140a, 140b, and 140c connected to it. In addition, each of the RNCs 142a and 142b may be configured to Group power control, load control, admission control, packet scheduling, handover control, perform or support other functions such as cross-diversity, security functions, and data encryption The device may be configured to support

[0251] The core network 106 shown in FIG. 22C includes a media gateway. Mobile Switching Center (MSC) 146 , Serving GPRS Support Node (SGSN) 14 8, and / or Gateway GPRS Support Node Each of the above elements may include a core network 1 Although represented as part of 06, any one of these elements may be part of the core network. may be owned and / or operated by entities other than the Network Operator Please understand this.

[0252] RNC 142a in RAN 103 communicates with the core network via the IuCS interface. The MSC 146 may be connected to the MGW 144. The MSC 146 and the MGW 144 may c, providing access to a circuit-switched network such as the PSTN 108; 2b, 102c and conventional terrestrial communication devices.

[0253] RNC 142a in RAN 103 also communicates with the core network via the IuPS interface. The SGSN 148 may be connected to the GGSN 1 50. The SGSN 148 and the GGSN 150 may be connected to the WTRU 102a, 02b, 102c provide access to packet-switched networks such as the Internet 110. provides a secure connection between the WTRUs 102a, 102b, and 102c and IP-enabled devices. It may be promoted.

[0254] As noted above, the core network 106 may also be owned by other service providers. and / or other wired or wireless networks operated The network 112 may be connected to the network 112.

[0255] FIG. 22D illustrates a system of a RAN 104 and a core network 107 according to one embodiment. As described above, the RAN 104 employs E-UTRA radio technology and The WTRUs may communicate with the WTRUs 102a, 102b, and 102c through an interface 116. The RAN 104 may also be in communication with a core network 107 .

[0256] The RAN 104 may include eNode-Bs 160a, 160b, and 160c. Note that the RAN 104 may include any number of eNodeBs while remaining consistent with an embodiment. It will be understood that the eNode-Bs 160a, 160b, and 160c are to communicate with the WTRUs 102a, 102b, and 102c through the air interface 116. In one embodiment, the eNode-B 160a, 160b, and 160c may implement MIMO technology. The de-B 160a, for example, transmits wireless signals to the WTRU 102a and Multiple antennas may be used to receive radio signals from 2a.

[0257] Each of the eNode-Bs 160a, 160b, and 160c serves a particular cell (as shown in the figure). and radio resource management decisions, handover decisions, uplink The present invention is configured to handle scheduling of users in the downlink and / or high speed networks. As shown in FIG. 22D, the eNode-Bs 160a, 160b, and 160c , may communicate with each other through the X2 interface.

[0258] The core network 107 shown in FIG. 22D includes a mobility management gateway (Mobili Management Gateway (MME) 162, Serving Gateway 164, and Packet Data Network (PDN) Gateway 166 Each of the above elements may be represented as part of the core network 107. However, any one of these elements may be owned by an entity other than the core network operator. It is understood that the information contained herein may be owned and / or operated by entities other than the Company.

[0259] The MME 162 communicates with the eNode-B 1 in the RAN 104 via the S1 interface. 60a, 160b and 160c, and function as control nodes. For example, the MME 162 may bearer activation / deactivation; WTRUs 102a, 102b; 102c is responsible for selecting a specific Serving Gateway during the initial connection. The MME 162 may also communicate with the RAN 104 and other wireless networks such as GSM or WCDMA. Control plane functions for switching between other RANs (not shown) that employ line technology may be provided.

[0260] The serving gateway 164 communicates with the RAN 104 via the S1 interface. The service may be connected to each of the eNode-Bs 160a, 160b, and 160c. The gateway 164 generally provides a Routes and forwards user data packets from U102a, 102b, and 102c The serving gateway 164 may also handle user requests during inter-eNodeB handover. The downlink data is sent to the WTRUs 102a, 102b, and 102c. triggering paging when the WTRUs 102a, 102b, 102c are available The spooler may perform other functions such as managing and storing the context of the spooler.

[0261] The serving gateway 164 also notifies the WTRUs 102a, 102b, and 102c provides access to packet-switched networks such as the Internet 110, and PDs that may facilitate communication between 02a, 102b, 102c and IP-enabled devices N gateway 166.

[0262] The core network 107 may facilitate communication with other networks. The network 107 provides the WTRUs 102a, 102b, and 102c with a PSTN 108 and other which provides access to the circuit-switched network, and For example, the core network 107 may facilitate communications between terrestrial communication devices. Acting as an interface between the core network 107 and the PSTN 108, IP Gateway (e.g., IP Multimedia Subsystem) In addition, the core network 1 may include or communicate with a (mIMS) server. 07 provides the WTRUs 102a, 102b, and 102c with the network, which may include other wired or wireless networks that are owned and / or operated by The network may provide access to the network 112.

[0263] FIG. 22E illustrates a system of a RAN 105 and a core network 109 according to one embodiment. The RAN 105 uses IEEE802.16 wireless technology and WTRUs 102a, 102b, and 102c communicate with each other through an access point 117. It may be an Access Service Network (ASN). As discussed above, the different functional elements of the WTRUs 102a, 102b, 102c, and the RAN 105 The communication link between the entity and the core network 109 may be defined as a reference point. stomach.

[0264] As shown in FIG. 22E, the RAN 105 includes base stations 180a, 180b, and 180c. RAN 105 may include an SN gateway 182, consistent with an embodiment. It will be understood that the number of base stations and ASN gateways may be any number. Each of the base stations 180a, 180b, and 180c serves a particular cell within the RAN 105. WTRUs 102a, 102b, and 102c may be associated with the WTRUs 102a, 102b through the air interface 117. b, 102c. In this case, the base stations 180a, 180b, and 180c may implement MIMO technology. Thus, base station 180a, for example, transmits wireless signals to WTRU 102a, and WTRU Multiple antennas may be used to receive radio signals from the base station 102a. 180a, 180b, and 180c also include handoff triggers, tunnel establishment, and wireless resource Mobility management functions such as management, traffic classification, and Quality of Service (QoS) policy enforcement The ASN gateway 182 may act as a traffic aggregation point. It also handles paging, caching of subscriber profiles, routing to the core network 109, etc. They may also take on roles such as coaching.

[0265] Air interface between the WTRUs 102a, 102b, 102c and the RAN 105 117 may be defined as an R1 reference point that implements the IEEE 802.16 specification. Thus, each of the WTRUs 102a, 102b, and 102c has a logical interface (not shown) may be established with the core network 109. The logical interface between 102c and the core network 109 provides authentication, authorization, IP May be used for host configuration management and / or mobility management. R2 Reference It may be defined as a point.

[0266] The communication link between each of the base stations 180a, 180b, and 180c is As an R8 reference point containing protocols to facilitate WTRU handover and transfer of data The base stations 180a, 180b, and 180c and the ASN gateway 182 may be defined as The communication link between the WTRU 102a and the WTRU 102b may be defined as the R6 reference point. , 102b, 102c based on the mobility events associated with each of the The QoS may include protocols that facilitate security management.

[0267] As shown in FIG. 22E, the RAN 105 may be connected to a core network 109. The communication link between the RAN 105 and the core network 109 is used for, for example, data transfer and R3 reference point, which includes protocols facilitating Routing and mobility management capabilities. Network 109 is a Mobile IP Home Agent :MIP-HA) 184, Authentication, Authorization, Accounting The above elements may include an Authentication, Authorization and Accounting (AAA) server 186, and a gateway 188. Each of these elements is represented as part of the core network 109. Any one of which is owned and operated by an entity other than the core network operator It will be understood that the information may be subject to change without notice and / or manipulation.

[0268] The MIP-HA may be responsible for IP address management and may also be responsible for the WTRU 102a, 1 02b, and 102c are routed between different ASNs and / or different core networks. The MIP-HA 184 may enable the WTRUs 102a, 102b to b, 102c to provide access to packet-switched networks such as the Internet 110 and facilitates communication between the WTRUs 102a, 102b, and 102c and IP-enabled devices. The AAA server 186 is responsible for supporting user authentication and user services. The gateway 188 may handle interworking with other networks. For example, the gateway 188 may facilitate the WTRUs 102a, 102b, 102c, and 102d. c, providing access to a circuit-switched network such as the PSTN 108, and 2a, 102b, 102c and conventional terrestrial communication devices. In addition, the gateway 188 may provide other services to the WTRUs 102a, 102b, and 102c. including other wired or wireless networks owned and / or operated by the provider. The network 112 may provide access to the network 112 that may include the network.

[0269] Although not shown in FIG. 22E, the RAN 105 may be connected to other ASNs, or It is understood that the core network 109 may be connected to other core networks. The communication link between the RAN 105 and other ASNs will be A protocol for coordinating mobility of WTRUs 102a, 102b, 102c to and from the SN The R4 reference point may be defined as the R4 reference point, which may include the core network 109 and other The communication link between the home core network and the visited core network is R5 reference point, which may include protocols that facilitate interworking between may be defined.

[0270] The corene described herein and illustrated in Figures 22A, 22C, 22D, and 22E Network entities may be required to comply with certain existing 3GPP specifications for those entities. Although they are identified by the names given, in the future, their entities and functions may may be identified by other names and certain entities or functions may be It will be incorporated into future specifications published by 3GPP, including the upcoming 3GPP NR specifications. It should be understood that these may be combined. 22D, and 22E, the specific network entities and The features are provided by way of example only, and the subject matter disclosed and claimed herein does not necessarily represent the presently defined to any similar communications system, whether or not specified in the present or future. It should be understood that the present invention may be embodied or implemented in various ways.

[0271] FIG. 22F shows the RAN 103 / 104 / 105, the core network 106 / 107 / 10 9, PSTN 108, Internet 110, and certain other networks within other networks 112. 22A, 22C, 22D and 22E, such as nodes or functional entities. An exemplary computer in which one or more devices of a communication network may be embodied is shown. 1 is a block diagram of a computing system 90. may include computers or servers, and may be in the form of software (such software may be recorded wherever or by whatever means it is stored or accessed) Such computer readable instructions may be primarily controlled by the The instructions execute within processor 91 to operate computing system 90. The processor 91 may be a general-purpose processor, a special-purpose processor, or a conventional processor. Related to digital signal processors (DSPs), multiple microprocessors, and DSP cores One or more attached microprocessors, controllers, or microcontrollers , Application Specific Integrated Circuits (ASIC), Field Programmable Gate Arrays (FPG) A) It may be a circuit, any other type of integrated circuit (IC), a state machine, etc. The processor 91 performs signal coding, data processing, power control, input / output processing, and / or The computing system 90 may be configured to operate within a communications network. The coprocessor 81 may be distinct from the main processor 91. A different, optional processor may perform additional functions or may be used in conjunction with processor 91. The processor 91 and / or co-processor 81 may support the Data related to the described methods and apparatus may be received, generated, and processed.

[0272] In operation, the processor 91 fetches, decodes, and executes instructions to perform computing The information is transmitted to other resources via the system bus 80, which is the main data transfer path of the operating system. Such a system bus transfers data to and from other resources. Connects components within the operating system 90 and defines a medium for data exchange. The system bus 80 typically includes a data line for transmitting data, an address line, and Address lines for sending data, and interrupts and operating the system bus An example of such a system bus 80 is a PCI (Peripheral Computer Interface) Component Interconnect) bus.

[0273] The memories coupled to the system bus 80 include random access memory (RAM) 82 and and read-only memory (ROM) 93. Such memory is used for storing and reading information. ROM 93 generally cannot be easily modified. The data stored in RAM 82 may be used by processor 91 or other may be read or changed by other hardware devices. Access to the ROM 93 may be controlled by a memory controller 92. The memory controller 92 converts the virtual address into a physical address when an instruction is executed. The memory controller 92 may also provide address translation functionality. Isolating processes within the system and isolating system processes from user processes Therefore, a program that runs in the first mode may Access only memory that is mapped by its own process virtual address space. Unless memory sharing between processes is configured, the virtual address of another process may be It is not possible to access memory in the address space.

[0274] In addition, the computing system 90 may transmit data from the processor 91 to a printer 94, a printer 95, a printer 96, a printer 97, a printer 98, a printer 99, a printer 100, a printer 101, a printer 102, a printer 103, a printer 104, a printer 105, a printer 106, a printer 107, a printer 108, a printer 109, a printer communicates commands to peripherals such as keyboard 84, mouse 95 and disk drive 85 It may also include a peripheral controller 83 that takes on the role of

[0275] The display 86 controlled by the display controller 96 is is used to display the visual output generated by the display system 90. Visual output includes text, graphics, animated graphics, and video. Visual output is a graphical user interface (GUI). The display 86 may be a CRT-based video display. Play, LCD-based flat panel displays, gas plasma-based flat panel displays It may be implemented as a panel display or touch panel. The controller 96 generates the voltages required to generate the video signal that is sent to the display 86. Contains child components.

[0276] Furthermore, the computing system 90 is and 22E RAN 103 / 104 / 105, Core Network 106 / 107 / 109, an external communications network such as the PSTN 108, the Internet 110 or other networks 112 It is used to connect the computing system 90 to the network, The routing system 90 communicates with other nodes or functional entities of those networks. It may include communication circuitry, such as a network adapter 97, that allows communication. The communication circuitry, alone or in combination with the processor 91, may be any of the components described herein. performing the transmitting and receiving steps of some device, node, or functional entity may be used for

[0277] FIG. 22G is a block diagram of a system in which the methods and apparatus described and claimed herein are embodied. 1 illustrates an embodiment of an exemplary communication system in which 11 is a radio transmit / receive unit (WTRU) A, B, C, D, E, F, base station, V2X Although the disclosed embodiments may include any number of servers, and RSUs A and B. The WTRU, base station, network, and / or network element may be It will be understood that one or some or all of WTRUs A, B, C, D, and E may ,outside the network range (e.g., outside the cell coverage boundary,shown by the dashed line in the figure). Among WTRUs A, B, and C in a V2X group, WTRU A is in the group. The WTRU B and C are group members. RUs A, B, C, D, E and F are connected to the Uu interface or the sidelink (P C5) Communication may occur through an interface.

[0278] Any or all of the devices, systems, methods and processes described herein The program may be implemented as computer-executable instructions (e.g., programs) stored on a computer-readable storage medium. The instructions may be embodied in the form of a program code, which is transmitted to the processor 118 or 9. When executed by a processor, such as a processor 1, the processor is configured to implement the system described herein. It is understood that the systems, methods, and processes are performed and / or implemented. In any case, any step, operation, or function described herein may be implemented by any such computer. Implemented in the form of computer-executable instructions for wireless and / or wired network communications The method may be executed by a processor in a configured device or a computing system. A computer-readable storage medium is any non-transitory (e.g., tangible or physical) medium for storing information. Volatile and non-volatile media, removable and non-transitory, implemented in any method or technology Such computer-readable storage media, including removable media, do not include signals. The computer-readable storage medium may include RAM, ROM, EEPROM, flash memory, etc. Memory or other memory technology, CD-ROM, Digital Versatile Disk DVD or other optical disk storage devices, magnetic cassettes, magnetic tapes, magnetic Disk storage device or other magnetic storage device or devices for storing desired information Any software that may be used in This includes, but is not limited to, other tangible or physical media.

Claims

1. An apparatus comprising a processor, a memory, and a communication circuit, said apparatus comprising: The device is connected to a network via a line, and the device further includes a computer computer-executable instructions, the computer-executable instructions being executed by the processor of the device When executed by the server, the device a sidelink to a network node connected to the device via the network; transmitting one or more aiding parameters associated with the communication, The plurality of support parameters may be one or more Quality of Service (QoS). ce:QoS) parameters; In response to the transmitted assistance information, the network node receiving one or more configuration parameters associated with said one or more The configuration parameters may include logical channel configuration, QoS flow to sidelink radio bearers, etc. and mapping of one of a plurality of sidelink logical channels of the device. a mapping of the sidelink radio bearers to a drink logical channel; and receiving a sidelink resource grant; Based on the logical channel configuration, one or more of the plurality of sidelink logical channels to be selecting a logical channel; data associated with the selected one or more sidelink logical channels Medium Access Control (MAC) protocol data unit generating a Protocol Data Unit (PDU); The generated MAC PDU is transmitted using the received sidelink resource grant. and An apparatus for performing an operation including:

2. The one or more configuration parameters may be logical channel prioritization. The apparatus of claim 1 , further comprising a Line Prioritization (LCP) control parameter.

3. 2. The method of claim 1, wherein the network node comprises a gNB, a UE, or a relay node. Device.

4. selecting the one or more sidelink logical channels comprises: The serving cell of the sidelink resource grant is the selected one or more the cell is an allowed serving cell for a number of sidelink logical channels; The carrier frequency of the sidelink resource grant is the selected one or more the carrier frequencies are allowed for a number of sidelink logical channels; Subcarrier spacing associated with the sidelink resource grant Spacing (SCS) is the allowed spacing for the selected sidelink logical channel or channels. The subcarrier spacing is adequate, and The delay associated with the sidelink resource grant may be determined by the selected one or more is the tolerable delay of multiple sidelink logical channels; a sidelink shared channel (SCH) associated with said sidelink resource grant; The length of the selected one or more sub-channels is determined by the time length of the selected sub-channel. The allowable SL-SCH time length of the idle link logical channel; The SL-SCH-K2 time length of the sidelink resource grant is the allowed SL-SCH-K2 duration of one or more sidelink logical channels; 、 Radio Access Technology of the sidelink resource grant : RAT) version is the allowed RAT version of the sidelink resource grant. There is something, a Bandwidth Part associated with said sidelink resource grant : BWP) is the allowed BP of the logical channel; The transmission profile of the sidelink resource grant is one of the selected one or an allowed transmission profile for a plurality of sidelink logical channels; The transmission mode of the sidelink resource grant is an allowed transmission mode of the sidelink logical channel; The transmission range of the sidelink resource grant is determined by the selected one or more sub-sidelink resources. the allowable transmission range of the Idlink logical channel; The resource allocation mode of the sidelink resource grant is selected from the selected one. or an allowed resource allocation mode for multiple sidelink logical channels; The apparatus of claim 1 , further based on at least one of:

5. The one or more QoS parameters are represented by a PC5 flow identifier (PC5 QoS Flow Id entifier (PFI), PC5 QoS Profile Identifier (PC5 QoS Identifier (PQ I), transmission range for PFI or PQI, transmission mode for PFI or PQI; or at least one of one or more QoS requirements, wherein said one Alternatively, multiple QoS requirements may include a priority requirement, a reliability requirement, a delay requirement, a range requirement, a transmission mode requirement, etc. requirements, guaranteed flow bit rate, maximum flow bit rate, or resource type. and the resource type includes at least one of Guaranteed Bit Rate (GUARANTEED) GBR), delay-critical GBR, or non-GBR, The device of claim 1 comprising one.

6. The one or more QoS parameters may be associated with a service or service level configured on the device. The apparatus of claim 5, further comprising supported QoS parameters per drink radio bearer.

7. The one or more configuration parameters are a side link logical channel (SL-LCH) Priority, SL-LCH prioritized bit rate, SL-LCH bucket size Length, Sidelink Shared Channel (SL-SCH) list of allowed carrier frequencies, allowed SC SL-LCH list of S, SL-LCH maximum allowable delay, SL-LCH maximum allowable SL-SC H time length, SL-LCH allowable maximum SL-SCH K2 time length, allowable RAT version S L-LCH list, SL-LCH list of allowed bandwidth parts (BWP), allowed transmission profile SL-LCH list of the file, SL-LCH allowable transmission mode, SL-LCH transmission range, or or SL-LCH list of allowed transmission resource allocation modes. The apparatus of claim 1 .

8. The received sidelink resource grant may be a scheduled resource grant.

10. The device of claim 1, wherein the device is a

9. The received sidelink resource grant is a configured resource grant.

10. The apparatus of claim 1 .

10. The received sidelink resource grant is then A (pre-)configured resource grant pool from which the device autonomously selects grants.

2. The device of claim 1 .

11. The selecting of the one or more sidelink logical channels may include selecting one or more sidelink logical channels for a plurality of transmission destinations. The apparatus of claim 4 , further based on selecting one or more of the transmission destinations.

12. The transmission destination is the selected one or more sides that have data available for transmission. The destination sidelink logical channel with the highest priority is selected from the sidelink logical channels. The apparatus of claim 4, wherein the first and second inputs are selected as the first inputs.

13. The transmission destination is the logical channel with the highest transmission mode priority and data available for transmission.

5. The device of claim 4, wherein the device is selected as a transmission destination having a channel.

14. The computer-executable instructions stored in the memory are further included, The executable instructions, when executed by the processor of the device, cause the device to: one or more transmission modes allowed for the sidelink resource grant; To decide, The apparatus of claim 1 further comprising:

15. determining the one or more transmission modes an indication of the allowed transmission modes associated with the sidelink resource grant; and a physical layer indication; and one or more sidelink radio resources configured on the device; and one or more sidelink resource pools configured in the device; The apparatus of claim 14 , based on at least one of:

16. The computer-executable instructions stored in the memory are further included, The executable instructions, when executed by the processor of the device, cause the device to: determining an allowed transmission range associated with the sidelink resource grant; The apparatus of claim 1 further comprising:

17. Determining the allowable transmission range includes: an indication of allowed transmission modes associated with said sidelink resource grant. And, a physical layer indication; and one or more sidelink radio resources configured on the device; and one or more sidelink resource pools configured in the device; 17. The apparatus of claim 16, wherein the apparatus is based on at least one of:

18. The computer-executable instructions stored in the memory are further included, The executable instructions, when executed by the processor of the device, cause the device to: receiving an uplink resource grant; determining that the uplink grant overlaps in time with the sidelink grant; And, Upon determining that the uplink grant overlaps in time with the sidelink grant, determining a priority of sidelink transmissions relative to uplink transmissions based on the determined priority; The apparatus of claim 1 further comprising:

19. determining the priority of the sidelink transmission relative to the uplink transmission, determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 20. The apparatus of claim 18, further comprising:

20. determining the priority of the sidelink transmission relative to the uplink transmission, The priority of the sidelink transmission relative to a sidelink transmission prioritization threshold is determining whether the sidelink transmission has a higher priority than the uplink transmission; And, determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 20. The apparatus of claim 18, further comprising:

21. Determining the priority of the sidelink transmission relative to the uplink transmission may include: an uplink prioritization threshold indicating that the uplink transmission may be deprioritized; and The sidelink resource grant and the uplink resource grant overlap in time. a subroutine indicating whether the sidelink resource grant has a higher transmission priority when 20. The apparatus of claim 18, further based on a link prioritization threshold.

22. determining the priority of the sidelink transmission relative to the uplink transmission, an uplink prioritization threshold indicating that the uplink transmission may be deprioritized; and, indicates that the sidelink transmission may be given higher priority than the uplink transmission a sidelink prioritization threshold; and determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 20. The apparatus of claim 18, further based on

23. A network node connected to the device via a network is notified of sidelink communications. transmitting one or more associated aiding parameters, The plurality of aiding parameters includes one or more quality of service (QoS) parameters; And, In response to the transmitted assistance information, the network node receiving one or more configuration parameters associated with said one or more The configuration parameters may include logical channel configuration, QoS flow to sidelink radio bearers, etc. and mapping of one of a plurality of sidelink logical channels of the device. a mapping of the sidelink radio bearers to a drink logical channel; and receiving a sidelink resource grant; Based on the logical channel configuration, one or more of the plurality of sidelink logical channels to be selecting a logical channel; data associated with the selected one or more sidelink logical channels generating a media access control (MAC) protocol data unit (PDU) including and, The generated MAC PDU is transmitted using the received sidelink resource grant. and A method comprising:

24. The one or more configuration parameters may be a Logical Channel Prioritization (LCP) control parameter.

24. The method of claim 23, including the parameter

25. 24. The method of claim 23, wherein the network node comprises a gNB, a UE, or a relay node. How to do it.

26. selecting the one or more sidelink logical channels comprises: The serving cell of the sidelink resource grant is the selected one or more the cell is an allowed serving cell for a number of sidelink logical channels; The carrier frequency of the sidelink resource grant is the selected one or more the carrier frequencies are allowed for a number of sidelink logical channels; The subcarrier spacing (SCS) associated with the sidelink resource grant is: an allowed subcarrier spacing for the selected one or more sidelink logical channels; And, The delay associated with the sidelink resource grant may be determined by the selected one or more is the tolerable delay of multiple sidelink logical channels; a sidelink shared channel (SLCH) associated with said sidelink resource grant; - SCH) duration is determined by the allowable duration of the selected sidelink logical channel or channels. The SL-SCH time length; The SL-SCH-K2 time length of the sidelink resource grant is the allowed SL-SCH-K2 duration of one or more sidelink logical channels; 、 The radio access technology (RAT) version of the sidelink resource grant is The RAT version is an allowed version for the sidelink resource grant; and The bandwidth part (BWP) associated with the sidelink resource grant is It is an allowable BP of the logical channel, The transmission profile of the sidelink resource grant is one of the selected one or an allowed transmission profile for a plurality of sidelink logical channels; The transmission mode of the sidelink resource grant is an allowed transmission mode of the sidelink logical channel; The transmission range of the sidelink resource grant is determined by the selected one or more sub-sidelink resources. the allowable transmission range of the Idlink logical channel; The resource allocation mode of the sidelink resource grant is selected from the selected one. or an allowed resource allocation mode for multiple sidelink logical channels; 24. The method of claim 23, further based on at least one of:

27. The one or more QoS parameters may include a PC5 Flow Identifier (PFI), a PC5 QoS Profile Identifier (PQI), transmission range for PFI or PQI, PFI or or PQI, or one or more QoS requirements, wherein the one or more QoS requirements include a priority requirement, a reliability requirement, , delay requirement, range requirement, transmission mode requirement, guaranteed flow bit rate, maximum flow bit rate and at least one of a resource type, , guaranteed bit rate (GBR), delay-critical GBR, or non-GBR.

24. The method of claim 23, including both:

28. The one or more QoS parameters may be associated with a service or service level configured on the device.

27. The method of claim 26, including supported QoS parameters per drink radio bearer.

29. The one or more configuration parameters are a side link logical channel (SL-LCH) Priority, SL-LCH prioritized bit rate, SL-LCH bucket size Length, Sidelink Shared Channel (SL-SCH) list of allowed carrier frequencies, allowed SC SL-LCH list of S, SL-LCH maximum allowable delay, SL-LCH maximum allowable SL-SC H time length, SL-LCH allowable maximum SL-SCH K2 time length, allowable RAT version S L-LCH list, SL-LCH list of allowed bandwidth parts (BWP), allowed transmission profile SL-LCH list of the file, SL-LCH allowable transmission mode, SL-LCH transmission range, or or SL-LCH list of allowed transmission resource allocation modes. The method of claim 23.

30. The received sidelink resource grant may be a scheduled resource grant.

24. The method of claim 23, wherein the

31. The received sidelink resource grant is a configured resource grant.

24. The method of claim 23.

32. The received sidelink resource grant is then A (pre-)configured resource grant pool from which the device autonomously selects grants.

24. The method of claim 23 .

33. The selecting of the one or more sidelink logical channels may include selecting one or more sidelink logical channels for a plurality of transmission destinations.

27. The method of claim 26, further based on selecting one or more of the transmission destinations. 。

34. The transmission destination is the selected one or more sides that have data available for transmission. The destination sidelink logical channel with the highest priority is selected from the sidelink logical channels.

27. The method of claim 26, wherein the first is selected as the first.

35. The transmission destination is the logical channel with the highest transmission mode priority and data available for transmission.

27. The method of claim 26, wherein the selected transmission destination has a channel.

36. The device further includes computer-executable instructions stored in the memory, The computer-executable instructions, when executed by the processor of the device, cause the device to 、 one or more transmission modes allowed for the sidelink resource grant; To decide, 24. The method of claim 23, further comprising:

37. determining the one or more transmission modes an indication of the allowed transmission modes associated with the sidelink resource grant; and a physical layer indication; and one or more sidelink radio resources configured on the device; and one or more sidelink resource pools configured in the device; 37. The method of claim 36, wherein the method is based on at least one of:

38. The device further includes computer-executable instructions stored in the memory, The computer-executable instructions, when executed by the processor of the device, cause the device to 、 determining an allowed transmission range associated with the sidelink resource grant; 24. The method of claim 23, further comprising:

39. Determining the allowable transmission range includes: an indication of allowed transmission modes associated with said sidelink resource grant. And, a physical layer indication; and one or more sidelink radio resources configured on the device; and one or more sidelink resource pools configured in the device; 39. The method of claim 38, wherein the method is based on at least one of:

40. The device further includes computer-executable instructions stored in the memory, The computer-executable instructions, when executed by the processor of the device, cause the device to 、 receiving an uplink resource grant; determining that the uplink grant overlaps in time with the sidelink grant; And, Upon determining that the uplink grant overlaps in time with the sidelink grant, determining a priority of sidelink transmissions relative to uplink transmissions based on the determined priority; 24. The method of claim 23, further comprising:

41. determining the priority of the sidelink transmission relative to the uplink transmission, determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 41. The method of claim 40, further comprising:

42. determining the priority of the sidelink transmission relative to the uplink transmission, The priority of the sidelink transmission relative to a sidelink transmission prioritization threshold is determining whether the sidelink transmission has a higher priority than the uplink transmission; And, determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 41. The method of claim 40, further comprising:

43. Determining the priority of the sidelink transmission relative to the uplink transmission may include: an uplink prioritization threshold indicating that the uplink transmission may be deprioritized; and The sidelink resource grant and the uplink resource grant overlap in time. a subroutine indicating whether the sidelink resource grant has a higher transmission priority when 41. The method of claim 40, further based on a link prioritization threshold.

44. determining the priority of the sidelink transmission relative to the uplink transmission, an uplink prioritization threshold indicating that the uplink transmission may be deprioritized; and, indicates that the sidelink transmission may be given higher priority than the uplink transmission a sidelink prioritization threshold; and determining a priority of the sidelink transmissions; and determining a priority for the uplink transmission; Which of the priority of the sidelink transmission and the priority of the uplink transmission is higher? determining whether to indicate transmission priority; 41. The method of claim 40 further based on

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