| |
Figure 4.1-1 | Overall Architecture |
Figure 4.2-1 | Functional Split between NG-RAN and 5GC |
Figure 4.3.1.1-1 | NG-U Protocol Stack |
Figure 4.3.1.2-1 | NG-C Protocol Stack |
Figure 4.3.2.1-1 | Xn-U Protocol Stack |
Figure 4.3.2.2-1 | Xn-C Protocol Stack |
Figure 4.4.1-1 | User Plane Protocol Stack |
Figure 4.4.2-1 | Control Plane Protocol Stack |
Figure 4.7.1-1 | IAB architecture; a) IAB-node using SA mode with 5GC; b) IAB-node using EN-DC |
Figure 4.7.1-2 | Parent- and child-node relationship for IAB-node |
Figure 4.7.2-1 | Protocol stack for the support of F1-U protocol |
Figure 4.7.2-2 | Protocol stack for the support of F1-C protocol |
Figure 4.7.2-3 | Protocol stack for the support of IAB-MT's RRC and NAS connections |
Figure 4.7.3.3-1 | Scheduling of BSR in IAB a) regular BSR based on buffered data, b) Pre-emptive BSR based on UL grant, c) Pre-emptive BSR based on reception of regular BSR |
Figure 4.9.1-1 | Conceptual model of network-controlled repeater |
Figure 4.9.5-1 | Network-Controlled Repeater management |
Figure 5.1-1 | Transmitter block diagram for CP-OFDM with optional DFT-spreading |
Table 5.1-15.1-1 | Supported transmission numerologies |
Figure 5.1-2 | Uplink-downlink timing relation |
Figure 5.2.4-1 | Time-frequency structure of SSB |
Table 5.3.3-1 | Channel coding for uplink control informatio |
Table 5.6.2-1 | Mapping between Channel Access Priority Classes and 5QI |
Figure 6.1-1 | Downlink Layer 2 Structure |
Figure 6.1-2 | Uplink Layer 2 Structure |
Figure 6.1-3 | DL L2-structure for user plane at IAB-donor |
Figure 6.1-4 | DL L2-structure at IAB-node |
Figure 6.1-5 | UL L2-structure at IAB-node |
Figure 6.6-1 | Data Flow Example |
Figure 6.7-1 | Layer 2 Structure for DL with CA configured |
Figure 6.7-2 | Layer 2 Structure for UL with CA configured |
Figure 6.10-1 | BA Example |
Figure 6.11.3-1 | Routing and BH RLC channel selection on BAP sublayer |
Table 6.11.3-1 | Routing configuration |
Table 6.11.3-2a | BAP header rewriting configuration |
Table 6.11.3-2 | BH RLC channel mapping configuration |
Figure 7.3.1-1 | System Information Provisioning |
Figure 9.2.1.3-1 | UE triggered transition from RRC_IDLE to RRC_CONNECTED |
Figure 9.2.1.3-2 | Rejection of UE triggered transition from RRC_IDLE |
Figure 9.2.2.4.1-1 | UE triggered transition from RRC_INACTIVE to RRC_CONNECTED (UE context retrieval success) |
Figure 9.2.2.4.1-2 | UE triggered transition from RRC_INACTIVE to RRC_CONNECTED (UE context retrieval failure) |
Figure 9.2.2.4.1-3 | Reject from the network, UE attempts to resume a connection |
Figure 9.2.2.4.2-1 | Network triggered transition from RRC_INACTIVE to RRC_CONNECTED |
Figure 9.2.2.5-1 | RNA update procedure with UE context relocation |
Figure 9.2.2.5-2 | Periodic RNA update procedure without UE context relocation |
Figure 9.2.2.5-3 | RNA update procedure with transition to RRC_IDLE |
Figure 9.2.2.6-1 | Resume request responded with Release with Redirect, with UE Context relocation |
Figure 9.2.3.1-1 | Inter-gNB handover procedures |
Figure 9.2.3.2.1-1 | Intra-AMF/UPF Handover |
Figure 9.2.3.3-1 | Re-establishment procedure |
Figure 9.2.3.4.2-1 | Intra-AMF/UPF Conditional Handover |
Figure 9.2.3.5.2-1 | Signalling procedure for LTM |
Figure 9.2.4-1 | Measurement Model |
Figure 9.2.5-1 | Procedure for CN controlled subgrouping |
Figure 9.2.5-2 | Procedure for UE ID based subgrouping |
Figure 9.2.6-1 | Random Access Procedures |
Figure 9.2.6-2 | Fallback for CBRA with 2-step RA type |
Figure 11-1 | DRX Cycle |
Figure 12-1 | QoS architecture |
Figure 13.1-1 | 5G Key Derivation |
Table 13.2-1 | Security Termination Points |
Figure 14-1 | Feature Set Combinations |
Figure 15.3.3.1-1 | Interaction between gNB and OAM due to ANR |
Figure 15.3.3.2-1 | Automatic Neighbour Relation Function |
Figure 15.3.3.5-1 | Automatic Neighbour Relation Function in case of E-UTRAN detected cell |
Figure 16.1.3-1 | Packet Duplication |
Figure 16.2.1.1-1 | UL or DL bit rate recommendation |
Figure 16.2.1.1-2 | UL or DL bit rate recommendation query |
Table 16.3.2.1-1 | AMF selection based on Temp ID and NSSAI |
Figure 16.3.4.2-1 | AMF selection |
Figure 16.3.4.3-1 | Network Slice-aware Initial Context Setup |
Figure 16.3.4.4-1 | Network Slice-aware PDU Session Resource Setup |
Figure 16.3.4.5-1 | NG based mobility across different Registration Areas |
Figure 16.3.4.5-2 | Xn based mobility across different Registration Areas |
Figure 16.8-1 | Signalling Procedure of UE-side RTT-based PDC |
Figure 16.8-2 | Signalling Procedure of gNB-side RTT-based PDC |
Figure 16.8.2-1 | Signalling procedure of gNB reporting clock quality information to a UE |
Figure 16.9.1-1 | NG-RAN Architecture supporting the PC5 interface |
Figure 16.9.2.1-1 | Control plane protocol stack for SCCH for RRC |
Figure 16.9.2.1-2 | Control plane protocol stack for SCCH for PC5-S |
Figure 16.9.2.1-3 | PC5 control plane (PC5-C) protocol stack for SBCCH |
Figure 16.9.2.1-4 | User plane protocol stack for STCH |
Table 16.9.9-1 | Mapping between Channel Access Priority Classes for SL-U and PQI |
Figure 16.10.3-1 | Downlink Layer 2 Architecture for Multicast Session |
Figure 16.10.3-2 | Downlink Layer 2 Architecture for Broadcast Session |
Figure 16.12.2.1-1 | User plane protocol stack for L2 UE-to-Network Relay |
Figure 16.12.2.1-2 | Control plane protocol stack for L2 UE-to-Network Relay |
Figure 16.12.2.2-1 | User plane protocol stack for L2 UE-to-UE Relay |
Figure 16.12.2.2-2 | Control plane protocol stack for L2 UE-to-UE Relay |
Figure 16.12.3-1 | Protocol Stack of Discovery Message for UE-to-Network/UE-to-UE Relay |
Figure 16.12.5.1-1 | Procedure for L2 U2N Remote UE connection establishment |
Figure 16.12.6.1-1 | Procedure for L2 U2N Remote UE intra-gNB switching from indirect to direct path |
Figure 16.12.6.1-2 | Procedure for L2 U2N Remote UE inter-gNB switching from indirect to direct path |
Figure 16.12.6.2-1 | Procedure for L2 U2N Remote UE intra-gNB switching from direct to indirect path via a L2 U2N Relay UE in RRC_CONNECTED |
Figure 16.12.6.2-2 | Procedure for L2 U2N Remote UE inter-gNB switching from direct to indirect path via a L2 U2N Relay UE in RRC_CONNECTED |
Figure 16.12.6.3-1 | Procedure for L2 U2N Remote UE intra-gNB switching from indirect to indirect path via a target L2 U2N Relay UE in RRC_CONNECTED |
Figure 16.12.6.3-2 | Procedure for L2 U2N Remote UE inter-gNB switching from indirect to indirect path via a target L2 U2N Relay UE in RRC_CONNECTED |
Figure 16.12.7-1 | Procedure for L2 U2U Remote UE connection establishment |
Figure 16.14.1-1 | Overall illustration of an NTN |
Figure 16.14.2.1-1 | Illustration of timing relationship (for collocated gNB and NTN Gateway) |
Figure 16.21.2.1-1 | User plane protocol stack for L2 Multi-path Relay using SL indirect path |
Figure 16.21.2.1-2 | Control plane protocol stack for L2 Multi-path Relay using SL indirect path |
Figure 16.21.2.2-1 | User plane protocol stack for L2 Multi-path Relay using N3C indirect path |
Figure 16.21.2.2-2 | Control plane protocol stack for L2 Multi-path Relay using N3C indirect path |
Figure 16.21.3.1-1 | Procedure for indirect path addition on top of direct path |
Figure 16.21.3.1-2 | Procedure for indirect path change under a single procedure |
Figure 16.21.3.1-3 | Procedure for direct path addition on top of indirect path |
Figure 16.21.3.1-4 | Procedure for direct path change |
Figure 18.2-1 | RA-based SDT with UE context relocation |
Figure 18.3-1 | RA-based SDT without UE context relocation |
Figure 18.4-1 | MT-SDT with/without UE context relocation |
Figure A.1-1 | PDU session establishment |
Figure A.2-1 | DL data with new QFI sent over existing DRB |
Figure A.3-1 | DL data with new QFI sent over existing DRB |
Figure A.4-1 | DL data with new QoS Flow ID sent over new DRB with explicit signalling |
Figure A.5-1 | Release of QoS Flow with Explicit Signalling |
Figure A.6-1 | UL packet with a new QoS flow for which a mapping does not exist in UE |
Figure B.1-1 | Example of Supplementary Uplink |
Figure B.2-1 | Example of multiple SSBs in a carrier |
Figure B.4-1 | NTN based NG-RAN |
Table C-1 | I-RNTI reference profiles |
Table D-1 | gNB local configuration in idle and connected mode for SPID = 252 |
Table F-1 | I-RNTI profiles for Full I-RNTI |
Table F-2 | I-RNTI profiles for Short I-RNTI |
Figure G-1 | Components of Mobility Latency |
Table G-1 | Components of Mobility Latency for LTM |
Figure G-2 | Mobility Latency for RACH-based LTM |
Figure G-3 | Mobility Latency for RACH-less LTM |