| |
Figure 5.2-1 | A high-level generic view of LI architecture |
Figure 5.3.4-1 | MDF2 and MDF3 |
Figure 5.4.1-1 | High-level interception architecture diagram with key point-to-point LI interfaces |
Figure 5.4.1-2 | High-level acquisition architecture diagram with key point-to-point LI interfaces |
Figure 5.6.2-1 | Simplified virtualised LI system with provisioning infrastructure for a direct provisioned POI |
Figure 5.6.3.2-1 | Example simplified flow-diagram for OSS / BSS originated LI instantiation procedures |
Figure 5.7.1-1 | High-level identifier retrieval via Query and Response. |
Figure 6.2.1-1 | 5G EPC-anchored LI architecture |
Figure 6.2.1-2 | 5G core-anchored LI architecture |
Figure 6.2.2.1-1 | LI architecture for LI at AMF |
Figure 6.2.3.1-1 | LI architecture showing LI at SMF/UPF |
Figure 6.2.3.8-1 | LI architecture diagram for SMF/UPF interception when using SMF sets and LISSF |
Figure 6.2.3.9-1 | Use of the LI_ST interface in the LI architecture. |
Figure 6.2.5.1-1 | LI architecture for LI at SMSF |
Figure 6.2.6.1-1 | LI Architecture depicting NRF as an SIRF |
Figure 6.3.2.1-1 | LI architecture for LI at MME |
Figure 6.3.3.1.2-1 | LI architecture for LI at non-CUPS SGW/PGW |
Figure 6.3.3.1.3-1 | LI architecture for LI at EPS CUPS SGW/PGW |
Figure 6.3.4.1-1 | LI architecture for LI at ePDG |
Figure 6.6-1 | EPC/5G Interworking LI architecture |
Figure 7.2.2.1-1 | LI architecture for LI at UDM |
Figure 7.2.3.1-1 | LI architecture for LI at HSS |
Figure 7.3.3.2.1-1 | LALS model for target positioning |
Figure 7.3.3.3-1 | LALS model for triggered location (POI/LTF option) |
Figure 7.3.3.3-2 | LALS Model for triggered location (MDF/LTF option) |
Figure 7.3.4-1 | CSP and OAM Systems Cell Databases |
Figure 7.3.5.2.1-1 | Delivery of the retrieved location information via the LI_HILA |
Figure 7.3.5.2.2-1 | Delivery of the retrieved location information via the LI_HI2 |
Figure 7.4.1-1 | EPS/5GS-Anchored IMS High Level LI Architecture |
Figure 7.4.2.1-1 | IMS LI architecture |
Table 7.4.6.2-1 | IMS Network Functions providing the IRI-POI functions (non-roaming case) |
Table 7.4.6.2-2 | IMS Network Functions providing the IRI-POI functions (roaming case) |
Table 7.4.6.2-3 | Extension of Table 7.4.6.2-2 |
Table 7.4.6.3-1 | Mapping between the IMS Network Functions providing the CC-TF and the CC-POI functions |
Table 7.4.6.3-2 | IMS Media Functions providing the CC-POI functions (non-roaming case) |
Table 7.4.6.3-3 | IMS Media Functions providing the CC-POI functions (roaming case) |
Figure 7.4.7.4.2-1 | VPLMN generic LI architecture for home-routed roaming |
Figure 7.8.1.2.1-1 | 5GS Architecture for NIDD using NEF |
Figure 7.8.1.2.2-1 | 5GS Architecture for NIDD using a PtP N6 tunnel |
Figure 7.8.1.3.1-1 | 5GS Architecture for NIDD using NEF in roaming situation |
Figure 7.8.1.3.2-1 | 5GS Architecture of NIDD using a PtP N6 tunnel in roaming situation |
Figure 7.8.2.1.2-1 | LI architecture for NIDD using NEF showing LI at V-SMF |
Figure 7.9.2.1-1 | LI architecture for NIDD using NEF showing LI at NEF |
Figure 7.9.3.1-1 | 5GS architecture for device triggering |
Figure 7.9.4.1-1 | 5GS architecture for MSISDN-less MO SMS |
Figure 7.9.5.1-1 | 5GS architecture for Parameter provisioning |
Figure 7.9.6.1-1 | 5GS architecture for AF session with QoS |
Figure 7.9.7.1-1 | 5GS architecture for 5G LAN parameter provisioning |
Figure 7.10.1.2.1-1 | EPS Architecture for NIDD using SCEF |
Figure 7.10.1.2.2-1 | EPS Architecture for NIDD using a PtP SGi tunnel |
Figure 7.10.1.3.1-1 | EPS Architecture for NIDD using SCEF in roaming situation |
Figure 7.10.1.3.2-1 | EPS Architecture for NIDD using a PtP SGi tunnel in roaming situation |
Figure 7.11.2.1-1 | LI architecture for NIDD using SCEF showing LI at SCEF/IWK-SCEF |
Figure 7.11.3.1-1 | EPS architecture for device triggering |
Figure 7.11.4.1-1 | EPS architecture for MSISDN-less MO SMS |
Figure 7.11.5.1-1 | EPS architecture for Parameter Provisioning |
Figure 7.11.6.1-1 | EPS architecture for AS session with QoS |
Figure 7.13.2.1-1 | LI architecture for RCS services |
Table 7.14.2-1 | IMS Network Functions providing the IRI-POI functions for STIR/SHAKEN and RCD |
Table 7.14.2-2 | IMS Network Functions providing the IRI-POI functions for eCNAM |
Table 7.14.2-3 | IMS Network Functions providing the IRI-POI functions when UE is not roaming (originating end) |
Table 7.14.2-4 | IMS Network Functions providing the IRI-POI functions when UE is not roaming (terminating end) |
Figure 7.15.2-1 | General architecture, STF using 5G native identifiers. |
Figure 7.15.2-2 | General architecture, STF not relying on 5G native identifiers. |
Figure 7.15.3.1.2-1 | General AKMA LI Architecture |
Table 7.15.3.1.2-1 | Mapping functions between the general architecture and AKMA |
Table 7.15.3.1.2-2 | Mapping xIRI between the general architecture and AKMA |
Figure 7.16.1-1 | Edge computing network |
Figure 7.16.2-1 | LI architecture for Edge Computing showing LI at EES |
Figure 7.17.2-1 | LI architecture for 5G Media Streaming showing LI at 5GMS AF |
Figure 7.18.2-1 | LI architecture for 5G data analytics showing LI at NWDAF |
Figure 7.19.2-1 | LI architecture for WebRTC access to the IMS |
Figure 7.20.2-1 | LI architecture for 5G ProSe showing LI at 5G DDNMF |
Figure 8.5-1 | Embedded vs. external POIs |
Figure 8.5-2 | POI state capture |
Figure 8.5-3 | POI state capture security |
Figure 8.6.2-1 | LI architecture showing CC-PAG |
Figure A.1.2-1 | Network topology showing LI for 5G (service-based representation) with point-to-point LI system |
Figure A.2.2-1 | Network topology showing LI for interworking with EPC/E-UTRAN |
Figure A.3.2-1 | Network topology showing CC-POI at one UPF |
Figure A.3.2-2 | Network topology showing CC-POI at two UPFs |
Figure A.4.2-1 | Network topology showing LI for non-3GPP access to 5G via N3IWF |
Figure A.4.2-2 | Network topology showing LI for non-3GPP access to 5G via TNGF |
Figure A.4.2-3 | Network topology showing LI for non-3GPP access to 5G via TWIF |
Figure E.2.1-1 | SHAKEN reference architecture for end-to-end SIP signalling |
Figure E.2.2-1 | SHAKEN reference architecture for intra-network telephony |
Figure E.2.4-1 | Out of band SHAKEN reference architecture for non end-to-end SIP signalling |
Figure E.2.4-2 | Out of band SHAKEN reference architecture for end-to-end TDM signalling |
Figure E.4-1 | SHAKEN reference call flow using end-to-end SIP signalling |
Figure G.2.1-1 | High level Direct Discovery procedure |