Alcatel-Lucent Evolved Packet Core Solution:



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T E C H N O L O G Y W H I T E P A P E R Alcatel-Lucent Evolved Packet Core Solution: Delivering technical innovation for the new LTE mobile core This white paper provides an overview of Alcatel-Lucent s perspective on Evolved Packet Core and how Alcatel-Lucent is addressing radically new requirements imposed on data and control planes in LTE. With unprecedented amounts of bandwidth to be unleashed in the data plane for new services, LTE-focused architecture is needed to ensure end-to-end QoS, reliability and scalability, as well as to provide service awareness of data flows with per-service, per-subscriber, per-application QoS. Alcatel-Lucent s EPC solution is delivered through high-performance, purpose-built service-aware platforms that bring forward Alcatel-Lucent s vast experience and leadership in key areas of service-aware IP/MPLS routing, dynamic mobility management and dynamic policy management

Table of contents 1 1. Executive summary 2 2. Alcatel-Lucent s EPC solution 3 2.1 Different network requirements for data and control plane in LTE 3 2.2 Alcatel-Lucent s approach to EPC 4 2.3 EPC Gateways: Serving Gateway and Packet data Network (PDN) Gateway 5 2.4 Alcatel-Lucent Mobility and Policy Management 6 3. Delivering technical innovation for LTE core: Alcatel-Lucent EPC 6 3.1 Service-aware IP routing with advanced end-to-end QoS capabilities 6 3.2 Non-compromising scalability 6 3.3 Secure and dynamic mobility and policy management 7 3.4 Integrated cross-domain network and service management 8 4. Fixed-mobile convergence 9 5. Conclusion 10 6. Abbreviations

1. Executive summary The Evolved Packet Core (EPC) is an integral part of Alcatel-Lucent s end-to-end Long Term Evolution (LTE) solution. Alcatel-Lucent envisages the EPC as the cornerstone of full and complete IP transformation in mobile networks and a key enabler of the evolved wireless broadband. EPC is a new, all-ip mobile core network for the LTE, and a converged framework for packet-based real-time and non-real-time services. It is specified by 3GPP Release 8 standards (Q1 2009). The EPC provides mobile core functionality that, in previous mobile generations (2G, 3G), has been realized through two separate sub-domains: circuit-switched (CS) for voice and packet-switched (PS) for data. As shown in Figure 1, in LTE, these two distinct mobile core sub-domains, used for separate processing and switching of mobile voice and data, are unified as a single IP domain. LTE is all-ip, end-to-end: from mobile handsets and other user end (UE) terminal devices with embedded IP capabilities, over IP-based Evolved NodeBs (LTE base stations), across the EPC and throughout the application domain (IMS and non-ims). EPC is essential for end-to-end IP service delivery across the LTE. As well, it is instrumental in allowing the introduction of new business models, such as partnering/revenue sharing with thirdparty content and application providers. EPC promotes the introduction of new innovative services and the enablement of new applications. EPC in Three Points Evolved Packet Core is a new mobile core for LTE all-ip, end-to-end EPC must address a radically new set of network requirements to deliver true wireless broadband Quality of Experience (QoE) EPC must enable new business models and rapid introduction of new services Figure 1. LTE: Evolution from separate CS and PS core sub-domains (3GPP case shown) to one common IP core 2G/3G CMDA/EV-DO GSM/GPRS EDGE UMTS HSPA LTE Voice channels IP channel BTS NodeB BSC/RNC GMSC MSC SGSN PDSN Softswitch Circuit switched core (voice) Packet switched core (data) MGW GGSN HA PSTN Other mobile networks Internet VPN IP channel Evolved packet core (all-ip) enodeb Transport (backhaul and backbone) Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 1

ADVERTISING 2. Alcatel-Lucent s EPC solution The Alcatel-Lucent EPC solution is purpose-built service-aware EPC, developed in-house and optimized for the future of mobile broadband. It is based on Alcatel-Lucent s: Technical leadership in IP/MPLS and service routing (service-aware IP) Broad and long expertise in mobility management across all wireless technologies (3GPP, 3GPP2, IEEE) Expertise and a proven track record in large-scale, real-time dynamic policy management These three key areas of Alcatel-Lucent s expertise and leadership are graphically represented in Figure 2. Figure 2. Alcatel-Lucent s areas of expertise in delivering high-performance EPC Leader in mobility management across all radio technologies 3GPP (GSM, EDGE, UMTS, HSPA) 3GPP2 (CDMA, EV-DO) IEEE (WiMAX) More than 340 wireless networks worldwide MME Mobility management Next-Gen t G Ecosystem End-to-End LTE Network Service-oriented all-ip Pbroadband wireless ess network MEDIA COMPANIES GAM LTE-Enabled Radio Access Aggregation & Backhaul (META) Evolved Packet Core Transport Backbone (META) Service Delivery Environment RE RETAILERS ING Optics Transformation and Integration Services (Business, Service, Network, Operations) Service aware IP Policy management EPC GWs PCRF 30,000+ service routers in 260+ customers worldwide More than 50 triple play networks Alcatel-Lucent views the introduction of the EPC as a fundamental shift in mobile networks towards all-ip wireless broadband; a new core that is a foundation for wireless broadband for years to come. Alcatel-Lucent reduces the overall cost of LTE with forward-looking product architectures that minimize hardware upgrades. At the same time, its EPC solution has the capability to unleash new business models by allowing integration with third-party content providers, allowing managed and secure network openness (presence of new devices and applications), and rapidly enabling and activating new services. 2 Alcatel-Lucent Evolved Packet Core Solution Technology White Paper

2.1 Different network requirements for data and control plane in LTE While LTE introduces a clear delination of the data (user) plane and a control plane, it also imposes two sets of distinct technical requirements on the data plane and control plane: Data plane needs to address requirements for high bandwidth, high availability and scalability, with aggregate throughput (per gateway) easily reaching over 100 Gb/s. At the same time, the data plane needs to allow unaffected wirespeed performance with sophisticated processing of millions of service data flows and data bearers turned on, while being able to provide sophisticated, fine-granular (per-application, per-service, per-user) QoS. Control plane needs to address the requirements for high scalability and high availability of secure mobility and connection management, along with highly reliable and scalable networkwide policy and subscriber management. Figure 3 shows how the distinct LTE requirements for data and control planes are addressed. Figure 3. Addressing distinct LTE requirements for data and control planes 3GPP core (GSM, UMTS, HSPA) Control plane MME PCRF enodeb Data plane EPC gateways Evolved packet core Web 2.0+ 3GPP2 core (CDMA, EV-DO) 2.2 Alcatel-Lucent s approach to EPC Alcatel-Lucent is addressing different technical requirements imposed on the data (user) and control planes in EPC/LTE with network elements that are purpose-built and optimized to perform dedicated data and control plane functions: EPC gateways are delivered through an in-house, proven and leading service-aware IP/MPLS routing platform with advanced QoS processing. EPC control plane functions are realized through dedicated mobility and policy management elements based on in-house ATCA platform. Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 3

Figure 4 shows the purpose-built elements of the EPC. Figure 4. Alcatel-Lucent EPC: Purpose-built elements Serving Gateway Packet Data Network (PDN) Gateway EPC gateways based on 7750 Service Router Mobility Management Entity Policy and Charging Rules Function MME and PCRF based on in-house ATCA platform Serving gateway: serves a large number of enodebs, with focus on highly scalable and secure data connectivity PDN gateway: responsible for IP management ( IP anchor ) and connection to external data networks; focus on highly scalable data connectivity and QoS enforcement MME: control-plane element responsible for high volume mobility management and connection management; managing thousands of enodebs PCRF performs network control of flows: detection, gating, QoS and flow-based charging, authorizes networkwide use of QoS resources (manages millions on service data flows) All Alcatel-Lucent EPC components are forward-looking, purpose-built elements, developed in-house and optimized for the future of wireless broadband. 2.3 EPC Gateways: Serving Gateway and Packet data Network (PDN) Gateway With the addition of a Mobile Gateway Integrated Services Module (MG-ISM), Alcatel-Lucent is elevating its advanced and successful 7750 Service Router into an EPC gateway, building upon its leadership in the areas of Service IP Routing. Alcatel- Lucent 7750 SR is a massively scalable service-aware IP routing platform, already proven across multiple segments (business VPNs, triple play, mobile backbone and backhaul). Figure 5 shows the EPC data plane elements that make up the EPC gateway. Figure 5. Alcatel-Lucent EPC data plane elements: EPC gateways + = 7750 SR MG-ISM EPC (S/P) Gateway (Mobile Gateway Integrated Services Module) Service Awareness on the 7750 SR is instrumental to ensure the delivery of advanced QoS needed for the ultimate wireless broadband Quality of Experience (QoE). EPC gateways come with a full suite of IPv4/IPv6 functionality, along with integrated DPI capabilities. The 7750 SR SGW is a data plane element whose primary function is to manage user-plane mobility and act as a demarcation point between the RAN and core networks. SGW maintains data paths between enodebs and the PDN Gateway (PGW). From a functional perspective, the SGW is the termination point of the packet data network interface towards E-UTRAN. 4 Alcatel-Lucent Evolved Packet Core Solution Technology White Paper

Like the 7750 SR SGW, the 7750 SR Packet Data Network Gateway (PDN GW) is the termination point of the packet data interface towards the Packet Data Network(s). As an anchor point for sessions towards the external Packet Data Networks, the PDN GW supports: Policy Enforcement features (applies operator-defined rules for resource allocation and usage) Packet filtering (for example, deep packet inspection for application type detection) Charging support (for example, per-url charging) 2.4 Alcatel-Lucent Mobility and Policy Management The Alcatel-Lucent MME is a purpose-built high-performance network element, designed and manufactured for carrier-grade reliability. It has redundant hardware architecture and high availability ensured with built-in self-healing fault monitoring and recovery capabilities, including in-service software upgrades. The Mobility Management Entity (MME) is a nodal element within the LTE EPC. It performs the signaling and control functions to manage the User Equipment (UE) access to network connections, the assignment of network resources and the manage ment of the mobility states to support tracking, paging, roaming and hand overs. MME controls all control plane functions related to subscriber and session management. The Alcatel-Lucent PCRF is a carrier-grade, purpose-built policy management system, capable of dynamic scaling and high performance. It provides tight integration with EPC gateways and the MME, as well as with LTE/EPC network and service management platforms. In the generic policy and charging control 3GPP model, the Policy and Charging Enforcement Function (PCEF) is the generic name for the functional entity that supports service data flow detection, policy enforcement and flow-based charging. The Application Function (AF) here represents the network element that supports applications that require dynamic policy and/or charging control. In the IMS model, the AF is implemented by the Proxy Call Session Control Function (P-CSCF). Although based on the common ATCA hardware, MME and PCRF are realized as two separate elements. Figure 6 graphically represents the approach taken by Alcatel-Lucent when delivering these purpose-built control plane elements for LTE. Figure 6. Alcatel-Lucent EPC control plane elements: MME and PCRF GSM GPRS EDGE UMTS HSPA CDMA EV-DO WiMAX More than 340 wireless networks worldwide In-house ATCA platform Industry-leading mobility and policy/subscriber management expertise + More than 50 triple = play networks In-house software MME PCRF Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 5

3. Delivering technical innovation for LTE core: Alcatel-Lucent EPC Alcatel-Lucent EPC solution brings significant innovation to EPC in these key areas: Service-aware IP routing with advanced end-to-end QoS capabilities Non-compromising scalability Secure and dynamic mobility and policy management Integrated end-to-end network and service management 3.1 Service-aware IP routing with advanced end-to-end QoS capabilities Service Awareness, used in the context of IP routing, is the unique ability of Alcatel-Lucent s EPC gateways to analyze, understand and process LTE traffic (service data flows and bearers), without affecting the system s wirespeed performance. The advanced processing of traffic takes into consideration different traffic types and service requirements from the perspective of network flows (L1- L3), sessions and applications (L4-L7). Advanced end-to-end QoS capabilities are achieved through advanced traffic management, with endto-end visibility of all network resources. EPC gateways guarantee high performance and scalability with fine granularity of multiple service levels (QoS definitions) per-subscriber, or per traffic or application type. This ability to perform advanced QoS and traffic management on several levels is referred to as hierarchical QoS or H-QoS. H-QoS provides additional control over network resources and optimizes bandwidth efficiency and service quality, while ensuring maximum isolation and fairness between various services and applications. H-QoS enables bandwidth allocation and management according to the bandwidth budget and/or priority of each base station type, individual traffic or service category (and potentially for individual applications used within a service category). For example, voice traffic can be granted the highest priority, followed by video services, and finally high-speed Internet traffic (with various quality grades for specific Internet applications). OTT Internet traffic (for example, YouTube) can be detected and managed using a pre-defined network policy. H-QoS can also optimize resource utilization by ensuring that any unused bandwidth allocated to higher priority services automatically becomes available, as needed, for lower classes of service. 3.2 Non-compromising scalability Alcatel-Lucent EPC gateways can address the most stringent LTE scalability requirements, because they are architecturally tailored to allow unrestricted scaling without performance degradation. A typical advanced multiservice router currently on the market cannot address this requirement for scaling without serious performance degradation. The Alcatel-Lucent EPC gateway addresses LTE requirements without any impact on the performance. 3.3 Secure and dynamic mobility and policy management Alcatel-Lucent s architecture of the EPC control plane elements MME and PCRF has been chosen to also address a very important aspect of security. MME has been designed for high-volume computing and extreme performance, in order to support the increased signaling load and direct control plane management of thousands of enodebs, while ensuring the interworking with multiple standards legacy networks. At the same time, the Alcatel-Lucent PRCF platform is a result of Alcatel-Lucent s industry leadership in fixed broadband. The PRCF platform is developed using Alcatel-Lucent s leading expertise in subscriber management and its vast experience in managing large IPTV installations (for example, AT&T s Lightspeed network). 6 Alcatel-Lucent Evolved Packet Core Solution Technology White Paper

Figure 7 illustrates the secure and dynamic mobility and policy management in EPC. Figure 7. Secure and dynamic, highly reliable and scalable mobility and policy management in EPC Non-IMS applications and services Communications services Messaging services BSC SGSN/GGSN RNC SGSN/GGSN RNC PDSN/HA GSM/GPRS/EDGE WCDMA/HSPA CDMA/EV-DO Dynamic policy Dynamic services MME Converged dynamic policy management enodeb SGW PDN GW PCRF Real-time service control Evolved packet core Communications services Messaging services IMS applications and services 3.4 Integrated cross-domain network and service management Network and service management also play a key role in LTE networks. The LTE QoE in terms of coverage, bandwidth, latency, and mobility (handover) is directly impacted by the configuration and management of LTE network elements (enodebs, gateways, MME, PCRF) as well as the interworking with legacy 2G and 3G layers. From an operator standpoint, an efficient and consolidated management system is crucial to contain the total cost of network ownership, optimize asset usage, and streamline multi-technology network operations. With Alcatel-Lucent s integrated network management system, operators will experience continuity in look and feel and usability for GSM, W-CDMA to LTE, and EV-DO to LTE management tools now managing IP capabilities end-to-end across mobile and transport domains. Under the 5620 Service Aware Manager, the EPC seamlessly merges with the IP/MPLS transport network and the 5620 SAM allows: Common IP management domain Common security procedures, network level fault isolation, detection and resolution Coordinated management/provisioning across network elements Seamless inter-technology QoS continuity ensuring smooth service continuity between legacy and LTE networks Tight integration of mobile and transport Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 7

Figure 8 shows the Alcatel-Lucent 5620 SAM s network management solution. Figure 8. Common network management across EPC mobile and transport domains using the Alcatel-Lucent 5620 Service Aware Manager End-to-end IP management (including services) 5620 SAM Mobile enodeb Cross-layer (domain) coordination and management 7705 SAR 9500 MPR 7705 SAR 9500 MPR SGW MME PCRF PGW Transport Evolved packet core 7450 ESS 7710 SR 7750 SR 7750 SR 7210 SAS 7210 SAS 7710 SR Mobile backhaul IP/MPLS aggregation network Mobile backhaul IP/MPLS 4. Fixed-mobile convergence Alcatel-Lucent views the introduction of the LTE as a fundamental shift in mobile networks towards all-ip wireless broadband. This is the reason Alcatel-Lucent EPC has been engineered and built to act as a foundation for wireless broadband for many years to come addressing multidimensional scalability of network bandwidth, applications, services, users and terminals. With a full suite of IP capabilities already widely deployed in many fixed environments, Alcatel-Lucent EPC delivers advanced end-to-end IP capabilities to LTE mobile environments. As such, Alcatel-Lucent EPC solution is perfectly suited to evolve to a multi-access, multiservice core that will be the cornerstone of the full convergence of fixed and mobile environments with common service delivery and policy management domain delivering ubiquitous universal broadband over any type of access. 8 Alcatel-Lucent Evolved Packet Core Solution Technology White Paper

While it may take some time for this vision to become reality, Alcatel-Lucent EPC solution (see Figure 9) is fully capable of addressing these requirements, as already proven in the largest IP transformations in many fixed and mobile environments. Figure 9. Alcatel-Lucent EPC as a cornerstone for multi-access, multiservice core convergence Non-IMS applications and services Communications services Messaging services BSC SGSN/GGSN GSM/GPRS/EDGE RNC SGSN/GGSN WCDMA/HSPA RNC PDSN/HA CDMA/EV-DO Dynamic policy Dynamic services MME Converged dynamic policy management enodeb SGW PDN GW PCRF Real-time service control Evolved packet core Communications services Messaging services IMS applications and services DSL, GPON IP/MPLS BSAN (Broadband service access node) BSA (Broadband service aggregator) BSR (Broadband service router) Packet core (fixed) 5. Conclusion Alcatel-Lucent s EPC solution delivers a new, service-aware all-ip mobile core for LTE, capable of true wireless broadband QoE, with advanced end-to-end QoS with secure and dynamic bearer, mobility and policy management. Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 9

Table 1 outlines key innovation areas of Alcatel-Lucent s EPC solution. Table 1. Key innovation areas of Alcatel-Lucent s EPC solution Key innovation areas in Alcatel-Lucent s EPC solution Service-aware IP Advanced, hierarchical QoS capabilities (per-session, per-flow, per-subscriber) Secure and dynamic bearer, mobility and policy management Data and Control Plane scalability High availability Relevance to EPC/LTE Provides network awareness of connections and traffic flows and their mapping to services. This is essential when introducing new service models, and it aligns with LTE service requirements. This is also important for advanced packet processing, such as Deep Packet Inspection (DPI). Ensures end-to-end QoS of new services and service bundles. Addresses LTE requirements and interworking with existing systems. It also allows new charging models while protecting network resources. Essential for delivery of evolved wireless broadband capabilities in LTE environment. Minimizes further hardware upgrades in the network. Allows support for real-time communication services. 6. Abbreviations 3GPP 3rd Generation Partnership Project 3GPP2 3rd Generation Partnership Project 2 AF Application Function AS Access Stratum CDF Charging Data Function CDMA Code Division Multiple Access CDR Charging Data Record CGF Charging Gateway Function CRF Charging Rules Function CS Circuit Switched CSCF Call Session Control Function DL Downlink E-UTRAN Evolved-UTRAN EDGE Enhanced Data rates for GSM Evolution EMM EPS Mobility Management enodeb evolved NodeB EPC Evolved Packet Core EPS Evolved Packet System GERAN GPRS EDGE Radio Access Network GGSN Gateway GPRS Support Node GMSC Gateway Mobile Switching Center GPRS General Packet Radio Service GSM Global System for Mobile communications GTP GPRS Tunnelling Protocol HLR Home Location Register HSDPA High Speed Downlink Packet Access HSPA High Speed Packet Access HSS Home Subscriber Server HSUPA High Speed Uplink Packet Access IETF Internet Engineering Task Force IEEE Institute of Electrical and Electronics Engineers IMS IP Multimedia Subsystem IMSI International Mobile Subscriber Identity IMT-2000 International Mobile Telecommunications 2000 ISIM IMS Subscriber Identity Module ITU International Telecommunication Union LTE Long Term Evolution MBMS Multimedia Broadcast and Multicast Service MIMO Multi Input Multi Output MGCF Media Gateway Control Function MGW Media Gateway MME Mobility Management Entity MMD MultiMedia Domain MNC Mobile Network Code MSC Mobile Switching Center MT Mobile Terminal NAS Non Access Stratum NGN Next Generation Network OFDM Orthogonal Frequency Division Multiplexing OFDMA Orthogonal Frequency Division Multiple Access. P-GW PDN Gateway PCEF Policy and Charging Enforcement Function PCRF Policy and Charging Rules Function PDCP Packet Data Convergence Protocol PDF Policy Decision Function PDP Context Packet Data Protocol Context PLMN Public Land Mobile Network PoC Push-to-talk over Cellular PS Packet Switched domain PSTN Public Switched Telephone Network 10 Alcatel-Lucent Evolved Packet Core Solution Technology White Paper

RNC S-GW SAE SDF SGSN SIM SIP SM SMS TA TCP TDMA TDD TE TISPAN Radio Network Control Serving Gateway System Architecture Evolution Service Data Flow Serving GPRS Support Node Subscriber Identity Module Session Initiation Protocol Session Management Short Message Service Tracking Area Transmission Control Protocol Time Division Multiple Access Time Division Duplex Terminal Equipment Telecommunication and Internet converged Services and Protocols for Advanced Networking UDP UE UL UMB UMTS USIM UTRAN WCDMA WiMAX User Datagram Protocol User Equipment Up-Link Ultra Mobile Broadband Universal Mobile Telecommunications System Universal Subscriber Identity Module Universal Terrestrial Radio Access Network Wide band Code Division Multiple Access Worldwide Interoperability Microwave Access Alcatel-Lucent Evolved Packet Core Solution Technology White Paper 11

www.alcatel-lucent.com Alcatel, Lucent, Alcatel-Lucent and the Alcatel-Lucent logo are trademarks of Alcatel-Lucent. All other trademarks are the property of their respective owners. The information presented is subject to change without notice. Alcatel-Lucent assumes no responsibility for inaccuracies contained herein. Copyright 2009 Alcatel-Lucent. All rights reserved. CPG 2896090227 (03)