Course Code: LT1405 Course Summary A detailed technical description of the air interface signalling protocols employed in LTE. This includes the layer 3 Radio Resource Control (RRC) and layer 2 Packet data Convergence Protocol (PDCP), Radio Link Control (RLC) and Medium Access Control (MAC) protocols. The set of messages and functions supported by each protocol is examined in detail. Who would benefit This course would benefit engineers involved with equipment design, operation, and optimization or monitoring of the LTE radio link. Prerequisites An engineering background with some knowledge of digital radio systems and general radio principles and techniques is assumed. A basic understanding of LTE and experience of 2G or 3G systems would be beneficial. Topic Areas Include RRC - functions and procedures LTE RRC identities and states RRC message structure and ASN.1 Overview of RRC message types System information messages Paging RRC connection management Intra-E-UTRAN and Inter-system Mobility RRC security Security mode command Measurement DL/UL information transfer PDCP control messages RoHC configuration and control RLC control messages, ARQ management and segmentation MAC control elements End-to-End air interface signalling procedure examples

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Course Code: LT1302 Course Summary This course provides a deeper insight into the inner workings of the LTE air interface physical layer to meet the needs of air interface specialists. It offers an opportunity to look more deeply into topics such as OFDMA and SC-FDMA, specifically into the use of Fourier Transform methods and the construction and use of the Cyclic Prefix. The use of Zadoff-Chu sequences for some physical layer functions is also discussed, as are topics such as Reference Signals and the construction, administration and use of LTE physical channels. Who would benefit This course is designed for Radio Frequency (RF) engineers, radio planners, technical support staff and other specialists who have a need to look further into the LTE Air Interface than is possible with less specialised courses. Prerequisites A thorough understanding of the basic and more complex principles of the LTE Air Interface is essential and can be gained from attending Wray Castle’s ‘LTE Engineering Overview’ and ‘LTE Air Interface’ courses. Topic Areas Include OFDMA subcarrier orthogonality OFDMA fourier transform functions Physical signals and Zadoff-Chu modulation sequences SC-FDMA Downlink and Uplink physical carrier configuration Reference signal generation and functions Downlink physical channels: PBCH, PCFICH, PHICH, PDCCH Downlink concepts: REG, CCE, Aggregation Levels, PDCCH Search Spaces PUCCH operation PUCCH resources, regions, formats and operation Downlink Control Information (DCI) and Uplink Control Information (UCI) types and functions PRACH resources, formats, configurations and operation

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Course Code: VF1903 Course Summary LTE and 5G systems are increasingly important in our lives. These systems have the potential to be the basis of much of our future communications and connected devices. LTE and 5G will be used in all kinds of critical applications where we need to have confidence that our data is safe and protected from attack. The concern of mobile security becomes more critical than ever before. Mobile security describes the measures taken to protect against a wide range of threats that seek to violate our privacy and attack the information stored and sent between our phones and connected devices. This course provides a detailed overview of the security environment developed for LTE and 5G networks in both the access and core network domains. This includes LTE Authentication and Key Agreement (AKA), security procedures and Key derivation for LTE Non-Access Stratum, Access Stratum, Access Network and Core Network security. The course then describes the improvements made in 5G security for both Non-standalone and Standalone Modes, 5G security architectures, 5G key derivation and 5G security contexts, 5G procedures for authentication, key agreement, dual connectivity and interworking. Both roaming and non-roaming scenarios are considered. Who would benefit This course is designed for engineers, managers and other personnel who have a need to acquire a technical overview of the security environment employed within LTE and 5G networks. It will also be of benefit to those in the wider technical community who have a need to understand the security protocols employed by cellular networks. Prerequisites Attendance on, or equivalent knowledge, LTE Engineering or 5G Engineering would be useful.  Alternatively, experience working in this area of telecoms. Topic Areas Include LTE Security Architecture Authentication and Key Agreement Evolution to 5G 5G Non-Standalone Mode Security 5G Standalone Mode Security Also available as a Self-Study Online Learning Programme, learn more.

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LTE and 5G systems are increasingly important in our lives. These systems have the potential to be the basis of much of our future communications and connected devices. LTE and 5G will be used in all kinds of critical applications where we need to have confidence that our data is safe and protected from attack. The concern of mobile security becomes more critical than ever before. Mobile security describes the measures taken to protect against a wide range of threats that seek to violate our privacy and attack the information stored and sent between our phones and connected devices. This course provides a detailed overview of the security environment developed for LTE and 5G networks in both the access and core network domains. This includes LTE Authentication and Key Agreement (AKA), security procedures and Key derivation for LTE Non-Access Stratum, Access Stratum, Access Network and Core Network security. The course then describes the improvements made in 5G security for both Non-standalone and Standalone Modes, 5G security architectures, 5G key derivation and 5G security contexts, 5G procedures for authentication, key agreement, dual connectivity and interworking. Both roaming and non-roaming scenarios are considered. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit This course is designed for engineers, managers and other personnel who have a need to acquire a technical overview of the security environment employed within LTE and 5G networks. It will also be of benefit to those in the wider technical community who have a need to understand the security protocols employed by cellular networks. Prerequisites Attendance on, or equivalent knowledge, LTE Engineering or 5G Engineering would be useful.  Alternatively, experience working in this area of telecoms. Topic Areas Include LTE Security Architecture Authentication and Key Agreement Evolution to 5G 5G Non-Standalone Mode Security 5G Standalone Mode Security

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Course Code: LT1202 Course Summary A detailed technical description of the technologies available to be used to support the backhaul requirements of next generation 4G LTE access networks. This includes discussions of underlying backhaul architecture and concepts along with more detailed discussions of the technologies employed to support evolved Radio Access Networks (RANs), including: Carrier Ethernet, MPLS, fibre-optic transmission and packet-based microwave plus other high capacity backhaul technologies. Who would benefit This course is suitable for engineering and technical management staff who are involved in the commissioning, design, deployment or operation of mobile backhaul networks. Prerequisites An understanding of mobile network architecture and operation would be beneficial as would an appreciation of legacy backhaul technologies such as TDM or ATM. Topic Areas Include What is backhaul? Transport network layered architectures RAN architectures and requirements Industry forums Layer 1 backhaul options Backhaul architecture models Fibre optics and packet-based microwave Layer 2 backhaul options Ethernet and 802.1Q VLANs Q-in-Q VLAN stacking Carrier Ethernet MPLS Layer 3 backhaul options IP RAN in LTE Synchronization (NTPv4, IEEE1588v2/PTP, Sync-E) Redundancy (MSTP, G.8031/8032) Security options (IPsec, Security Gateway) Next Generation Mobile Network (NGMN) models VLAN traffic forwarding examples for Ethernet-based RANs

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Course Code: LT1312 Course Summary This course provides a detailed overview of the issues related to the planning of backhaul services designed to support 4G LTE Cellular sites in both dedicated and single Radio Access Network (RAN) environments. The course focuses on planning techniques related to the most commonly-employed backhaul technologies used in conjunction with LTE, such as Ethernet, packet-based microwave and IP. It also covers aspects such as timing and security solutions and presents techniques that can be employed to estimate backhaul requirements and plan for suitable deployments. Who would benefit This course is designed for engineers working for network operators in the planning and implementation of RANs and in particular the backhaul region from the cell tower back to the core network and are looking at the options that exist to provide backhaul solutions suitable for 4G LTE networks. Prerequisites No specific prerequisites for this course although a good understanding of mobile networks and in particular the radio access part of 3GPP based networks. Topic Areas Include Backhaul overview Backhaul planning techniques Defining 4G backhaul requirements Backhaul technologies appropriate for 4G networks Transport network evolution Multi RAT and Multi Operator (MRMO) Synchronization options Cell throughput expectations Industry initiatives and forums Radio to transport QoS mapping VLAN management Backhaul traffic profile Backhaul QoS Planning exercise – cell throughput calculations

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This course provides a detailed overview of the issues related to the planning of backhaul services designed to support 4G LTE Cellular sites in both dedicated and single Radio Access Network (RAN) environments. The course focuses on planning techniques related to the most commonly-employed backhaul technologies used in conjunction with LTE, such as Ethernet, packet-based microwave and IP. It also covers aspects such as timing and security solutions and presents techniques that can be employed to estimate backhaul requirements and plan for suitable deployments. This course is delivered as a self-paced on-demand distance learning course and features illustrated course books, videos, tests and full tutor support. Who would benefit This course is designed for engineers working for network operators in the planning and implementation of RANs and in particular the backhaul region from the cell tower back to the core network and are looking at the options that exist to provide backhaul solutions suitable for 4G LTE networks. Prerequisites No specific prerequisites for this course although a good understanding of mobile networks and in particular the radio access part of 3GPP based networks. Topic Areas Include Backhaul overview Backhaul planning techniques Defining 4G backhaul requirements Backhaul technologies appropriate for 4G networks Transport network evolution Multi RAT and Multi Operator (MRMO) Synchronization options Cell throughput expectations Industry initiatives and forums Radio to transport QoS mapping VLAN management Backhaul traffic profile Backhaul QoS Planning exercise – cell throughput calculations   On-Demand Online Training Our self-paced on-demand distance learning programmes are accessible on any computer, tablet or smartphone and allow you to study at a time and location that is convenient to you. Each course includes: Illustrated Course Books - featuring leading edge knowledge from subject matter experts. Videos - Detailed videos expand the points covered in the course books, discussing topics in greater depth.  Tutor Support – Dedicated course tutors are available to answer any questions you might have throughout your studies. Formative Assessment - Modules include regular quizzes to support learning by testing your knowledge of the subject matter. Certification– Successfully complete the end of module tests to earn Digital Badges to demonstrate the depth of your knowledge of the topic. Included in Wray Castle Hub This course is also available as part of the Wray Castle Hub. An annual subscription delivers unlimited access to this course and over 500 hours of learning material consisting of 30+ Courses, 190+ Learning Modules, and 1,000+ Videos. Annual Subscription: £1400 (Most cost-effective option) Subscribe to Wray Castle Hub here

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Course Code: LT1316 Course Summary A technical overview of the billing and charging architecture defined for 4G LTE networks, including a review of LTE bearer, traffic flow and QoS concepts. The course goes on to examine the architecture of the billing system, both online and offline and identifies the key nodes, interfaces and protocols employed to transport billing and charging information. Finally, the interactions with the billing system during basic LTE procedures are outlined. Who would benefit Engineers, designers, managers and others involved in the development, deployment or operation of LTE billing and charging systems. Prerequisites Familiarity with the LTE Evolved Packet Core is assumed. Experience of 2G or 3G billing systems would be beneficial. Topic Areas Include Review of EPS bearer concepts and LTE QoS models Packet flows, service data flows and traffic flow aggregates Deep packet inspection – heuristic algorithms and bearer-aware applications Outline of policy and charging control LTE billing and charging concepts Flow-based charging Billing architecture Online and offline charging systems Charging data capture points (S-GW, PDN-GW) IMS charging capture points Charging Data Function (CDF) Protocols – Diameter, CAP Interfaces – Gy, Gz, Rf, Ro and others Charging criteria – time-based, volume-based, application-based CDR formats CDR generation Charging interaction with basic LTE procedures

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A technical overview of the billing and charging architecture defined for 4G LTE networks, including a review of LTE bearer, traffic flow and QoS concepts. The course goes on to examine the architecture of the billing system, both online and offline and identifies the key nodes, interfaces and protocols employed to transport billing and charging information. Finally, the interactions with the billing system during basic LTE procedures are outlined. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit Engineers, designers, managers and others involved in the development, deployment or operation of LTE billing and charging systems. Prerequisites Familiarity with the LTE Evolved Packet Core is assumed. Experience of 2G or 3G billing systems would be beneficial. Topic Areas Include Review of EPS bearer concepts and LTE QoS models Packet flows, service data flows and traffic flow aggregates Deep packet inspection – heuristic algorithms and bearer-aware applications Outline of policy and charging control LTE billing and charging concepts Flow-based charging Billing architecture Online and offline charging systems Charging data capture points (S-GW, PDN-GW) IMS charging capture points Charging Data Function (CDF) Protocols – Diameter, CAP Interfaces – Gy, Gz, Rf, Ro and others Charging criteria – time-based, volume-based, application-based CDR formats CDR generation Charging interaction with basic LTE procedures

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Course Code: LT1301 Course Summary This course is designed to provide an end-to-end view of the whole set of signalling messages that support some of the most fundamental LTE network operations, such as: initial attach, PDN Connectivity, EPS Bearer setup, bearer resource allocation, handover and detach. Each procedure is presented in terms of the progression of signalling messages exchanged and each message is explored in detail. The course provides details of messages belonging to the following signalling protocols: RRC, NAS, S1AP, X2AP, GTPv2-C and also the Diameter S6a, S13 and Gx applications. Who would benefit This course is designed for engineers, managers and other personnel who have a need to acquire a technical overview of the total LTE signalling environment (not just signalling in one part of the network) and also those that require an end-to-end view of the management of fundamental LTE procedures. Prerequisites A basic understanding of LTE network architecture, services and protocols, which can be gained from attending the LTE Engineering Overview (LT3600) and LTE Evolved Packet Core Network (LT3604) courses. An understanding of IP would be beneficial. Topic Areas Include Air interface signalling protocols E-UTRAN signalling protocols EPC signalling protocols Initial attach procedures Idle mode procedures S1 release Tracking area update procedure Service request procedure with ISR enabled Extended service request for CS fallback Connected mode procedures Connection establishment, modification and release Bearer resource allocation triggering dedicated EPS bearer establishment Bearer resource modification triggering EPS bearer modification PDN connectivity request Handover procedures X2-based handover with direct forwarding S1-based handover with S-GW change with indirect forwarding Inter-System PS handover to UMTS/HSPA without forwarding Detach procedures Also available as a Self-Study Online Learning Programme, learn more.

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This course is designed to provide an end-to-end view of the whole set of signalling messages that support some of the most fundamental LTE network operations, such as: initial attach, PDN Connectivity, EPS Bearer setup, bearer resource allocation, handover and detach. Each procedure is presented in terms of the progression of signalling messages exchanged and each message is explored in detail. The course provides details of messages belonging to the following signalling protocols: RRC, NAS, S1AP, X2AP, GTPv2-C and also the Diameter S6a, S13 and Gx applications. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit This course is designed for engineers, managers and other personnel who have a need to acquire a technical overview of the total LTE signalling environment (not just signalling in one part of the network) and also those that require an end-to-end view of the management of fundamental LTE procedures. Prerequisites A basic understanding of LTE network architecture, services and protocols, which can be gained from attending the LTE Engineering Overview (LT3600) and LTE Evolved Packet Core Network (LT3604) courses. An understanding of IP would be beneficial. Topic Areas Include Air interface signalling protocols E-UTRAN signalling protocols EPC signalling protocols Initial attach procedures Idle mode procedures S1 release Tracking area update procedure Service request procedure with ISR enabled Extended service request for CS fallback Connected mode procedures Connection establishment, modification and release Bearer resource allocation triggering dedicated EPS bearer establishment Bearer resource modification triggering EPS bearer modification PDN connectivity request Handover procedures X2-based handover with direct forwarding S1-based handover with S-GW change with indirect forwarding Inter-System PS handover to UMTS/HSPA without forwarding Detach procedures

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Course Code: LT3600 Course Summary A technical introduction and overview of LTE and LTE-Advanced, including the air interface, radio access network, core network and other key associated technologies. Who would benefit This course is intended for engineers either new to, or already working in, mobile communications. Prerequisites Familiarity with telecommunications and general engineering terminology is assumed and some understanding of 2G and 3G cellular systems would be beneficial. Topic Areas Include High level architecture of LTE Basic principles of OFDMA and SC-FDMA Air interface protocol stack Structure of the air interface physical layer E-UTRAN architecture, interfaces and protocols EPC architecture, interfaces and protocols LTE state diagrams Principles of bearers and Quality of Service (QoS) Voice options for LTE Power-on procedures UE procedures in idle and connected modes Enhancements in LTE-Advanced Also available as a Self-Study Online Learning Programme, learn more.

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A technical introduction and overview of LTE and LTE-Advanced, including the air interface, radio access network, core network and other key associated technologies. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit This course is intended for engineers either new to, or already working in, mobile communications. Prerequisites Familiarity with telecommunications and general engineering terminology is assumed and some understanding of 2G and 3G cellular systems would be beneficial. Topic Areas Include High level architecture of LTE Basic principles of OFDMA and SC-FDMA Air interface protocol stack Structure of the air interface physical layer E-UTRAN architecture, interfaces and protocols EPC architecture, interfaces and protocols LTE state diagrams Principles of bearers and Quality of Service (QoS) Voice options for LTE Power-on procedures UE procedures in idle and connected modes Enhancements in LTE-Advanced

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A detailed technical description of the Evolved Packet Core (EPC) for LTE systems. This includes EPC architecture and interfaces, service provision concepts, application of IP technologies, overall protocol architectures and (optionally) a review of IMS functionality. Who would benefit Engineers and other staff involved with switching or transmission architecture, optimization, network management, network testing or monitoring of the EPC. Prerequisites An engineering background with some knowledge of core network technologies, including IP, is assumed. Experience of 2G or 3G systems would be beneficial. Topic Areas Include High level architecture of LTE Functions of the MME, S-GW, PDN-GW, HSS and PCRF LTE state diagrams Inter-operation with 2G, 3G and non-3GPP networks Voice options for LTE Principles of bearers and Quality of Service (QoS) Data transport in the EPC Policy and charging control architecture IETF protocols in the EPC, including SCTP, DiffServ and Diameter 3GPP protocols in the EPC, including GTP and S1-AP Power-on procedures UE procedures in idle and connected modes Enhancements in LTE-Advanced [Optional] Overview of the functions and architecture of the IMS Also available as a Self-Study Online Learning Programme, learn more.

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A detailed technical description of the Evolved Packet Core (EPC) for LTE systems. This includes EPC architecture and interfaces, service provision concepts, application of IP technologies, overall protocol architectures and (optionally) a review of IMS functionality. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit Engineers and other staff involved with switching or transmission architecture, optimization, network management, network testing or monitoring of the EPC. Prerequisites An engineering background with some knowledge of core network technologies, including IP, is assumed. Experience of 2G or 3G systems would be beneficial. Topic Areas Include High level architecture of LTE Functions of the MME, S-GW, PDN-GW, HSS and PCRF LTE state diagrams Inter-operation with 2G, 3G and non-3GPP networks Voice options for LTE Principles of bearers and Quality of Service (QoS) Data transport in the EPC Policy and charging control architecture IETF protocols in the EPC, including SCTP, DiffServ and Diameter 3GPP protocols in the EPC, including GTP and S1-AP Power-on procedures UE procedures in idle and connected modes Enhancements in LTE-Advance

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Course Code: LT1604 Who Would Benefit LTE Mission Critical Communications training course is aimed at those who are working with the emergency services or government agencies wishing to become familiar with the technology planned to replace LMR systems . Prerequisites A basic understanding of LMR systems would be advantageous but familiarity with the requirements of emergency service communications is more important. Course Contents                                                                 Requirements of a Mission Critical Network Introduction to LTE The LTE Radio Interface Multimedia Broadcast Multicast Service The IP Multimedia Subsystem (IMS) Group Communication System Enablers for LTE (GCSE_LTE) Mission Critical Push to Talk (MCPTT) Mission Critical Video (MCVideo) Mission Critical Data (MCData) LTE and LMR Interworking

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Course Code: LT1001 Course Summary An introduction to the principles and techniques that relate to the parameters available in the LTE Radio Access Network (RAN). This includes cell configuration, idle mode parameters and connected mode parameters. All elements are reinforced through classroom exercises and tool demonstrations. Who would benefit This course is intended for experienced radio access optimizers and those involved with device development or functionality testing for LTE-based networks. Prerequisites This course assumes an engineering background with some knowledge of digital radio systems in general and good knowledge of the LTE air interface structure and operation. Experience of parameter tuning for 2G or 3G systems would be useful. Topic Areas Include Radio spectrum and radio channel organization Key LTE radio metrics Interpreting drive survey results Identifying key air interface parameters Verifying settings for radio parameters Performance of a single frequency network Network access parameters Cell selection and reselections Inter-technology cell reselections Prioritized cell reselections Connected mode measurements Triggered measurement reports LTE handovers Analysing handovers Inter-technology handovers Management of discontinuous reception Includes exercises.

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Course Code: LT1314 Course Summary This course concentrates on the two main areas of an LTE network in which Quality of Service (QoS) is applied – the End-to-End EPS Bearer and the underlying Transport Network Layer (TNL). The main QoS concepts are explored as are details of the interworking between LTE QoS and the QoS schemes employed in other network types, such as UMTS, GPRS and the IMS. Who would benefit This course is suitable for engineering and technical management staff who require a technical overview of the technologies and techniques employed by 4G LTE networks to define and control the QoS applied to user connections. Prerequisites An engineering background with some knowledge of telecommunications technologies and protocols is assumed and previous LTE training would be beneficial, as would knowledge of QoS mechanisms in legacy 2G and 3G networks. Topic Areas Include E-UTRAN architecture and interfaces EPS Bearer and PDN Connectivity options and operations User plane connection concepts, packet flows, SDFs and Traffic Flow Aggregates LTE QoS parameters, QCI, ARP QoS parameter representation in LTE signalling protocols QoS Management – TFTs and packet filters LTE PCC (Policy and Charging Control) mechanisms PCC Rules, function and structure Interaction between PCC elements and internal and external network nodes Mapping LTE QoS to legacy network schemes Measuring QoS TNL concepts, architecture and QoS mechanisms DiffServ, MPLS and Ethernet QoS End-to-End QoS Architecture and Operation Network node QoS functions QoS influence on LTE handovers Also available as a Self-Study Online Learning Programme, learn more.

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This course concentrates on the two main areas of an LTE network in which Quality of Service (QoS) is applied – the End-to-End EPS Bearer and the underlying Transport Network Layer (TNL). The main QoS concepts are explored as are details of the interworking between LTE QoS and the QoS schemes employed in other network types, such as UMTS, GPRS and the IMS. This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit This course is suitable for engineering and technical management staff who require a technical overview of the technologies and techniques employed by 4G LTE networks to define and control the QoS applied to user connections. Prerequisites An engineering background with some knowledge of telecommunications technologies and protocols is assumed and previous LTE training would be beneficial, as would knowledge of QoS mechanisms in legacy 2G and 3G networks. Topic Areas Include E-UTRAN architecture and interfaces EPS Bearer and PDN Connectivity options and operations User plane connection concepts, packet flows, SDFs and Traffic Flow Aggregates LTE QoS parameters, QCI, ARP QoS parameter representation in LTE signalling protocols QoS Management – TFTs and packet filters LTE PCC (Policy and Charging Control) mechanisms PCC Rules, function and structure Interaction between PCC elements and internal and external network nodes Mapping LTE QoS to legacy network schemes Measuring QoS TNL concepts, architecture and QoS mechanisms DiffServ, MPLS and Ethernet QoS End-to-End QoS Architecture and Operation Network node QoS functions QoS influence on LTE handovers

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Course Code: LT3603 Course Summary A detailed technical description of the Radio Access Network (RAN) for LTE systems. This includes E-UTRAN structure, configuration and deployment options, security functions, core network interactions and bearer establishment procedures. Who would benefit Engineers involved with transmission or architecture design, optimization, network management or monitoring of the LTE RAN. Prerequisites An engineering background with some knowledge of telecommunications technologies and protocols is assumed. Experience of 2G or 3G systems would be beneficial. Topic Areas Include E-UTRAN architecture and interfaces E-UTRAN frequency bands and channels Cell structures, hierarchies and sizes LTE cell site configurations Tracking Areas (TA) and TA list management Handover management E-UTRAN Self Optimizing Network (SON) functions Access stratum and access network security Interaction between eNB and MME/S-GW devices Logical and physical connectivity to EPC nodes LTE E-UTRAN and small cell deployments Relay nodes, LIPA, SIPTO and LPP S1AP (S1 Application Protocol) message structures and operation X2AP (X2 Application Protocol) message structures and operation Connection establishment Overview of interaction between E-UTRAN protocols during basic LTE procedures Includes exercises.

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Course Code: LT1322 Course Summary his course equips engineers with the necessary information to predict and plan capacity requirements in LTE RAN architectures. The course analyzes user plane and control plane services, allowing effective mapping of services to the physical layer, as well as Channel Quality Indication (CQI) and the effect on user plane throughput allowing effective estimations of physical layer resource for service provision. The course also investigates the backhaul requirements for RAN architecture allowing engineers to manage potential bottle-necks in future backhaul networks. Who would benefit This course is designed for engineers working for network operators in the planning and implementation of RANs. Prerequisites This course assumes an engineering background, as well as a good understanding of LTE. Topic Areas Include E-UTRAN architecture and protocols EPS bearers and QoS Subscriber traffic profiling Signalling event traffic modelling Signalling events and event dimensioning RAN synchronization options and overheads Dimensioning O&M Air interface structure and bandwidth options Maximum theoretical throughput estimations Dimensioning the RAN for voice traffic CQI and user plane traffic dimensioning

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Course Code: LT1606 Who Would Benefit Engineers involved with equipment design, operation, optimization or monitoring of the LTE Radio Access Network. Prerequisites Familiarity with LTE and the LTE RAN is assumed and can be gained from attending the LTE Engineering Overview (LT3600) course. Experience of 2G or 3G air interface signalling systems would be beneficial. This course is not suitable for those who have attended the LTE RAN course (LT3603) as it covers similar signalling topics. Contents LTE Signalling Protocols and Interfaces S1 Interface Messages and Procedures X2 Interface Messages and Procedures

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Course Code: LT1303 Course Summary This course provides a detailed overview of the security environment developed for LTE networks, including the LTE Authentication and Key Agreement (AKA) procedures and the provisions for Non-Access Stratum, Access Stratum, Access Network and Core Network security. Who would benefit This course is designed for engineers, managers and other personnel who have a need to acquire a technical overview of the security environment employed within LTE networks. It will also be of benefit to those in the wider technical community who have a need to understand the security protocols employed by cellular networks. Prerequisites Attendance on this course assumes previous attendance on the LTE Engineering Overview course (LT3600) or equivalent basic LTE knowledge. An understanding of legacy 2G and 3G security procedures would be an advantage as would a basic understanding of LTE network architecture and functionality. Topic Areas Include Security threats and mitigations 3GPP security strata and the LTE security architecture Non-Access Stratum, Access Stratum, Access Network and Core Network Security Overall AKA process Security contexts Subscriber and UE identifiers Authentication process, vectors and algorithms Key agreement procedures AKA keys and algorithms Key hierarchy, key sets and key set identifiers Key derivation functions KeNB chaining and the NH (Next Hop) key EEA and EIA security algorithms Security procedures

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Course Code: LT1320 Course Summary This course discusses the concept of a Self-Organizing Network (SON) with a look at the key features and procedures that enable self-configuration in a SON. This course will also examine the issues surrounding femtocell deployment with a discussion around potential interference issues and techniques for controlling uplink and downlink interference. Who would benefit This course would benefit those with a keen interest in the issues surrounding the deployment of small cells and femtocells in particular. This might include those working in planning-related roles for network operators or as individual consultants. Prerequisites This course assumes existing knowledge of cell planning principles in a mobile environment. Topic Areas Include SON – drivers Self-configuration Automatic Neighbour Relation (ANR) Automatic PCI configuration Inter-Cell interference Co-ordination (ISIC) Mobility robustness optimization Mobility load balancing Energy saving Deployment configurations Control of downlink interference

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Course Code: LT1002CS Course Summary This course provides a detailed technical description of the use of CS fallback to deliver an LTE voice service. Who would benefit This course is suitable for engineering and technical management staff who require a technical description of the options that exist in LTE for delivering voice and other real-time traffic types by means of CS fallback. Prerequisites Attendance on this course assumes previous attendance on the LTE Engineering Overview course (LT3600) or equivalent basic LTE knowledge (although a recap of basic LTE architecture and concepts is provided at the start of the course) and also assumes a working knowledge of IP. Topic Areas Include Technical overview of LTE Introduction to the options for LTE voice CS fallback architecture SGs Application Protocol (SGsAP) Combined attach procedure Alignment of tracking and location areas CS fallback call setup options Mobile-originated and mobile-terminated call setup procedures Roaming retry and roaming forwarding Delivery of SMS messages over the SGs interface

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Course Code: LT1002VO Course Summary This course provides a detailed technical description of the currently specified methods of offering a VoIP service using LTE and the IP Multimedia Subsystem.  Who would benefit This course is suitable for engineering and technical management staff who require a technical description of the options that exist in LTE for delivering voice and other real-time traffic types by means of VoIP. Prerequisites Attendance on this course assumes previous attendance on the LTE Engineering Overview course (LT3600) or equivalent basic LTE knowledge (although a recap of basic LTE architecture and concepts is provided at the start of the course) and also assumes a working knowledge of IP. Topic Areas Include Technical overview of LTE Introduction to the options for LTE voice Technical overview of the IP Multimedia Subsystem (IMS) System architecture for Voice over LTE (VoLTE) VoLTE protocols, services and codecs VoLTE power-on and registration procedures VoLTE call setup procedures Access domain selection Single Radio Voice Call Continuity (SRVCC) Delivery of SMS messages over the IMS VoLTE emergency calls Voice over Wi-Fi Also available as a Self-Study Online Learning Programme, learn more.

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This course provides a detailed technical description of the currently specified methods of offering a VoIP service using LTE and the IP Multimedia Subsystem.  This self-paced on-demand distance learning course features illustrated course books, videos, tests and full tutor support. Who would benefit This course is suitable for engineering and technical management staff who require a technical description of the options that exist in LTE for delivering voice and other real-time traffic types by means of VoIP. Prerequisites Attendance on this course assumes previous attendance on the LTE Engineering Overview course (LT3600) or equivalent basic LTE knowledge (although a recap of basic LTE architecture and concepts is provided at the start of the course) and also assumes a working knowledge of IP. Topic Areas Include Technical overview of LTE Introduction to the options for LTE voice Technical overview of the IP Multimedia Subsystem (IMS) System architecture for Voice over LTE (VoLTE) VoLTE protocols, services and codecs VoLTE power-on and registration procedures VoLTE call setup procedures Access domain selection Single Radio Voice Call Continuity (SRVCC) Delivery of SMS messages over the IMS VoLTE emergency calls Voice over Wi-Fi

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Course Code: LT1002 Course Summary This course provides a detailed technical description of the currently specified methods of offering a voice service via LTE. Who would benefit This course is suitable for engineering and technical management staff who require a technical description of the options that exist in LTE for delivering voice and other real-time traffic types, that would traditionally have been carried by Circuit Switched (CS) technologies. Prerequisites Attendance on this course assumes previous attendance on the LTE Engineering Overview course (LT3600) or equivalent basic LTE knowledge (although a recap of basic LTE architecture and concepts is provided at the start of the course) and also assumes a working knowledge of IP. Topic Areas Include Technical overview of LTE Introduction to the options for LTE voice CS fallback architecture and protocols CS fallback attach and call setup procedures Technical overview of the IMS System architecture for Voice over LTE (VoLTE) VoLTE protocols, services and codecs VoLTE power-on and registration procedures VoLTE call setup procedures Access domain selection Single Radio Voice Call Continuity (SRVCC) Delivery of SMS messages over the IMS VoLTE emergency calls Voice over Wi-Fi [Optional] Voice over LTE by Generic Access (VoLGA)

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Course Code: WR1403 Course Summary This course covers the following topics: Overview of M2M; Architecture of M2M; M2M Applications; M2M Networks and Communication Technologies; M2M Ecosystem; M2M Market and Business Dynamics; M2M Security; M2M Standardization and Regulatory Issues; M2M Challenges and Issues and M2M Applications and Case Studies. Who would benefit This course is designed for telecoms professionals who are involved in the planning, design, implementation, operations and management of M2M networks. This course is built in accordance with ETSI/3GPP, OMA and the Internet of Things Architecture (IOT- A) and so is primarily aimed at cellular implementations of M2M. Prerequisites This course comprehensively covers the main topic areas of M2M and as such there are no real prerequisites although a good understanding of telecoms networks and IP routing would be beneficial. Topic Areas Include Introduction to M2M M2M Applications M2M Standardization M2M Protocols and Networking Technologies M2M Security Cellular M2M M2M Challenges and Issues M2M Ecosystem and Market

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Course Contents Introduction to LTE and the Internet of Things (IoT) LTE Technologies for the IoT

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Mobile communication systems were originally designed to support voice (with SMS), but then focused primarily on developing data connectivity. With broadband connectivity representing the major areas of opportunity, networks were standardised, deployed and optimised to fully support that [fairly narrow] set of use cases. More recently, machine to machine communication, the Internet of Things (IoT) and connected innovation have seen massive growth, and become a much bigger part of the communications industry. However, the data connectivity requirements are very different to that of broadband. In order to optimally support this type of data, a number of modifications, new features, and complimentary technologies have been introduced to the networks. In LTE, these are grouped under the term Machine Type Communications (MTC). This course explores the technical aspects of MTC for LTE, and includes an examination of NB-IoT (Narrowband IoT) as a complimentary technology. Initially, the course provides an overview of IoT and low power networking / connectivity systems, and highlights the role and requirements of LTE for MTC. We then look at the features and performance of the different categories of MTC UE (User Equipment), the Air Interface modifications and features, and the Cellular IoT (C-IoT) enhancements to the Evolved Packet Core (EPC). Course Modules Introduction to LTE and the Internet of Things (IoT)  LTE Technologies for the IoT  NB-IoT and IoT Core Network Enhancements 

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Course Code: RP1601 The course covers all of the essential aspects of planning point-to-point microwave link systems, from conception to commissioning. Who would benefit Those involved in the specification, planning and maintenance of fixed microwave radio transmission, backhaul and access links. Prerequisites A good knowledge of radio principles, or a background in telecommunications engineering, or attendance on the Radio Principles course (RP1301). Topic Areas Include ITU-R and CEPT recommendations ETSI standards Spectrum management and channel plans Frequency assignment Digital radio performance characteristics Noise and interference in radio systems Reliability, availability and performance objectives Microwave antennas and feeders Radiation Pattern Envelopes (RPEs) Refraction, k-factor, reflection and diffraction Path profiling and Fresnel zone clearance Power budgets Rain and Multipath/Dispersive fade margins Dimensioning space and frequency diversity Interference management Practical link planning exercises Practical exercises, including design of a fixed link transmission network. Trainer: Karl van Heeswijk Karl is an experienced training specialist in radio theory, point-to-point, point-to-multipoint and mobile systems.

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The course covers all of the essential aspects of planning point-to-point microwave link systems, from conception to commissioning. Who would benefit Those involved in the specification, planning and maintenance of fixed microwave radio transmission, backhaul and access links. Prerequisites A good knowledge of radio principles, or a background in telecommunications engineering, or attendance on the Radio Principles course (RP1301). Topic Areas Include ITU-R and CEPT recommendations ETSI standards Spectrum management and channel plans Frequency assignment Digital radio performance characteristics Noise and interference in radio systems Reliability, availability and performance objectives Microwave antennas and feeders Radiation Pattern Envelopes (RPEs) Refraction, k-factor, reflection and diffraction Path profiling and Fresnel zone clearance Power budgets Rain and Multipath/Dispersive fade margins Dimensioning space and frequency diversity Interference management Practical link planning exercises Practical exercises, including design of a fixed link transmission network.   On-Demand Online Training Our self-paced on-demand distance learning programmes are accessible on any computer, tablet or smartphone and allow you to study at a time and location that is convenient to you. Each course includes: Illustrated Course Books - featuring leading edge knowledge from subject matter experts. Videos - Detailed videos expand the points covered in the course books, discussing topics in greater depth.  Tutor Support – Dedicated course tutors are available to answer any questions you might have throughout your studies. Formative Assessment - Modules include regular quizzes to support learning by testing your knowledge of the subject matter. Certification– Successfully complete the end of module tests to earn Digital Badges to demonstrate the depth of your knowledge of the topic. Also available as a Live Online Training, Learn more

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Understanding where we've come from, and where we're headed – A Primer The hottest topics in the Land Mobile Radio (LMR) market today is the use of LTE/4G/5G as the LMR market is heading for a major change in the delivery of information to and from their mobile portable and in-vehicle devices in the field. As the world embraces 4G/LTE and 5G mobile broadband technologies a shift in culture from voice-centric to information-centric operations - the options and therefore complexity expands exponentially. This course provides fundamental supplier independent knowledge about LMR, the evolving Broadband technologies and its specific features in Mission Critical Communications. Module 1: Overview Of Commercial & Mission Critical Networks The aim of this module is to introduce the broad functional similarities of Commercial and MCC networks whilst explaining the distinct differences in the requirements of the respective user populations.  Mission Critical Networks & Commercial Mobile Broadband Networks Mobile Broadband Network Technologies LMR Mission Critical Network Technologies Module 2: Mission Critical Broadband & Interworking The aim of this module is to explain the changes made to the LTE standards to allow the realization of a Mission Critical Mobile Broadband technology, and explains the deployment options available to users.  Spectrum Security Mission Critical Mobile Broadband Who would benefit? Those working with Private and Professional Mobile Communications wishing to become familiar with Broadband LTE 4G, 5G technologies and the services it can provide along with an appreciation of how Broadband networks can interwork with existing LMR technologies, such as TETRA, P25, DMR and Analogue systems.

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Course Code: TY1201 Course Summary A detailed technical description of the technologies available to be used to support the backhaul requirements of evolved 3G HSPA and next generation 4G LTE access networks. This includes discussions of underlying backhaul architecture and concepts along with more detailed discussions of the technologies employed to support evolved radio access networks, including: Carrier Ethernet, MPLS, fibre-optic transmission and packet-based microwave plus other high capacity backhaul technologies. Who would benefit This course is suitable for engineering and technical management staff who are involved in the commissioning, design, deployment or operation of mobile backhaul networks. Prerequisites An understanding of mobile network architecture and operation would be beneficial as would an appreciation of legacy backhaul technologies such as TDM or ATM. Topic Areas Include What is backhaul? Transport network layered architectures Radio Access Network (RAN) architectures and requirements Industry forums Layer 1 backhaul options Backhaul architecture models Next generation SDH, OTN and packet-based microwave Layer 2 backhaul options Ethernet and 802.1Q VLANs Q-in-Q VLAN stacking Carrier Ethernet MPLS and pseudowires Layer 3 backhaul options IP RAN in HSPA and LTE Synchronization (NTPv4, IEEE1588v2/PTP, Sync-E) Redundancy (MSTP, G.8031/8032) Security options (IPsec, Security Gateway) Next Generation Mobile Network (NGMN) models VLAN traffic forwarding examples for Ethernet-based RANs

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Course Code: MB90 Course Summary An introduction to Intelligent Network (IN) concepts specifically those associated with IN Capability Set 1 (IN-CS1). The course covers the interworking between CAMEL and mobile networks, including the circuit-switched packet-switched domains and the SMS service. Who would benefit Those needing to know how value-added services can be implemented within mobile networks using CAMEL technology. Prerequisites An ability to understand technical language and concepts, and a good knowledge of GSM operation. Knowledge of SS7 is also beneficial. Topic Areas Include Intelligent Network Concepts Intelligent Network – Capability Set 1 Basic Call State Models (BCSM) Detection Points (DP) types and arming CAMEL Phases 1, 2 and 3 features, operation and procedures BCSMs, DPs and CAMEL Subscription Information CAMEL Information Flows CAMEL Interaction with CS and PS mobile networks CAMEL Interaction with CS and PS mobile networks Charging functions Pre-paid solutions and real-time charging Analysis of CAMEL signalling

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Course Code: IP1312 Course Summary A practical look at Multi Protocol Label Switching (MPLS) from the simple Label Switched Path through to Virtual Private Network (VPN) connections and finally looking at MPLS Traffic Engineering. Who would benefit Engineers who would benefit from a practical understanding of how MPLS is configured in networks. Especially those that have to work with MPLS VPNs or Traffic Engineering services. Prerequisites A good grounding in MPLS and VPN principles as obtained by attending our Wray Castle course ‘Multi Protocol Label Switching – IP1307’. Topic Areas Include VPN (Virtual Private Networks) MPLS-based IP-VPN motivation MPLS VPN operation Configuration of VPN sites MP-BGP configuration MP-BGP updates Building different VPN types using route targets Route reflector MPLS traffic engineering MPLS-TE trunk attributes MPLS-TE basic operations Fast restoration of an LSP using RSVP-TE

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Course Code: IP1307 Course Summary An introduction to the topic of Multi Protocol Label Switching (MPLS) looking first at plain vanilla MPLS Label Switched Paths (LSPs) and then progressing through the concepts of MPLS Virtual Private Network (VPN) connections. Who would benefit Engineers are finding MPLS is a variety of different applications from IP VPNs, through to GMPLS in transmission networks. As so this 1-day course will provide an excellent introduction to the topic. Prerequisites A good understanding of IP networking is essential as well as an understanding of OSPF and BGP which can be obtained from attending our ‘Routing Protocol Principles – IP1306’ course. Topic Areas Include Motivation for MPLS MPLS applications view MPLS packet forwarding Architecture of MPLS-based IP-VPNs Forward Equivalence Class (FEC) MPLS label operations Special case labels Label Distribution Protocol (LDP) Virtual Private Networks (VPN) MP-BGP configuration

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This course explains Multi-Access Edge Computing (MEC) and gives examples of possible MEC use cases. It provides a summary of the technologies used to implement the MEC model, delving into the MEC architecture in depth and discussing MEC's challenges. Use Cases are discussed, as well as an overview of MEC standardisation, specifically the various APIs that support MEC applications. The last section looks at the development of MEC applications and services, specifically how these can be built using collaborative methods and proof of concept studies. Topic Areas Include Introduction Enabling Technologies (Cloud and NFV) Enabling Technologies (4G/5G) MEC Architecture Use Cases MEC standards and APIs Annex A Detailed Use Case Study   Speaker: John Timms John Timms is an experienced trainer in IP, VoIP, IPTV, NFV/SDN and IMS/LTE Core.  John is also a former Telemanagement Forum Subject Matter Expert and specialist in QoE for VoIP/VoLTE and IP video services.

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Course Code: IP2201 Course Summary This course is for network engineers who require a practical understanding of Network Functions Virtualisation (NFV).  The course reviews the current NFV situation, introduces the leading bodies defining the standards and discusses the likely fields of application by examining use cases and existing Proof of Concepts (POCs). It discusses NFV from ETSI’s perspective, particularly in light of mobile operators’ intent to virtualise their IMS networks, as well as looking at how NFV relates to other techniques such as Cloud Computing and Software Defined Networking (SDN).  Learning is reinforced with Open Source NFV IMS example. Who would benefit This course is suitable for those who need an understanding of NFV and the deployment considerations associated with NFV; including network, software and IT engineers, as well as managers and consultants. Prerequisites Delegates should have experience or an understanding of the principles or IP networking and routing and preferably some understanding of modern telecommunication’s networks. Topic Areas Include Drivers for Change NFV Functional Architecture NFV Infrastructure (NFVI) NFV Management and Orchestration (MANO) Software Defined Networks (SDN) and NFV NFV ETSI Proof of Concept Projects

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This course is for network engineers who require a practical understanding of Network Functions Virtualisation (NFV).  The course reviews the current NFV situation, introduces the leading bodies defining the standards and discusses the likely fields of application by examining use cases and existing Proof of Concepts (POCs). It discusses NFV from ETSI’s perspective, particularly in light of mobile operators’ intent to virtualise their IMS networks, as well as looking at how NFV relates to other techniques such as Cloud Computing and Software Defined Networking (SDN). Who would benefit This course is suitable for those who need an understanding of NFV and the deployment considerations associated with NFV; including network, software and IT engineers, as well as managers and consultants. Prerequisites Delegates should have experience or an understanding of the principles or IP networking and routing and preferably some understanding of modern telecommunication’s networks. Topic Areas Include Drivers for Change NFV Functional Architecture NFV Infrastructure (NFVI) NFV Management and Orchestration (MANO) Software Defined Networks (SDN) and NFV NFV ETSI Proof of Concept Project

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Course Code: TY2702 Course Summary This 3-day course reviews traditional approaches to transport services such as SDH and WDM and also discusses in detail alternative approaches including Carrier Ethernet and Pseudo Wire services that may be deployed in backhaul and core network applications. Who would benefit Transmission and network engineers who require an insight into modern digital transmission techniques used within fixed and mobile telecommunications networks. Prerequisites A good knowledge of fixed or mobile network transmission and switching architecture, services and applications and some knowledge of packet-switched networks and IP routing protocols. Topic Areas Include Introduction to transport networks Layer 2 virtual circuits – MPLS MPLS based VPNs MEF terminology for Carrier Ethernet Services Provider Bridge networks and Ethernet label-switching PBB service multiplexing Ethernet OAM – Connection Fault and Performance Management SDH Transport Networks SDH Multiplexing Structure and Protection Mechanisms Next Generation SDH review Wave Division Multiplexing (WDM) The Optical Transport Network, principles, multiplexing structures and operation MPLS in optical Networks, GMPLS and ASON Pseudo Wire (PW) principles, encapsulation and the control word Pseudo Wire types, IETF MPLS and TDM based PWs MPLS VLAN-to-VLAN and VPLS service examples

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Course Code: TY1202 Course Summary This course is intended for experienced telecoms engineers that wish to understand the workings of the protocols that are commonly used within Next Generation Networks (NGNs). The course takes a detailed look at real time signalling and transport protocols; it also looks at the protocols used to support legacy devices in the access and core network signalling such as POTS, ISDN and SS7. The course also looks in detail at the protocols supporting the new gateway devices. The course is backed up by an extensive set of exercises and the use of Wireshark. Who would benefit Those requiring a comprehensive understanding of the protocols used in an NGN for the support of voice services. Prerequisites A good understanding of legacy telecommunications networks, plus an understanding of IP networks and signal flows used in support of voice-related services. Topic Areas Include IP convergence Telecoms convergence and NGNs Telecoms (IP) scenarios Real time protocols SIP, RTP and RTCP H.323 call scenario The 3GPP IP Multimedia Subsystem The IMS registration process The IMS call signalling Softswitching architecture and protocols SIGTRAN in the access in support of POTS and ISDN SIGTRAN in the core in support of SS7 H.248 Megaco SIP-I Includes practical signalling exercises.

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As 5G networks become more open, intelligent, and disaggregated, understanding the Open Radio Access Network (O-RAN) is essential for professionals working in mobile network design, deployment, and optimisation. This short, single-module course provides a concise yet comprehensive introduction to O-RAN and its critical role in modern 5G networks. In just three hours, you’ll explore the key architectural and functional components that make O-RAN unique. The course begins with an overview of 3GPP architectural options and how they lay the foundation for NG-RAN deployments. You’ll then examine the principles of RAN functionality and protocols before diving into the detailed architecture of NG-RAN and O-RAN. You’ll gain a solid understanding of functional split options—crucial for enabling multi-vendor interoperability—as well as the differences between traditional and open RAN deployments. The course explains the high-level and logical architectures of O-RAN, including the roles of the Central Unit (CU), Distributed Unit (DU), and Radio Unit (RU), and how open interfaces and intelligent controllers reshape how networks are managed.Additional topics include the application of Artificial Intelligence and Machine Learning in O-RAN, the concept of the O-RAN white box, and critical considerations around fronthaul, backhaul, and interfaces like CPRI and eCPRI. Designed for technical professionals looking for a clear and accessible introduction to O-RAN, this course equips you with the essential knowledge needed to understand the future of radio access networks. Course Contents                         3GPP RAN Architecture for 5G 3GPP Architectural Options RAN Functionality and Protocols NG-RAN Architecture Split Options O-RAN, O-RAN Operations and Maintenance High Level O-RAN Architecture Logical Architecture of O-RAN Artificial Intelligence and Machine Learning O-RAN White Box Backhaul CPRI and eCPRI

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Course Code: RP2401 Open RAN set to transform the Radio Access Networks (RAN) and in turn the Industry that supports it. The ORAN Alliance is working towards an architecture which is open, intelligent, virtualized and fully interoperable with the intention of enabling a more competitive and innovative RAN supplier ecosystem. For the telecommunications operator, Open RAN-compliant mobile networks improve the efficiency and flexibility of RAN deployments and operations – both essential as networks are densified, and as they evolve through the deployment phases of 5G. This course provides a solid introduction to Open RAN, exploring the purpose, features, architecture, operation and deployment options. The way Open RAN principles, and its foundation in virtualisation, supports the evolution to 5G is also discussed, as well as the impact of using ORAN architecture on both the open and standardised interfaces. Who would benefit Those in or entering technical roles in a mobile network operators Radio Access Network (RAN) environment. Prerequisites A basic understanding of cellular radio networks from a radio network perspective as well as the ability to comprehend technical subjects, would be useful. Topic Areas Include Radio Access Networks ORAN Players 3GPP RAN Architecture for 5G Open RAN, O-RAN Operations and Maintenance Whitebox Basestations Trainer: Les Granfield Les is a technical trainer with 35 years of experience. His expertise extends across a wide range of telecommunications technologies. He specializes in GSM, GSM-R, ERTMS/ETCS, UMTS and LTE radio access networks, radio planning, radio access network optimization and Push to Talk over Cellular (PoC).

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This technical course examines the influence of the open-source community on solutions for building and operating a mobile network, as well as open-source projects, open standards, and commercial open-source solutions used in live networks. Who Would Benefit? Network Engineers, System Architects, Operation and Maintenance Teams, Network Planners, Technical Managers, Prerequisites Prior knowledge of mobile networks, open-source principles, and programming is recommended. Familiarity with network architecture, protocols, and operating systems is beneficial. The course is suitable for participants with varying technical backgrounds and those interested in mobile networks and open-source solutions. Course Contents Introduction to Open-Source Software and Mobile Networks Open-Source Software in Radio Access Network (RAN) Open Source: Core Network Solutions  Network Function Virtualization (NFV) and Open Source

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Course Code: IP1310 Course Summary This practically based course is designed to give engineers a working understanding of OSPF and BGP by configuration of routers and switches and investigation of databases and routing tables. Who would benefit Engineers who are moving into IP and need to have an operational understanding of typical devices such as Ethernet Switches and IP routers. Prerequisites A basic understanding of Ethernet switching and basics of routing such as OSPF together with a good understanding of IP addressing which can be obtained by attending our Wray Castle courses: ‘Internetworking, Ethernet LANs and VLANs Principles – IP1304’ and ‘IP Addressing and Internet Protocols Principles – IP1305’ and ‘Routing Protocol Principles – IP1306’. Topic Areas Include The Purpose of Routing The Routing Table Equal Cost Multi Path Redistribution OSPF Areas OSPF Metrics OSPF Database Troubleshooting OSPF OSPF Exercises Border Gateway Protocol Version 4 (BGP4) BGP redistribution BGP Path Attributes BGP Filtering BGP Troubleshooting BGP Exercise

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Course Code: MB1201 Course Summary This course provides an overview of the GPRS system beginning with an overall description of GPRS and progressing through its network architecture and operational aspects. The subsequent sections cover EDGE, the structure of the GPRS air interface and the basics of uplink and downlink packet transfer. Who would benefit Those already working in the GSM industry who require an overview of GPRS operation including its association with EDGE and how it interworks with 2.5G and 3G 3GPP based mobile networks. Prerequisites A good understanding of 3GPP’s GSM network, its architecture and operation would be beneficial together with an appreciation of packet-switching IP-based networks would be advantageous. Topic Areas Include GPRS network architecture The GPRS air interface and Dual Transfer Mode GPRS protocols Identities and addressing Mobility management and Dual Access Location management and Pooling Security and confidentiality Roaming Policy and Charging Content Access Controls The GERAN and Enhanced EDGE Packet-switched procedures 2.5G and 3G packet-switched interworking GPRS and IMS control GPRS and LTE interworking

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