LTE 4G - Telefocal Asia https://www.telefocal.com/course-category/lte-4g/ ABCs of Telecoms | 5G & 5G Security | Satellite Communications | Submarine Cable Systems | Fiber Optics | Transmission Engineering | SDN NFV | Microwave Transmission | LTE 4G 5G | IP Fundamentals Mon, 16 Mar 2026 03:22:49 +0000 en-US hourly 1 https://wordpress.org/?v=6.5.8 https://www.telefocal.com/TAwp/wp-content/uploads/2021/03/Telefocal-Asia-logo_1500x800-Green.svg LTE 4G - Telefocal Asia https://www.telefocal.com/course-category/lte-4g/ 32 32 Mission Critical Services https://www.telefocal.com/courses/mission-critical-services/?utm_source=rss&utm_medium=rss&utm_campaign=mission-critical-services Thu, 22 Feb 2024 07:49:40 +0000 https://www.telefocal.com/?post_type=stm-courses&p=25912 Learn IMS, MCPTT services, and the protocols and implementation strategies for real-time, mission-critical communication.

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As telecommunications networks evolve to support next-generation public safety and critical communications, the transition from traditional Land Mobile Radio (LMR) systems to broadband-based Mission Critical Services (MCx) has become essential. This course provides a comprehensive understanding of the MCx domain, covering Mission Critical Push-To-Talk (MCPTT), MCVideo, and MCData—core functionalities that enhance emergency response, public safety, and enterprise-critical operations. It will discuss how MCx prioritizes critical communications to ensure low latency and high reliability. It will also cover key aspects of MCx implementation, including deployment strategies for both on-premise and cloud-based environments.

Built on IP Multimedia Subsystem (IMS) architecture, MCx services leverage advanced LTE and 5G capabilities to provide seamless and reliable communication. Participants will explore the MCx Logical Architecture, including key components such as the Session Border Controller (SBC) for security and interoperability, the Media Resource Function (MRF) for media processing, and the Common Services Core (CSC) that ensures efficient service orchestration across different platforms.

Key focus areas of the course include end-to-end security in MCx, such as encryption and authorization protocols, MC Identity Management Server (IdMS) for authentication, the Group Management Server (GMS) for user coordination, and the Key Management Server (KMS) to ensure secure communications. Additionally, participants will learn about Group Dynamic Configuration (GDC), enabling flexible and real-time group adjustments, and Short Data Services (SDS), which facilitate low-latency messaging in mission-critical scenarios.

Designed for telecom professionals, public safety agencies, and network operators, this course equips participants with the knowledge needed to deploy, manage, and optimize MCx Common Services. By the end of the training, attendees will have a strong grasp of how these technologies enhance coordination and situational awareness for emergency responders, military operations, transportation, and critical infrastructure sectors.

  • Telecom professionals
  • Network architects
  • Regulatory specialists
  • Government officials
  • Public safety personnel
Instructor-led Training
  • Classroom: 4 days
  • LIVE Virtual: 28 hours

*Note:

  • A minimum of 8 or more participants is required for a Classroom session to commence.
  • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
  • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

19 – 22 Oct 2026 (Mon – Thu), GMT +8
If you are keen on attending the above scheduled course, please register your interest via our course enquiry form.

At the end of this course, participants will:

  • Understand the importance of the services provided by Mission Critical
  • Obtain a detailed understanding of the transition towards Next Generation technologies within the telecommunications industry
  • Acquire familiarity with Mission Critical service standards, including insights into regulatory frameworks, industry norms, and optimal approaches governing Mission Critical communications
  • Engage in a comprehensive exploration of the MCx Solution, gaining insights into its architectural framework and functionalities
  • Explore deep into the complexities of the IP Multimedia Subsystem (IMS), its essential role, constituent elements, and operational dynamics within contemporary telecommunications networks
  • Cultivate expertise in MCPTT Services, encompassing proficiency in authentication, registration, call setup procedures, floor control mechanisms, and related functionalities
  1. Evolution toward Next Generation with MCx
  • Understanding the Transition towards Next Generation Technologies
  • PS-LTE Network Architecture
  • MCx Services and Call Scenarios
  • MCx Solution and its Significance
  • Mission Critical Service Standards
  1. IP Multimedia Subsystem (IMS)
  • Introduction to IMS
  • Role of IMS in Modern Telecommunications
  • SIP Handset (User Equipment) and Voice Over LTE (VoLTE) Blocks
  • IMS and LTE Network Architecture
  • Key IMS Components
    • SIP Server (S-CSCF)
    • Media Gateway
    • IP Connectivity Access Network (IP-CAN)
    • SIP Proxy (P-CSCF)
    • Interrogator (I-CSCF)
    • Home Subscriber Server (HSS)
    • App Server (AS)
    • Media Control
    • Media Gateway Entities
    • PCRF (Policy and Charging Rule Function)
    • Media Resource Function (MRF)
    • Breakout Gateway Control Function (BGCF)
  • IMS Interfaces and their Functionalities
  1. Mission Critical Services
  • MCX Application Server Functions
  • IMS based SIP Core Solution
  • The Role of HSS, CSCF, Session Border Controller (SBC) and MRF in IMS based SIP Core Solution
  • MCX Logical Architecture
  • Details of MCx Calls
  1. MCX Common Services
  • Overview of MC Common Services
  • MCx System Application Plane and its functionalities
  • Application Plane for Mission Critical Services
  • Common Services Core (CSC) and its Supported Reference Points
  • MC Identity Management (IdMS), Configuration Management Server (CMS), Group management server (GMS), Key Management Server (KMS), and Group Dynamic Configuration (GDC)
    1. MC Push To Talk (MCPTT)
    • Overview of MCPTT Service
    • MCPTT Identities
    • MCPTT Interworking with Legacy Systems (GSM-R, TETRA, PMR)
    • MCPTT Authentication, Registration, and Authorization Service
    • MCPTT Calls Types
      • Private Call
      • Group Call
      • Emergency Call
    • MCPTT Call Setup procedures, Floor Control, Priority, Preemption, and other Functionalities
    1. MCData Service
    • Introduction to MCData Services
    • Short Data Services (SDS), File Distribution (FD), and Chat Group Call Functionalities
    • MCPTT Chat Group Call and Group File Distribution (FD)
    Note: A Certificate of Completion will only be issued upon achieving at least 75% attendance for the course.
    Submit Course Enquiry

    The post Mission Critical Services appeared first on Telefocal Asia.

    ]]>         4G LTE Signaling, Protocols and Procedures https://www.telefocal.com/courses/4g-lte-signaling-protocols-and-procedures/?utm_source=rss&utm_medium=rss&utm_campaign=4g-lte-signaling-protocols-and-procedures Thu, 25 May 2023 02:06:23 +0000 https://www.telefocal.com/courses/srsran-advanced-operations-copy/ This course utilizes the Open Source srsRAN tool to discuss methodical approaches of installation and troubleshooting across the LTE E-UTRAN.

    The post 4G LTE Signaling, Protocols and Procedures appeared first on Telefocal Asia.

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    This course provides participants with a comprehensive overview of the LTE system from a signaling perspective. Participants will review the LTE system architecture and interfaces and gain an understanding of how the user plane and control plane protocols are implemented in LTE. Each protocol will be thoroughly explained to help participants develop a strong foundation for further analysis of overall signaling procedures.

    • Network Operators
    • Equipment Manufacturers
    • Regulators
    • Technical staff who require an in-depth understanding of LTE signaling
      • System Engineers responsible for testing and verification
      • Telecom professionals supporting implementation, network operations and maintenance
      • Professionals in LTE hardware and software development)
    Instructor-led Training
    • Classroom: 4 days
    • LIVE Virtual: 28 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming schedules for this course. If you are keen on attending this training, please register your interest via our course enquiry form for us to open a new schedule for this course.

    This training aims to equip participants with a comprehensive understanding of LTE-specific signaling protocols and procedures. At the end of this course, participants will be able to:

    • Analyze and troubleshoot non-access stratum and access stratum signaling in LTE
    • Explain the concept of User Plane and Control Plane protocols in LTE
    • Evaluate the role of Radio Link Control (RLC), Radio Resource Control (RRC), and Packet Data Convergence Protocol (PDCP) in LTE
    • Analyze and troubleshoot MAC procedures in LTE
    • Follow message sequences on various interfaces in LTE
    • Evaluate interworking with non-LTE systems
    • Apply learned concepts to analyze and optimize LTE signaling procedures
    • Identify and troubleshoot signaling issues in LTE
    • Develop a strong foundation in LTE signaling and protocols

    Participants will gain an extensive knowledge of LTE signaling implementation, including the concepts of non-access and access stratum, and detailed information on the most significant protocols. This will enable them to describe signaling message flows in LTE systems over various interfaces with confidence and accuracy.

    By the end of the course, participants will have a thorough understanding of LTE signaling, which will help them analyze and troubleshoot signaling issues in LTE networks, as well as identify opportunities for optimization and improvement.

    1. LTE Architecture and Components
    • Core network: SAE Overciew
    • Access Network: E-UTRAN Overview
    • Roaming Architecture
    • Interworking with other Networks
    1. Generic LTE/SAE Protocol Architecture
    • User Plane
    • Control Plane
    • Quality of Service (QoS) Concept
    • EPS Bearers
    1. E-UTRAN Network Interface: S1
    • Protocol Structure 
    • Initiation over S1
    • Context Management
    • Bearer Management 
    • Paging over S1
    • Mobility over S1
    • Load Management

    4. E-UTRAN Network Interface: S1

    • Protocol Structure
    • Initiation over X2
    • Mobility over S2
    • Load and Interference Management
    • UE Historical Information over X2

    5. Control Plane Protocols: Radio Resource Control (RRC)

    • System Information
    • Connection Control in LTE
    • Connected Mode Inter-RAT Mobility
    • Measurements
    • PLMN and Cell Selection
    • Cell Reselection Paging
    6. User Plane Protocols: Packet Data Convergence Protocol (PDCP)
     
    • Functions and Architecture
    • Header Compression
    • Security
    • Handover
    • PDU Formats
    • Discard of Data Packets
    7. User Plane Protocols: Radio Link Control (RLC)
     
    • RLC Entities
    • Transparent Mode – TM – Entity
    • Unacknowledged Mode – UM – Entity
    • Acknowledged Mode – AM – Entity
    • RLC PDU Formats
    8. User Plane Protocols: Medium Access Control (MAC)
     
    • Mac Architecture
    • Mapping of Logical Channels to Transport Channels
    • Mac Procedures
    • Random Access
    • Uplink Time Alignment
    • Downlink Data Transfer
    • Uplink Data Transfer
    • PDUs and Formats
    9. Non-Access Stratum – NAS Signaling
     
    • NAS Protocol States and Transitions
    • NAS Security
    • Integrity Protection
    • Non-access Stratum Protocols
    • Evolved Mobility Management – EMM
    • Evolved Session Management – ESM
    • Mobility Management across EMM states
    • EMM Procedures
    10. Evolved GTP: GTPc2-C
     
    • GTP Stack
    • GTP Format
    • Messages 
    • Path Management
    • Tunnel Management
    • Mobility Management

    NIL

    Submit Course Enquiry

    The post 4G LTE Signaling, Protocols and Procedures appeared first on Telefocal Asia.

    ]]>         srsRAN Advanced Operations https://www.telefocal.com/courses/srsran-advanced-operations/?utm_source=rss&utm_medium=rss&utm_campaign=srsran-advanced-operations Tue, 13 Jul 2021 07:49:33 +0000 https://www.telefocal.com/TAwp/index.php/courses/deploying-private-lte-srsran-copy/ This course will utilize the Open Source srsRAN tool to discuss methodical approaches of installation and troubleshooting across the LTE E-UTRAN. It will provide participants with a detailed examination of the LTE Radio and Evolved Packet Core.

    The post srsRAN Advanced Operations appeared first on Telefocal Asia.

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    This course will utilize the Open Source srsRAN tool to discuss methodical approaches of installation and troubleshooting across the LTE E-UTRAN. It will provide participants with a detailed examination of the LTE Radio and Evolved Packet Core.

    Network and Telecom Engineers and Technical Staff involved in development, testing, and deployment requiring comprehensive details of LTE and LTE-Advanced Network Architecture, procedures and operations.

    Instructor-led Training
    • Classroom: 3 days
    • LIVE Virtual: 21 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred training dates via course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    At the end of this course, participants will be able to:

    • Emulate an LTE network on Linux
    • Install the latest srsRAN release for Ubuntu
    • Build srsRAN / srsGUI
    • Understand real LTE parameter settings
    1. Configuring the UE
    • Use of ue.conf File
    • Setting the Operation Frequency
    • SIM Configuration
    • Automatic Gain Control (AGC)
    • Advanced Usage (External USIM, MIMO)
    • Observing Results
    • The gr-fosphor Tool
    1. Using the eNodeB
    • eNodeB Architecture
    • Details of RF Configuration
    • Expert Configuration Options
    • COTS UE Issues
    • Peak Throughput
    • Using MIMO
    • Observing Results
    1. Using the ePC
    • HSS Database
    • Running eNBs and srsEPC on Separate Machines
    • MME Configuration
    • SGW & PGW Configuration
    • Examples of ePC Configuration Errors

    NIL

    Submit Course Enquiry

    The post srsRAN Advanced Operations appeared first on Telefocal Asia.

    ]]>         Deploying Private LTE Using srsRAN https://www.telefocal.com/courses/deploying-private-lte-srsran/?utm_source=rss&utm_medium=rss&utm_campaign=deploying-private-lte-srsran Thu, 01 Jul 2021 09:38:57 +0000 https://www.telefocal.com/TAwp/index.php/courses/volte-principles-roaming-security-copy/ This is an intensive 5-day course that focuses on the advanced aspects of LTE technology and applications. The following topics will be addressed:
    Detailed analysis of layer 1 and 2 protocol functions
    LTE design, planning, deployment and rollout strategies and its relationship with already deployed 3G networks
    Introduction to LTE optimization of services
    All-IP network architecture (including insightful introduction of IMS) will be analyzed
    Practical hands-on with Open Source srsRAN 4G network

    The post Deploying Private LTE Using srsRAN appeared first on Telefocal Asia.

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    This course focuses on advanced LTE technology, covering design, planning optimization, and practical applications. Participants will gain insights into up-to-date LTE technology and 3GPP standards up to Release 10, with a detailed analysis of layer 1 and 2 protocol functions.

    The curriculum includes discussions on LTE design, planning, deployment, and rollout strategies, with a specific focus on its relationship with existing 3G networks. Practical aspects of LTE service optimization are explored, and participants will be introduced to the All-IP network architecture, including IMS (IP Multimedia Subsystem).

    A significant aspect of the course involves hands-on experience with the open-source srsRAN 4G network. Participants will use the srsRAN software to understand real LTE parameter settings, bridging the gap between theory and practical implementation.

    By the end of the course, participants will have a practical skill set to deploy private LTE networks using srsRAN, making them well-equipped for real-world applications.

    • Technical managers who wish to acquire an in-depth understanding of LTE
    • Technical managers who wish to understand the differences between LTE and 3G
    • Development, application and deployment engineers who require a master level of knowledge on LTE
    Instructor-led Training
    • Classroom: 5 days
    • LIVE Virtual: 35 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred training dates via our course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    At the end of the course, participants will be able to:

    • Gain an in-depth knowledge of the LTE technology to confidently launch an LTE network, one that is designed for the next generation of multimedia services
    • Apply LTE design, planning, deployment, and rollout strategies
    • Optimize LTE services by implementing practical strategies and solutions
    • Explain the All-IP network architecture
    • Utilize the srsRAN software to configure real LTE parameter settings and deploy private LTE networks confidently
    1. Introduction
    • Wireless Standards Overview
    • 3GPP Standard Timeline
    • Why LTE?
    • LTE Standard Characteristics
    • LTE Goals and Means
    • LTE and ITU
    • Network Architecture
    1. LTE Principles
    • The Mobile Broadband Wireless Channel
    • OFDM
    • Frequency and Temporal Diversity
    • OFDMA and SC-FDMA
    • TDD vs. FDD
    • RF Front-End
    • Network Topologies
    1. LTE Physical Layer – Advanced Level
    • Features Overview
    • Resource Blocks
    • Uplink and Downlink Physical Layer Channels
    • Physical Layer Signals (Reference and Synchronization)
    • Channel Encoding
    • HARQ
    • Frequency Reuse
    • Power Control
    • Handover
    • Physical Layer Data Rates
    1. Software Defined Radio
    • SDR Architectures Applied to LTE
    • Installation of a Test Bed Based on Open 4G Software
    • Open Source srsRAN Presentation
    • First Parameters Setting 
    1. LTE MAC and RRC Layer
    • Architecture
    • Control Plane
    • User Plane
    • LTE Access Procedures
    • Random Access
    • Registration
    • Mobility Procedure
    • Paging
    1. LTE Deployment and Radio Planning
    • Link Budget Examples
    • Coverage Planning Example
    • Base Station Features and Network Performance
    • Reference Signal Planning
    • RA Preamble Planning
    1. LTE Operation Parameterization
    • Cell Selection Re-Selection Parameters
    • Traffic Channel Operations
    • Handover Parameters
    • Power Control
    • Parameters Setting and Connectivity Practical Testing
    1. Enhanced Packet Core (EPC) Introduction
    • LTE/EPC Architecture
    • EPC Nodes and Functionality
    • Key Interfaces
    • Key Features and Services
    • EPC Protocols
    • NAS Protocol States
    • EMM and ESM
    • GTPv2-C, GTP-U, PMIPv6
    • Diameter and the Role of SCTP
    1. E2E Signaling
    • Traffic Flows
    • EPC Network Access, Session and PDN
    • Connectivity
    • PLMN Access
    • Attach Procedure
    • MME, S-GW and P-GW Selection
    • EPS Bearer Setup, Establishment and TEIDs
    • IP Management Mechanisms
    • Session Management
    • Connectivity Analysis
    Note: A Certificate of Completion will only be issued upon achieving at least 75% attendance for the course.
    • A strong knowledge of wireless communication systems is required
    • Experience with 3G radio technologies is a must, preferably HSPA
    • Strong background (or practical experience) of IP related technologies and PC analysis tools is preferred
    Submit Course Enquiry

    The post Deploying Private LTE Using srsRAN appeared first on Telefocal Asia.

    ]]>         Voice over LTE (VoLTE) Workshop https://www.telefocal.com/courses/volte-workshop/?utm_source=rss&utm_medium=rss&utm_campaign=volte-workshop Thu, 01 Jul 2021 09:33:35 +0000 https://www.telefocal.com/TAwp/index.php/courses/lte-cell-planning-dimensioning-copy/ This course provides participants with a good technical understanding of the different types of LTE voice endorsed by 3GPP and the LTE industry. It will cover in depth the procedural call flows and network optimization steps that are required to deliver high performance and quality voice services. The course also will cover Wi-Fi Calling (VoWiFi), its call flows, handover, and performance optimization for a holistic and uniform packet-based voice service.

    The post Voice over LTE (VoLTE) Workshop appeared first on Telefocal Asia.

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    This course provides participants with a good technical understanding of the different types of LTE voice endorsed by 3GPP and the LTE industry. It will cover in depth the procedural call flows and network optimization steps that are required to deliver high performance and quality voice services. The course also will cover Wi-Fi Calling (VoWiFi), its call flows, handover, and performance optimization for a holistic and uniform packet-based voice service.

    • Radio and Packet Core Engineers, Managers, and Project Managers
    • IP Engineers
    • Technical Product Managers
    • Technical Marketing Officials
    • Technical Strategy Officials
    Instructor-led Training
    • Classroom: 5 days
    • LIVE Virtual: 35 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred start/end training dates via our course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    The course describes in-depth the technological solutions and standards that will enable the migration of telephony services (Voice and SMS) to LTE/EPC networks.

    At the end of this course, participants will be able to:

    • Understand and describe VoLTE and Wi-Fi Calling
    • Understand the EPC/SAE architecture and its components in relation to VoLTE
    • Describe SRVCC and its evolution
    • Describe how IMS works and how is it related to Voice delivery
    • Describe E2E signalling of SIP, VoLTE and VoWiFi
    • Understand how to plan and optimize LTE & EPC to deliver VoLTE
    • Understand how to engineer both LTE and Wi-Fi for best possible VoLTE/VoWiFi Quality of Experience (QoE)

    After successful completion of the course, participants will be proficient enough to design, plan and optimize a best-in-class VoLTE service that satisfies the current and future market requirements.

    1. VoLTE System Architecture
    • Evolved Packet Core Overview
    • Control and IMS overview
    • Interfaces for E2E VoLTE Experience Assurance
    1. VoLTE Functionality
    • Radio Functionality
    • EPC functionalities
    • IMS Identification
    • IMS Service Provisioning
    • IMS MMTel
    1. VoLTE End-to-End Signalling
    • Subscription & Device Configuration
    • EPS Attach and Default Bearer Activation
    • IMS SIP & SDP for VoLTE
      • SIP & SDP Technical Overview
      • SIP Message and Structure
      • SIP & SDP Parameters
      • SIP Addressing
      • SIP Interoperability
      • Call Message Flows
    • IMS Registration
    • IMS VoIP Session
    • VoLTE Codecs
    • Voice Continuity (SRVCC)
      • SRVCC Evolution
      • SRVCC Signalling (From Rel 8 to Rel 12)
      • SRVCC, eSRVCC, aSRVCC, vSRVCC, rSRVCC
    • E2E Call Flow Scenarios
      • VoLTE <-> VoLTE
      • VoLTE <-> 3G CS
      • VoLTE <-> PSTN
    • VoLTE emergency session
    • VoLTE Messaging
    • VoLTE Supplementary Services
      • End-to-End Signaling
      • Optimization
    • CS Fallback
    1. Voice over Wi-Fi Overview
    • Standardization: LTE <-> WiFi Voice Mobility
    • Hotspot 2.0
    • ANDSF
      • ISMP, ISRP
    • SiPTO
    • Diameter Messages
    • Functionality and Signalling of VoWiFi
      • Call Signalling
      • Media Streams
      • Call Setup and Mobility Procedures (S2a, S2b)
    • Trusted Wi-Fi Access in EPC
    • Untrusted Wi-Fi Access in EPC
    1. VoLTE Planning & Optimization
    • VoLTE Planning
    • LTE Radio (Coverage, Capacity, Codec, Radio Resource Allocation Optimization)
    • Mobile Backhaul and Transmission Requirements
    • DRX Optimizations
    • EPC & IMS Configurations
    • Wi-Fi / EPC
    • VoLTE KPIs and AQ-KPIs – Optimizing E2E User Experience
    1. Voice over WiFi Planning & Optmization
    • VoWiFi Audit & Survey
    • Traffic / Capacity Planning
    • QoS and Codec Optimization
    • 802.11e Extensions, WMM
    1. E2E VoLTE/VoWiFi QoE
    • UE Capabilities
      • VoLTE, SRVCC
      • FGI
      • VoWiFi (EAP-SIM, WMM, HS2.0)
    • MOS for VoLTE
    • Engineering E2E Voice QoE
      • Optimization Radio
      • Optimization IP Layer
      • 3G <-> VoLTE
      • VoLTE <-> VoWiFi
    • A basic knowledge of the LTE/EPC and legacy 2G/3G systems (GSM/UMTS)
    • A basic understanding of IP-based communications
    Submit Course Enquiry

    The post Voice over LTE (VoLTE) Workshop appeared first on Telefocal Asia.

    ]]>         LTE Cell Planning and Dimensioning https://www.telefocal.com/courses/lte-cell-planning-dimensioning/?utm_source=rss&utm_medium=rss&utm_campaign=lte-cell-planning-dimensioning Thu, 01 Jul 2021 09:32:11 +0000 https://www.telefocal.com/TAwp/index.php/courses/lte-transmission-core-network-planning-copy/ This course introduces participants to the Long Term Evolution (LTE) or 4G cellular network. It will first explain the radio channel conditions, RF propagation and frequency planning. Next, the practical issues on air interface that can be resolved by OFDM/MIMO will be covered. Link budgets, cell edge and capacity coverage principles will also be described in detail. Attention will also be given to post processing techniques like KPI analysis and troubleshooting.
    All in all, the various techniques covered in this course will equip participants with the necessary knowledge in handling post processing tools and developing ideas which are useful to optimise radio access network with real network traffic.

    The post LTE Cell Planning and Dimensioning appeared first on Telefocal Asia.

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    This course provides a structured approach to Long Term Evolution (LTE) or System Architecture Evolution (SAE) cell planning and dimensioning, equipping participants with the expertise to design and optimize LTE networks while ensuring efficient coverage planning and network performance. It also bridges earlier mobile access technologies such as UMTS and GPRS, preparing participants for seamless LTE and VoLTE implementation.

    Participants will gain in-depth knowledge of LTE architecture, channels, and protocols, enabling them to analyze key network elements involved in radio propagation and coverage planning. The course covers uplink/downlink link budget calculations and simulations, helping participants accurately determine cell radius and system capacity. Additionally, frequency planning principles and capacity considerations will be explored to ensure efficient spectrum utilization and service quality.

    A strong focus is placed on network interference management, where participants will learn how to evaluate its impact on throughput, frequency planning, and scheduler performance. Through radio optimization techniques, they will develop strategies to enhance LTE KPIs, improve end-user experience, and troubleshoot network issues using key cell planning troubleshooting principles and parameters.

    By the end of the course, participants will be able to apply these methodologies to optimize LTE network performance, mitigate interference, and ensure high-quality mobile broadband services.

    • Mobile Networks Engineers who wish to gain knowledge about LTE planning and optimizing principles
    • Radio Network Planners who wish to learn more about the e-UTRAN
    • Multimedia Engineers who wish to learn the concepts and theory of LTE-SAE that transports services to the users
    Instructor-led Training
    • Classroom: 5 days
    • LIVE Virtual: 35 hours

    *Note:

    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred training dates via our course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    At the end of this course, participants will be able to:

    • Understand the fundamentals of LTE/SAE architecture, including network elements, channels, and protocols
    • Perform coverage planning and analyze radio propagation to ensure optimal LTE network performance
    • Conduct uplink/downlink link budget calculations and simulations to determine cell size and system capacity
    • Apply frequency planning principles to minimize interference and enhance spectrum efficiency
    • Evaluate capacity considerations for LTE network design and traffic handling
    • Optimize LTE networks using key radio optimization techniques to improve throughput and end-user experience
    • Analyze and troubleshoot LTE network performance using cell planning troubleshooting principles and parameters
    • Define and interpret LTE KPIs to assess and enhance network performance
    • Identify and mitigate network interference through effective throughput calculations and scheduler performance analysis
    • Develop strategic approaches for LTE and VoLTE deployment, considering real-world network constraints and challenges
    1. Introduction to LTE/SAE
    • Evolution of Cellular Networks
    • 3GPP Releases (Release 99 to Release 8)
    • EPS (E-UTRAN and EPC) Logical Architecture
    • ePS Interfaces
    • EPC (EVOLVED PACKET CORE) Architecture Description
    • SAE/LTE Interfaces – Description
    1. Coverage Planning and Radio Propagation Analysis
    • Propagation Mechanisms, Propagation Models and Cell Range Calculation Methods
    • Frequency Selective Channels
    • Time Dependant Radio Channels
    • Multipath Radio Conditions – Delay, Doppler Spectrum
    • Multi-Antenna Channel Model
    • Macro Cell Propagation Model – Urban Case
    • Macro Cell Propagation Model – Rural Case
    • OFDM Channel Models – ITU Proposal
    • Exercises
    1. LTE Architecture, Channels and Protocols
    • UMTS/HSPA Air Interface Channel Structure
    1. Frequency Planning Principle
    • Channel Allocation
    • Basic Schemes
    • Factional Loading
    • Multiple Reuse Patterns
    • Reuse Partitioning
    1. Uplink/Downlink Link Budget and Simulations
    • Uplink Noise Considerations
    • Uplink Link Budget
    • Uplink Number of Cells Considerations
    • Uplink Coverage Calculations on Cell Edge
    • Downlink Noise Considerations
    • Downlink Link Budget
    • Downlink Number of Cells Considerations
    • Downlink Coverage Calculations on Cell Edge
    1. Capacity Considerations
    • Theoretical Presentation
    • Capacity Loss from Interference
    • Resource Allocation Principles
    • Frequency-planned Systems
    • Reuse-1 with Prioritization
    • Soft Frequency Reuse
    • Reuse Partitioning
    • Frequency Planning and Capacity Parameters
    • Spectrum Utilization Factor
    • Average Uplink/Downlink SINR Calculation
    • Average User Throughput Optimization
    • Indoor Coverage – Interference Cancellation
    • Examples and Discussion
    • Case Studies
    1. Radio Optimization
    • Statistical Counters – Short Description
    • Service Accessibility Description
    • Optimizing Accessibility with Cell Planning Tuning
    • Service Retainability Description
    • Optimizing Service Retainability with Cell Planning Tuning
    • Service Integrity Description
    • Service Integrity Description with Cell Planning Tuning
    • Case Studies
    1. Cell Planning Troubleshooting Principles and Parameters
    • Cell Tuning Principles
    • Interference Measurements
    • Tuning Macro Cell Scenarios
    • Cell Coverage Analysis and Verification Principles
    • Overshooting and Cell Border Analysis
    • Tuning Hot-spot Scenarios
    • GSM-WCDMA Interoperability Measurements
    • Initial Parameter Settings
    • RACH Parameters
    • TAI Settings for Normal and ISR Operation
    • Power Planning Parameters
    • Paging
    1. LTE KPI’s Definitions
    • KPI’s for Accessibility
    • KPI’s for Retainability
    • KPI’s for Integrity
    • KPI’s for Intra and Inter Mobility Performance
    • Case Studies

    Note: A Certificate of Completion will only be issued upon achieving at least 75% attendance for the course.

    A knowledge of LTE principles and LTE air interface is desired.

    Submit Course Enquiry

    The post LTE Cell Planning and Dimensioning appeared first on Telefocal Asia.

    ]]>         LTE Transmission and Core Network Planning https://www.telefocal.com/courses/lte-transmission-core-network-planning/?utm_source=rss&utm_medium=rss&utm_campaign=lte-transmission-core-network-planning Thu, 01 Jul 2021 09:30:51 +0000 https://www.telefocal.com/TAwp/index.php/courses/4g-lte-signaling-protocols-procedures-copy/ This course introduces LTE IP transport network solutions to transmission design engineers. LTE Transport Network should accommodate the traffic created by cellular coverage. Thus, the correct dimensioning of the Transport Network is critical from the QoS and capacity point of view. Several technologies could be implemented, such as IP over ATM or IP over Ethernet. Mobile Packet Backbone Network solutions are described in detail and are supported by case studies to help transport designers understand the diverse techniques that can be deployed. Mastering these techniques, participants will learn how to contribute to end-­to-­end user throughput optimization.

    The post LTE Transmission and Core Network Planning appeared first on Telefocal Asia.

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    This course introduces LTE IP transport network solutions to transmission design engineers. LTE Transport Network should accommodate the traffic created by cellular coverage. Thus, the correct dimensioning of the Transport Network is critical from the QoS and capacity point of view.

    Several technologies could be implemented, such as IP over ATM or IP over Ethernet. Mobile Packet Backbone Network solutions are described in detail and are supported by case studies to help transport designers understand the diverse techniques that can be deployed. Mastering these techniques, participants will learn how to contribute to end-­to-­end user throughput optimization.

    • Mobile Networks Engineers who wish to gain knowledge about the latest LTE transport network design principles and implementations
    • Radio network planners who would like to learn more about the capacity planning of the transport network
    • Multimedia Engineer who would like to learn the concepts and theory of LTE/SAE that transports services to mobile users.
    Instructor-led Training
    • Classroom: 5 days
    • LIVE Virtual: 35 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred start/end training dates via our course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    1.   Introduction to LTE / SAE
    2.   LTE Principles
    3.   eUTRAN Presentation
    4.   ePC Presentation
    5.   ePC Nodes And Interfaces
    6.   LTE Nodes (HSS, MME,ENODEB, PCRF, PDN GW, SGW, EPDG)
    7.   ePC Signaling And Protocols
    8.   EMM Common Procedures
    9.   IP Overview and Description
    10.   SS7 Signaling Overview
    11.   SS7 Signaling in LTE
    12.   UMTS Security
    13.   LTE / EPC Security Procedures
    14.   Core Network Configurations
    15.   MME and SGW / PGW Key Dimensioning Rules
    16.   New Availability and Reliability Requirements in 3G and LTE Transmission Links
    17.   OSI Layers 1, 2 and 3 and their Roles in LTE Link Planning
    18.   Definition of an All IP 3G LTE Network and New Planning Considerations
    19.   Overview Latency and Jitter in 3G LTE Transmission Networks
    20.   3GPP Delay and Jitter Requirements between eNodeB and ePC for 4G Access links
    21.   Access Network Architecture and Topology Planning
    22.   Microwave Transmission Overview
    23.   LTE Backbone Dimensioning
    24.   LTE Backbone Design
    25.   Planning 4G Access Links with IP-Based MW Radios
    26.   Traffic Shaping, Engineering and Protection Levels in IP Radios
    27.   Step-by-Step 4G Network Dimensioning Processes
    28.   Overview LTE Traffic Requirement and Analysis
    29.   Concept of CIR and PIR in Data Links Planning
    30.   Overview of TDM Microwave Radios and IP Packet Radios
    31.   Details of IP over TDM and Native Ethernet Radios
    32.   Services Classification
    33.   Link­by­Link Dimensioning
    34.   4G Network Synchronization Planning
    35.   End-to-End Network Testing and Performance Measurements

    NIL

    Submit Course Enquiry

    The post LTE Transmission and Core Network Planning appeared first on Telefocal Asia.

    ]]>         LTE 4G and 5G Mobile Networks https://www.telefocal.com/courses/lte-4g-5g-mobile-networks/?utm_source=rss&utm_medium=rss&utm_campaign=lte-4g-5g-mobile-networks Thu, 01 Jul 2021 09:24:11 +0000 https://www.telefocal.com/TAwp/index.php/courses/lte-transport-network-design-copy/ In this course, you will gain in-depth knowledge of the global architecture of the 4G network, how the radio interface works, and how security is guaranteed. You will also understand the limitations of 4G and the need for 5G. It will cover the next major phase of wireless and mobile communication technologies and standards beyond the current 4G/IMT-Advanced Standards.

    The post LTE 4G and 5G Mobile Networks appeared first on Telefocal Asia.

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    In this course, you will gain in-depth knowledge of the global architecture of the 4G (LTE) network, how the radio interface works, and how security is guaranteed. You will also understand the limitations of 4G and the need for the transition to 5G. It will cover the current major phase of wireless and mobile communication technologies and standards, building upon and significantly advancing the 4G/IMT-Advanced Standards.

    This course includes topics like radio channels, RF, antennas, propagation, architecture, components, cellular/backhaul and applications that will revolutionize the form and operation of mobile network operators. Participants will find out how 5G wireless networks perform as compared to 4G, in terms of speed, agility and intelligence. New trends and use cases enabled by 5G technologies will also be discussed in detail. Operators will be able to leverage these new technologies and applications to propel their business to the next level, in an age of all-software defined business.

    This course is designed for professionals who are interested to understand 4G LTE and 5G technologies and its use cases.

    • Radio, Packet Core Engineers and Managers involved in the planning and design of wireless networks
    • Project Managers
    • IP Engineers
    • Technical Product Managers
    • Technical Product Marketing Professionals
    • Technical Strategy Officials
    • C-Level Decision Makers & Executives
    • Regulators
    Instructor-led Training
    • Classroom: 5 days
    • LIVE Virtual: 35 hours

    *Note:

    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    13 – 17 Jul 2026 (Mon – Fri), GMT +8
    If you are keen on attending the above scheduled course, please register your interest via our course enquiry form.

    At the end of this course, participants will be able to:

    • Describe the 4G system and architecture
    • Understand the 4G different nodes role
    • Explain the RF, PHY, MAC and Core network operation of 5G
    • Compare the 4G and the 5G structures
    • Describe what 5G is
    • Describe the 5G technology drivers
    • List the 5G features and their benefits
    • Describe the 5G network architecture and its key technologies
    • Illustrate the 5G architecture and components
    • Explain the RF, PHY, MAC and Core network operation of 5G
    • Understand the network slicing principles
    • Describe typical 5G Use Cases and deployment scenarios
    • Describe the conditions necessary to support 5G deployments
    • Describe how to deploy 5G small cells for their coexistence with pre-5G macrocells
    • Describe advanced wireless technology concepts like Massive MIMO, Virtualized RAN and more

    This course presents updated information on the 4G LTE / LTE-Advanced technology and the corresponding 3GPP standards. The key features of the 4G wireless technology will be covered, specifically Release 10 to 12. Multiple antenna technology including Coordinated Multi-Point, Carrier Aggregation (CA), and Heterogeneous Networks (HetNet) and Self-Organizing Networks (SON) will be discussed. It will then describe 5G network architecture, system components, and network slicing principles. Typical 5G use cases and deployment scenarios will also be covered.

    At the end of the course, participants will gain key concepts of 4G LTE / LTE Advance and 5G network technologies and migration strategies. They will be able to plan and design a best-in-class Software-Defined 5G wireless network that offer leading-edge applications that would satisfy both current and future market requirements.

    1. Introduction
    • Wireless Standards Overview
    • Why 4G?
    • LTE / LTE Advanced Standard Characteristics
    • Network Architecture and Application
    • Cut the Complexity: Converged / Single RAN Architecture
    1. LTE Principles
    • OFDM vs Single Carrier
    • Frequency and Temporal Diversity
    • OFDMA and SC-FDMA
    • TDD vs FDD
    1. LTE Physical Layer
    • Features Overview
    • Resource Blocks
    • Uplink and Downlink Physical Layer Channels
    • Physical Layer Signals (Reference and Synchronization)
    • Channel Encoding
    • HARQ
    • Frequency Reuse
    • Power Control
    • Multicast and Broadcast Services (Single-Frequency Network SFN)
    • Physical Layer Data Rates
    1. Multiple Antenna Techniques
    • Beamforming
    • MIMO
    • Space-Time Encoding
    • Active Antenna Arrays (AAA)
    • CoMP
    • Deployment Options
    1. LTE-A Specifics
    • Carrier Aggregation (CA)
    • Relaying
    • Inter-Cell Interference Cancellation (eICIC)
    • eICIC Messaging
    • HetNet (Power Offset, PRB Blanking)
    • SON Enhancements (Power, Frequency)
    • eMBMS
    1. LTE Core Network Basics
    • EPC
    • Core Network Architecture
    • Core Elements
    • MME
    • S/P-GW
    • HSS
    • PCRF
    • GPRS Tunneling Protocol
    • Roaming
    • 2G / 3G Roaming
    • IMS
    • SIP
    1. 5G Mobile Networks
    • 5G Architecture
    • 5G Core Network  Architecture
    • 5G Core Network Important Innovations
    • Network Slicing
    • Service-Based Architecture
    • Uniform 3GPP and Non-3GPP Access
    • New QoS Model
    1. 5G Air Interface
    • Scalable OFDM
    • Beamforming in mmWave
    • Massive MIMO
    • Advanced LDPC Channel Coding
    • Fine Grain TDD
    • Low Latency HARQ
    • Ultra-Reliable Low-Latency Communication (URLLC)
    • Physical Channels
    • Protocol Stack
    1. Flexible Frame Structure
    • Physical Resource Block (PRB)
    • Frequency Domain
    • Time Domain
    • PHY Later – Frame Structure (Time Domain)
    • DL:UL Frame Arrangements
    • Subframe Types
    1. Multi Connectivity and Aggregation
    • LTE + NR Dual Connectivity
    • DC Frequency Bands 3GPP TS37.863
    1. Distributed Flexible Architecture
    • gNB Architecture
    • DU and CU Options
    • Benefits of RAN Split Architecture
    • 5G Reference Network Architecture
    • Core Network Architecture
    • 5G Core Network Elements
    • Multi-Access Edge Computing (MEC)
    • Concurrent Access to Local and Central DN
    • MEC Reference Architecture
    1. 5G Network Slicing
    • Requirements Grouped by Category
    • 5G Radio / Core Network Deployment Scenarios
    • Standalone
    • Non Standalone
    • Comparison of EPC and 5G Core Network
    • Stateless VNF Machines
    • Distributed Cloud Deployment
    • Open Ecosystem
    • Network Slicing
    • Transport Network Slicing – System View
    • 3GPP Network Slicing – E2E Service View
    1. 5G Core
    • Core Architecture
    • Service-Based Architecture Principles
    • Role of Each Network Function
    • The REST Protocols
    • Signalling in the 5G Core
    • Security in the 5G Core
    1. Call Flow Examples
    • Initial Attach Procedure and Reattach Procedure
    • Connection Establishment Flow
    • Uplink PDU Transfer Flow
    • Set-up of a PDU Session
    • Intra-System Intra RAT Mobility

    Note: A Certificate of Completion will only be issued upon achieving at least 75% attendance for the course.

    • Knowledge of wireless communication systems
    • A basic understanding of IP-based communication
    • Some knowledge about IT infrastructure (i.e. Ethernet, Switches, Routers)
    Submit Course Enquiry

    The post LTE 4G and 5G Mobile Networks appeared first on Telefocal Asia.

    ]]>         LTE Transport Network Design https://www.telefocal.com/courses/lte-transport-network-design/?utm_source=rss&utm_medium=rss&utm_campaign=lte-transport-network-design Thu, 01 Jul 2021 09:22:26 +0000 https://www.telefocal.com/TAwp/index.php/courses/lte-and-lte-advanced-copy/ This course introduces transport design engineers to the idea of LTE IP transport network solutions.

    The post LTE Transport Network Design appeared first on Telefocal Asia.

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    This course is designed to equip transport design engineers with the knowledge and skills required to implement effective IP transport network solutions for LTE deployments. With a focus on accommodating the traffic generated by cellular coverage areas, participants will learn the critical aspects of dimensioning the transport network to ensure optimal Quality of Service (QoS) and capacity.

    Throughout the course, various technologies for LTE IP transport networks will be explored, including IP over ATM and IP over Ethernet. Participants will gain an in-depth understanding of these technologies and their applications in supporting the seamless connectivity and efficient performance of LTE networks.

    An emphasis will be placed on Mobile Packet Backbone Network (MPBN) solutions, with detailed descriptions and case studies illustrating the diverse techniques used in optimizing end-to-end user throughput. Through a combination of theoretical understanding and practical exercises, participants will develop the expertise needed to design efficient and reliable transport networks for LTE deployments.

    • Mobile Networks Engineer who wish to gain knowledge about LTE transport network design principles
    • Radio network planners who wish to learn more about the capacity planning of the transport network
    • Multimedia Engineer who wish to learn the concepts and theory of LTE-SAE that transports services to the users
    Instructor-led Training
    • Classroom: 4 days
    • LIVE Virtual: 28 hours
    *Note:
    • A minimum of 8 or more participants is required for a Classroom session to commence.
    • A minimum of 6 or more participants is required for a LIVE Virtual session to commence.
    • LIVE Virtual courses can be conducted for 5 hours or 7 hours daily. Please note that the number of training days will be extended if you opt for 5 hours daily.

    There are no upcoming course dates currently scheduled for this course. If you are keen on attending this course, please register your interest and indicate your preferred start/end training dates via our course enquiry form for us to open a Classroom/LIVE Virtual class schedule for this course.

    At the end of this course, participants will be able to:

    • Understand the fundamental concepts and principles of LTE and SAE, including their key features, advantages, and their role in delivering high-speed mobile broadband services
    • Design and configure an efficient ATM transport network for LTE deployments, considering factors such as capacity planning, traffic engineering, and quality of service (QoS) requirements
    • Gain a comprehensive overview of Internet Protocol (IP), including its basics, addressing schemes, routing protocols, and quality of service considerations, and apply this knowledge to design IP-based LTE networks
    • Describe and analyze the various components and functions of IP within an LTE context, including IP description, multi-protocol label switching (MPLS), and IP MPBN transmission overview, to optimize the performance and scalability of LTE transport networks
    • Understand the integration of cellular interfaces over IP and evaluate the end-to-end connectivity and performance of LTE networks, taking into account aspects such as interworking, protocol adaptation, and traffic optimization
    • Design efficient and scalable IP LTE transmission solutions, considering network planning, optimization strategies, and transmission techniques, to ensure reliable and high-capacity connectivity for LTE deployments
    • Gain a comprehensive understanding of Signaling System 7 (SS7) and its significance in LTE networks, including SS7 signaling protocols, their implementation in LTE environments, and their role in ensuring reliable signaling and control functions
    • Apply the acquired knowledge through practical exercises, case studies, and simulations to reinforce understanding and develop the necessary skills to design robust and efficient transport networks for LTE deployments

    Participants will gain the knowledge and skills necessary to make informed decisions about which solution best fits their network, taking into consideration factors such as existing infrastructure and strategic requirements.

    By understanding the technical inner workings of each solution, participants will be able to evaluate the pros and cons of different options, allowing them to make well-informed decisions that align with their network objectives.

    Ultimately, this course empowers participants to assess and select the most suitable solution, enabling them to design and implement robust LTE transport networks that optimize performance, capacity, and overall network efficiency.

    1. Introduction to LTE/SAE
    • Evolution of Cellular Networks
    • 3GPP Releases (Release 99 to Release 8)
    • EPS (E-UTRAN and EPC) Logical Architecture
    • ePS Interfaces
    • Evolved Packet Core (EPC) Architecture Description
    • SAE/LTE Interfaces – Description of S1 and X2 interfaces
    • Call Setup in a LTE Network
    1. ATM Transport Network
    • UMTS Transport Network Design
    • ATM Solution
    • ATM Technology Overview
    • ATM Networking
    • AAL1
    • AAl2
    • AAl5
    • IP over ATM
    • SDH/SONET
    1. IP Overview
    • IP RAN Solutions
    • Ethernet and IP RAN Solution
    • Ethernet Physical Layer
    • Ethernet Frame
    • Switching – Ethernet (Layer 2 Functions)
    • Routing – IP Protocols (Layer 3 Functions)
    • Transport Protocols in LTE
    • IP/Ethernet QoS
    1. IP Description
    • IPv4 Packet and Addressing
    • IPv6 New Features and Addressing
    • QoS in IP
    • MPLS
    • Internet Control Message Protocol
    • Transmission Control Protocol – TCP
    • User Datagram Protocol – UDP
    • Stream Control Transmission Protocol
    • Routing Principles
    • Autonomous Systems
    • Routing Information Protocol
    • Open Shortest Path First
    • Border Gateway Protocol
    • IP Encapsulation in IP
    • Generic Routing Encapsulation
    • IPSec Introduction
    • Virtual IP for Tunneling
    • Example – GPRS Tunneling Protocol
    1. IP Mobile Packet Backbone Network  (MPBN) Transmission Overview
    • The IP Necessity
    • How is IP Transmission Implemented
    • The Total-IP Solution – MPBN
    • MPBN Architectures
    • Planning Considerations
    • Case Studies
    1. Overall Cellular Interfaces over IP
    • Abis over IP
    • Gb over IP
    • Iub over ATM
    • Iub over IP
    • Iur over ATM
    • Iub over IP
    • Iu over ATM
    • Iu over IP
    • Core Network over ATM
    • Core Network over IP
    1. IP LTE Transmission Design
    • PS Dimensioning
    • Transport Network Dimensioning
    • Link Dimensioning Principles – Optical Link Budget and Radio Link Budget
    • Methods of Dimensioning
    • Expected Transport Traffic from Cellular Dimensioning
    • Mathematical Tools (Queueing Theory) for Transport Dimensioning Predictions
    • Vendor Specific Hardware Node Dimensioning Considerations
    • Case Studies for Ericsson Switches
    1. SS7 Signaling Overview
    • SS7 Signaling Overview
    • SS7 Architecture
    • MTP Functions
    • SCCP Functions
    • USER Parts
    • MAP Functions
    • Camel Solution
    1. SS7 Signaling in LTE
    • SS7 over ATM
    • MTP Design
    • MTP Capacity Planning and Dimensioning
    • SS7 over IP – SIGTRAN
    • MTP over IP Design
    • MTP over IP Planning and Dimensioning

    Note: A Certificate of Completion will only be issued upon achieving at least 75% attendance for the course.

    Prior attendance in LTE Cell Planning and Dimensioning is highly recommended.

    Submit Course Enquiry

    The post LTE Transport Network Design appeared first on Telefocal Asia.

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