Course Overview
5G as popularly known is the 5th generation of mobile networks or 5th generation wireless systems. It denotes standards beyond the current 4G/IMT-Advanced standards and the next major phase of mobile telecommunications. 5G, as we know, will provide better speeds and stronger coverage than the current experience with 4G. It is proven that 5G offers speeds of up to 1 Gb/s for tens of connections or tens of Mb/s for tens of thousands of connections as it operates with a 5Ghz signal.
This course is designed for engineer background personals to understand the new radio changes in 5G networks compared with existing wireless networks. The comprehensive training encompasses all aspects of 5G New Radio technology including radio access architecture, protocol aspects, physical layer technologies, and advanced features like network slicing and cloud RAN that distinguish 5G from previous generation networks.
Why This Course Is Required?
5G New Radio (5G-NR) has become the cornerstone technology for next-generation wireless communications, representing a revolutionary leap that promises blazing speeds, ultra-low latency, and the capacity to connect billions of devices seamlessly where 5G NR is designed to support a wide range of consumer and industry applications, maximizing system efficiency. The complexity of 5G-NR technology requires specialized knowledge in advanced network architecture, massive MIMO systems, beamforming techniques, and network slicing capabilities to address the growing demand for enhanced mobile broadband, ultra-reliable low-latency communications, and massive machine-type communications.
The essential need for comprehensive training in 5G New Radio technology is underscored by its role as the global standard for a unified, more capable wireless air interface that powers the next generation of mobile networks, where proper understanding of gNodeB architecture, protocol stack functions, and deployment scenarios is crucial for implementing efficient 5G networks. Engineers and technicians must master the principles of 5G physical layer technologies, radio interface protocols, and network slicing to ensure optimal performance in diverse applications ranging from enhanced mobile broadband to mission-critical industrial automation.
Research demonstrates that 5G New Radio technology delivers significantly faster data speeds with theoretical peak rates up to 20 Gbps, ultra-low latency around 1 millisecond, and improved network capacity to handle massive IoT deployments, while supporting advanced features like network slicing that allows multiple virtual networks to be created on top of a common shared physical network infrastructure.
Course Objectives
The main objective of this training course is to empower telecom professionals with:
- Complete awareness of 5G New Radio technology and its evolution from previous generation networks
- Detailed understanding of 5G radio access architecture including gNodeB functionality and interfaces
- Comprehensive knowledge of 5G physical layer aspects including modulation, coding schemes, and MIMO technologies
- Proficiency in 5G radio interface protocol aspects covering MAC, RLC, PDCP, and RRC sublayers
- Expertise in 5G network procedures including initial access, mobility management, and QoS architecture
- Advanced understanding of 5G key features including mmWave, massive MIMO, and beamforming
- Practical knowledge of network slicing implementation and cloud RAN architectures
- Skills in 5G deployment scenarios and interworking with legacy systems
- Advanced network optimization techniques for 5G NR performance enhancement
- Implementation of advanced 5G security frameworks and threat mitigation strategies
- Design and deployment of mission-critical 5G applications with ultra-low latency requirements
- Integration of AI/ML algorithms for autonomous network operations and self-optimization
- Advanced troubleshooting and performance analysis of complex 5G multi-vendor environments
Master 5G New Radio technology excellence and drive next-generation wireless innovation. Enroll today to become an expert in 5G New Radio Access Technology!
Training Methodology
Zoe Talent Solutions delivers training in various ways, depending on the topic and audience.
The training framework includes:
- Expert-led audio/video presentations delivered by experienced telecommunications professionals
- Group debates and activities that foster collaborative learning and knowledge sharing
- Case study discussions covering real-world 5G deployment scenarios and challenges
- Group experiential learning activities and role-plays that enhance practical understanding
- Detailed discussions of practical issues and challenges faced by trainees at their respective workplaces
The training format includes audio/video presentations, group debates, and activities, case study discussions, group experiential learning activities, role-plays, etc. This immersive approach fosters practical skill development and real-world application of 5G New Radio principles through comprehensive coverage of network architecture, protocol implementation, and deployment strategies.
This course is delivered as per Zoe Talent Solutions’ consistent and highly successful ‘Do–Review–Learn–Apply Model’, creating a structured learning journey that transforms 5G New Radio knowledge into operational excellence through systematic practice and implementation.
Who Should Attend?
This 5G Training Course is beneficial for the following:
- Engineers currently working on commercial LTE network and wants to extend their knowledge on 5G networks
- Engineers currently working on commercial 2G/3G network and wants to extend their knowledge on 5G networks
- Engineers working on Airport communication/Law enforcement etc and using any public safety networks and wants to know how new features of 5G can be beneficial for their networks as well
- Technical project lead and managers
- Top level management
Organizational Benefits
Organizations whose employees undertake this course will benefit in the following ways:
- Appropriate performance management systems to track performance, identify required training and development and upskill employees to the required standards
- A more equipped, high-performing, highly accountable, engaged workforce
- Highly efficient and good quality engineers to the organization as a result of smarter and more accountable telecom professionals
- Greater customer satisfaction for 5G network deployments
- A more performance-driven, customer-oriented, aggressive work culture
Studies show that organizations implementing 5G New Radio technology achieve enhanced operational capabilities through advanced network architecture that supports service-based models utilizing cloud-native and virtualized network functions, improved spectral efficiency through flexible carrier spacing and advanced modulation schemes, and competitive advantage through network slicing that enables multiple virtual networks with distinct characteristics tailored for specific services or customers.
Empower your organization with 5G New Radio expertise. Enroll your team today and see the transformation in wireless network capabilities and performance!
Personal Benefits
Through this course, telecom professionals will benefit in the following ways:
- Complete awareness of 5G New Radio technology and its evolution to next-generation networks
- Increased sense of engagement and ownership towards one’s role and responsibilities
- Perform optimally in one’s role and create opportunities to upskill and undertake additional roles and responsibilities
- Get better organized, transparent and have a clear growth path through efficient and appropriate performance management fostering faster progression
- Increased exposure to build accountability and customer orientation, two most important professional traits in any sphere of work
Course Outline
Module 1: 5G Introduction
- What is 5G?
- Evolution of 3GPP Technologies
- Cellular networks and the internet of things
- Internet of things applications (IoT) Intro only
- Network Function Virtualization (NFV) Intro only
- Software Defined Networking (SDN) Intro only
- Machine to Machine Communications (M2M) Intro only
- 5G Drivers- Application and Use Cases
- 5G High-level requirements
- 5G Technologies and Spectrum Overview
- Advanced 5G spectrum management and interference mitigation techniques
- Private 5G networks and enterprise deployment strategies
- 5G security architecture and end-to-end encryption protocols
- 5G-Advanced (Rel-17/18) evolution roadmap and emerging features
- Network energy efficiency optimization frameworks and sustainability metrics
- Advanced interference coordination between 5G and legacy networks
- 5G standardization timeline and upcoming 3GPP releases
Module 2: 5G Radio Access Architecture and Interfaces
- Deployment scenarios
- New RAN based on gNB
- RAN-CN interface (SDN, NFVetc)
- NG Interface
- Xn Interface
- Network slicing in RAN
- Interworking with non-3GPP systems
- Multi-access edge computing (MEC) integration with RAN
- Advanced gNB disaggregation and open RAN architectures
- Real-time RAN intelligence and automation frameworks
- Advanced load balancing and traffic steering mechanisms
- Cross-carrier aggregation and dual connectivity optimization
- CU-DU functional splits (Options 2, 6, 7, 8) and performance trade-offs
- F1-C and F1-U interface detailed protocol analysis
- Service-based RAN architecture principles and implementation
- Advanced inter-gNB coordination mechanisms for interference management
Module 3: 5G Physical Layer Aspects
- Duplexing modes
- Probable Radio Frame Structures
- DL/UL Modulation and Physical layer channel
- DL/UL Performance evaluation of multiple access
- 5G PHY Technologies: Coding schemes
- 5G PHY Technologies: Dynamic TDD
- DL/UL Performance evaluation of channel coding
- DL/UL Performance evaluation related to MIMO
- Advanced beamforming algorithms and beam management
- Non-orthogonal multiple access (NOMA) implementation
- Full-duplex communication techniques and interference cancellation
- Advanced channel estimation and equalization methods
- Polar coding optimization for ultra-reliable low-latency communications
- Flexible numerology implementation and mixed-numerology scenarios
- Advanced CSI acquisition and feedback mechanisms for massive MIMO
- Interference alignment techniques for coordinated transmission
- Channel estimation algorithms for high-mobility scenarios
Module 4: 5G Radio Interface Protocol Aspects
- Radio interface protocol architecture (CP and UP)
- Overview of New Layer 2 functions
- New MAC Sublayer
- New RLC Sublayer
- New PDCP Sublayer
- New AS Sublayer
- New TTI durations
- Advanced packet scheduling algorithms for diverse traffic types
- Protocol optimization for machine-type communications
- Enhanced security protocols for critical communications
- Cross-layer optimization techniques for protocol efficiency
- Advanced congestion control and flow management mechanisms
- PDCP duplication and packet routing for URLLC applications
- MAC scheduling algorithms for mixed traffic optimization
- RLC segmentation optimization for varying channel conditions
- Cross-layer parameter coordination mechanisms
Module 5: 5G RRC Sublayer
- Functions
- UE states and state transitions
- System information broadcast
- Access control
- UE capability retrieval framework
- Advanced RRC optimization for massive IoT deployments
- Intelligent connection management for energy efficiency
- Advanced measurement configuration and reporting strategies
- RRC enhancement for mission-critical applications
- Automated RRC parameter optimization using machine learning
- Conditional handover procedures and mobility robustness optimization
- Advanced measurement gap configuration for multi-band scenarios
- RRC state transition optimization for IoT energy efficiency
- ML-assisted RRC parameter tuning methodologies
Module 6: 5G Initial access with minimum latency
- Cell search
- Cell selection
- Random Access Procedure with minimum latency
- Advanced beam-based random access procedures
- Machine learning-enhanced cell selection algorithms
- Predictive mobility and proactive handover preparation
- Ultra-low latency access optimization techniques
- Advanced interference management during initial access
- Grant-free uplink access optimization techniques
- Advanced timing advance procedures for precise synchronization
- Beam failure detection and recovery mechanisms
- Contention resolution enhancement for massive connectivity
Module 7: 5G Radio access network procedures
- Dual Connectivity between NR and LTE
- Xx interface
- Intra-system Mobility
- UE based mobility
- Network controlled mobility
- Inter-system Mobility
- PDU Session Management
- Initial UE Access
- Advanced mobility prediction algorithms
- Multi-connectivity management and optimization
- Seamless handover techniques for critical applications
- Network-assisted interference coordination
- Advanced session continuity mechanisms
- Multi-RAT dual connectivity optimization (EN-DC, NR-DC, NE-DC)
- Advanced handover decision algorithms using mobility prediction
- Cross-slice mobility management and service continuity
- Inter-frequency measurement optimization techniques
Module 8: 5G QoS architecture in NR and NextGen Core
- QoS impact on handovers
- Dynamic QoS adaptation based on network conditions
- Advanced traffic prioritization for mixed service types
- QoS-aware resource allocation algorithms
- End-to-end QoS orchestration across network slices
- Machine learning-based QoS prediction and optimization
- 5G QoS Identifier (5QI) optimization and custom QoS class implementation
- Reflective QoS implementation and dynamic flow binding
- Network slice-aware QoS coordination mechanisms
- Advanced traffic shaping algorithms for diverse service types
Module 9: 5G Key performance indicators definitions
- Peak data rate
- Peak Spectral efficiency
- Control plane latency
- User plane latency
- Latency for infrequent small packets
- Handover interruption time
- Inter-system mobility
- Reliability
- Extreme Coverage
- TRxP spectral efficiency
- UE energy efficiency and battery savings
- Area traffic capacity
- Network energy efficiency
- Advanced KPI monitoring and analytics frameworks
- Predictive performance modeling and capacity planning
- Real-time network performance optimization techniques
- Multi-dimensional performance correlation analysis
- Automated anomaly detection and self-healing mechanisms
- Multi-dimensional KPI correlation analysis methodologies
- Real-time KPI monitoring frameworks and automated alerting
- Predictive KPI modeling using historical data analytics
- Advanced troubleshooting workflows based on KPI patterns
Module 10: 5G Key Features
- mmWave
- Massive MIMO
- 3D Beam Forming
- Licensed Assisted Access (LAA)
- LTE-WLAN Aggregation (LWA)
- LAA LTE and WIFI Coexistence
- LWA User Plane
- LWA Signalling flow
- Integration with IPSec Tunnel at Radio Level (LWIP) LTE-WLAN
- LWIP Protocol Architecture
- LWA vs LWIP
- Advanced mmWave propagation modeling and path loss prediction
- Intelligent reflecting surfaces (IRS) integration and optimization
- Advanced interference mitigation in dense deployment scenarios
- Hybrid beamforming architectures and implementation strategies
- Dynamic spectrum sharing and cognitive radio techniques
- Intelligent Reflecting Surfaces (IRS) integration principles
- Advanced beamforming coordination in dense deployment scenarios
- Dynamic spectrum sharing optimization techniques
- Terahertz band preparation and implementation considerations
Module 11: Introduction to Cloud RAN
- Overview
- What is C-RAN
- Traditional Mobile Network
- Architecture of CRAN
- Advantages and Challenges of C-RAN
- Advanced virtualized RAN orchestration and management
- Container-based RAN deployment and microservices architecture
- Real-time resource allocation and dynamic function placement
- Edge computing integration with cloud RAN infrastructure
- Advanced RAN analytics and AI-driven optimization
- Container orchestration (Kubernetes) for RAN function deployment
- Microservices architecture design patterns for disaggregated RAN
- CI/CD pipeline implementation for automated RAN updates
- Multi-vendor integration challenges and standardization approaches
Module 12: Network Slicing
- Introduction
- Network Slicing requirements
- Network Slicing Architecture
- Radio Access Aspects
- Resource Management
- Advanced slice isolation and security mechanisms
- Dynamic slice lifecycle management and orchestration
- Cross-domain slice coordination and inter-slice optimization
- Machine learning-based slice performance prediction
- Advanced charging and billing frameworks for network slices
- Slice SLA monitoring and enforcement automation frameworks
- Cross-domain slice orchestration coordination mechanisms
- Dynamic slice scaling based on real-time demand analytics
- Advanced slice security isolation and threat detection
Module 13: 5G Supplementary-Services
- Emergency communications
- Public warning/emergency alert systems
- V2X communication
- Advanced mission-critical push-to-talk (MCPTT) implementations
- Precision positioning and location-based services optimization
- Advanced V2X security and privacy protection mechanisms
- Integration with satellite communications for global coverage
- Advanced multimedia broadcast multicast services (MBMS) enhancements
- Advanced positioning techniques using 5G NR signals for sub-meter accuracy
- Enhanced V2X security protocols and privacy-preserving mechanisms
- Mission-critical service orchestration across network slices
- Integration with satellite networks for global coverage scenarios
Real World Examples
The impact of 5G New Radio Access Technology training is evident in leading implementations:
- Enhanced Mobile Broadband Deployment (Global)
Implementation: Telecommunications operators worldwide have implemented 5G NR enhanced mobile broadband (eMBB) services utilizing wider frequency bands including millimeter-wave frequencies for increased data rates, advanced modulation schemes, and massive MIMO technology for enhanced spectral efficiency through comprehensive network deployments.
Results: These deployments have achieved significantly higher data rates compared to previous generations with theoretical peaks up to 20 Gbps, improved user experience through enhanced network capacity and coverage, and successful implementation of beamforming and beam management techniques that optimize signal quality, demonstrating how comprehensive 5G-NR training enables exceptional wireless performance improvements. - Ultra-Reliable Low-Latency Communication Implementation (Industrial)
Implementation: Industrial facilities have implemented 5G NR ultra-reliable low-latency communication (URLLC) applications for mission-critical communications and industrial automation, utilizing time-sensitive networking technologies and redundant connectivity options to ensure precise timing synchronization and enhanced reliability.
Results: The implementations achieved ultra-low latency around 1 millisecond enabling real-time applications like autonomous vehicles and remote surgery, enhanced reliability through diverse connectivity paths, and successful support for critical industrial automation applications, showcasing how systematic 5G-NR training enables advanced industrial communication capabilities. - Network Slicing Excellence (Enterprise)
Implementation: Enterprise organizations have implemented 5G network slicing capabilities that enable multiple unique logical and virtualized networks over a common 5G infrastructure, with dedicated slices for different applications including emergency services, industrial automation, and enhanced mobile broadband services.
Results: The network slicing implementations achieved enhanced security through traffic isolation, improved resource utilization through dynamic allocation based on application needs, and successful support for diverse service requirements ranging from high-bandwidth video streaming to mission-critical communications, demonstrating how comprehensive 5G network slicing training enables superior network flexibility and performance optimization.
Be inspired by industry-leading 5G New Radio achievements. Register now to build the skills your organization needs for next-generation wireless excellence!
