Course Overview
Beyond the current 4G/IMT-Advanced standards, we now have the next major phase of mobile telecommunications standards which is 5G (5th generation mobile networks or 5th generation wireless systems). From the current 4G speed, 5G will provide better speeds and coverage. Speeds of up to 1 Gb/s for tens of connections or tens of Mb/s for tens of thousands of connections is set to be offered by 5G which operates with a 5Ghz signal.
5G is the latest generation of mobile communications, built to deliver not just higher data rates, but also support ultra-reliable low-latency communications (URLLC), massive device connectivity (IoT), advanced spectrum utilization through mmWave bands, and innovative features such as Massive MIMO and network virtualization. This comprehensive course covers the fundamental concepts, technologies, and applications of 5G networks, empowering telecommunications professionals to understand and implement next-generation wireless systems.
Why This Course Is Required?
5G is the latest generation of mobile communications built to deliver not just higher data rates, but also support ultra-reliable low-latency communications (URLLC), massive device connectivity (IoT), advanced spectrum utilization through mmWave bands, and innovative features such as Massive MIMO and network virtualization. The complexity of 5G technology requires specialized knowledge in air interface evolution, network core transformation, and service concepts to ensure successful deployment and ongoing network evolution as operators implement 5G systems globally.
The essential need for comprehensive training in 5G technology is underscored by the foundational changes in air interface, network core, and service concepts that technical and managerial staff must understand to ensure successful 5G rollouts and ongoing network evolution. Engineers and technicians must master the principles of mmWave communications, understand Massive MIMO technologies, and apply proper network slicing techniques to optimize performance and enable new service capabilities in 5G networks.
Research demonstrates that 5G is the latest generation of mobile communications built to deliver not just higher data rates, but also support ultra-reliable low-latency communications (URLLC), massive device connectivity (IoT), advanced spectrum utilization through mmWave bands, and innovative features such as Massive MIMO and network virtualization, requiring technical and managerial staff to understand foundational changes in air interface, network core, and service concepts to ensure successful rollouts and ongoing network evolution.
Course Objectives
The main objective of this training course is to empower telecom professionals with:
- The basic understanding of 5G technology evolution.
- The new requirements for 5G-NR technology.
- 5G spectrum options and features like mmWave and MIMO etc.
- Very basic knowledge of 5G-NR air interface functionalities.
- Knowledge of other important 5G features like CRAN, LWA, LWIP etc.
- Comprehensive understanding of 5G network architecture and protocols, including SA/NSA deployment models, NFV, SDN, and protocol stacks.
- Expertise in network slicing, virtualization, and cloud computing principles as applied in 5G.
- Detailed awareness of 5G security and privacy challenges unique to next-generation mobile communications.
- Ability to assess and manage quality of service (QoS) and quality of experience (QoE) in 5G networks.
- Hands-on experience through case studies, real-world deployment scenarios, and practical projects.
- Familiarity with 5G use cases and applications in IoT, smart cities, Industry 4.0, healthcare, and public safety.
Master 5G technology excellence and drive next-generation wireless innovation. Enroll today to become an expert in 5G Technology!
Training Methodology
Zoe Talent Solutions delivers programs using methodologies that bring out the maximum learning experience amongst our participants.
The training framework includes:
- Expert-led audio/video presentations delivered by experienced 5G technology 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 principles through comprehensive coverage of network architecture, deployment strategies, and service capabilities.
Our training delivery is based on ‘Do–Review–Learn–Apply Model’, creating a structured learning journey that transforms 5G knowledge into operational excellence through systematic practice and implementation.
Who Should Attend?
This 5G Technology course is designed for:
- 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
Organisational Benefits
Organisations 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 comprehensive 5G training achieve competitive advantage through trained professionals that accelerate 5G deployments, enabling expanded services, better customer experiences, and entry into smart city, Industry 4.0, and public safety markets, while future-proofing through understanding 5G spectrum management, CRAN, network slicing, and virtualization ensures businesses can scale with future market and technical changes.
Empower your organization with 5G technology expertise. Enroll your team today and see the transformation in next-generation network capabilities and innovation!
Personal Benefits
Through this course, telecom professionals will benefit in the following ways:
- Complete awareness of public safety networks and there evolution to 5G Networks
- Increased sense of engagement and ownership towards one’s role and responsibilities
- Appropriate platform to perform optimally in one’s role and also create opportunities to upskill and undertake additional roles and responsibilities
- More organised, transparent and clear growth path through efficient and appropriate performance management fostering faster progression
- Increased exposure to build accountability and customer orientation, two most important professionals traits in any sphere of work
Course Outline
5G Introduction
- What is 5G?
- 5G Introduction
- 5G Agencies
- Aim
- Goal
- Technologies
- 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
- 5G-Advanced (Release 18) features and evolution roadmap
- Service-based architecture (SBA) fundamentals and network functions
- 5G magic triangle: eMBB, URLLC, and mMTC service categories
- AI/ML integration for network automation and optimization
5G Requirements
- 5G Requirements
- Requirements
- Need of 5G
- Peak theoretical speeds: 20 Gbps downlink and 10 Gbps uplink capabilities
- Ultra-low latency requirements (1ms) for mission-critical applications
- Network capacity for 100x traffic increase and massive device connectivity
- Energy efficiency optimization and green network technologies
5G Spectrum
- 5G Spectrum
- Spectrum
- Bandwidth requirements
- Applications
- Low-band spectrum (600-900 MHz) deployment strategies
- Mid-band spectrum (1.7-4.7 GHz) optimization and coverage planning
- High-band mmWave (24-47 GHz) implementation challenges
- Dynamic spectrum sharing (DSS) between 4G and 5G
5G Air interface
- 5G Air interface
- Flexible air interface
- Composition
- Techniques Used
- OFDM (Orthogonal Frequency Division Multiplexing) advanced implementation
- Flexible numerology and scalable subcarrier spacing
- Advanced modulation schemes (256-QAM and beyond)
- Grant-free uplink access for IoT applications
Massive MIMO
- Massive MIMO
- Concept
- Requirement
- Potential for MIMO
- Advantages
- Massive MIMO part 4
- Multiple access in MIMO
- Channel State Information
- Advanced beamforming algorithms and beam management
- Multi-user MIMO (MU-MIMO) optimization techniques
- 3D MIMO and full-dimension MIMO implementations
- Channel reciprocity and TDD massive MIMO advantages
mm Wave communications
- mm Wave communications
- Introduction
- Antenna arrays
- Beamforming and beam steering techniques for mmWave
- mmWave propagation characteristics and path loss models
- Small cell deployment strategies for dense urban areas
- Blockage mitigation and beam failure recovery mechanisms
mm Wave communications applications
- mm Wave communications applications
- Emerging applications
- Data centres
- Wired connections replacement on chip
- Information showers
- Fixed wireless access (FWA) as broadband alternative
- Ultra-high-speed mobile services in stadiums and venues
- Industrial automation and factory connectivity
- Enhanced mobile broadband (eMBB) applications
mm Wave Radio
- mm Wave Radio
- Frequency bands
- Propagation conditions
- Technical attributes
- Smaller antennas
- Fast ethernet interface
- System overview
- Advanced antenna design and phased arrays
- RF front-end challenges and solutions
- Power consumption optimization for mmWave
- Integration with sub-6GHz spectrum for seamless coverage
Spatial Signal Processing
- Spatial Signal Processing
- Techniques
- Advantages
- 3D beam forming
- Diversity
- Multi-dimensional signal processing algorithms
- Interference cancellation and coordination
- Advanced MIMO precoding techniques
- Machine learning-based signal optimization
3D Beamforming & Diversity
- 3D Beamforming & Diversity
- 3D techniques
- FFT/IFFT units
- Elevation and azimuth beamforming coordination
- Advanced antenna virtualization techniques
- Beam tracking and mobility management
- Multi-layer beamforming for capacity enhancement
CRAN Introduction
- CRAN Introduction
- CRAN Introduction
- Traditional RAN
- Future RAN
- Cloud-native network functions (CNF) deployment
- Container orchestration and microservices architecture
- Edge computing integration with CRAN
- Real-time virtualized RAN (vRAN) optimization
CRAN Advantages
- CRAN Advantages
- Advantages
- Centralized resource pooling and dynamic allocation
- CAPEX and OPEX reduction through virtualization
- Improved spectral efficiency and interference coordination
- Network slicing enablement through centralized processing
Multiband RRH
- Multiband RRH
- RRH
- Position of RRH
- Multiband RRH
- Software-defined radio (SDR) implementation
- Multi-standard support (2G/3G/4G/5G) in single RRH
- Advanced digital beamforming in RRH
- Fronthaul optimization and transport network efficiency
Other 5G Key Features
- Licensed Assisted Access (LAA)
- LTE-WLAN Aggregation (LWA)
- LAA LTE and WIFI Coexistence
- LWA User Plane
- LWA Signalling flow
- LTE-WLAN IPSec Tunnel – Radio level integration (LWIP)
- LWIP Protocol Architecture
- LWA vs LWIP
- Network slicing implementation and orchestration
- Non-terrestrial networks (NTN) and satellite integration
- Advanced security frameworks and zero-trust architecture
- Private 5G networks for enterprise and industrial applications
- Wi-Fi 6/6E integration and convergence with 5G
- Multi-access edge computing (MEC) deployment models
Real World Examples
The impact of 5G Technology training is evident in leading implementations:
- SK Telecom 5G Network Deployment (South Korea)
Implementation: SK Telecom implemented comprehensive 5G networks leveraging mmWave and Massive MIMO technologies for urban deployment, utilizing advanced spectrum aggregation and hardware optimization to deliver ultra-high-speed mobile services in dense metropolitan areas.
Results: The implementation consistently achieved greater than 1Gbit/s speeds for users and demonstrated the practical advantages of 5G hardware and spectrum aggregation, showcasing superior network performance through advanced antenna technologies and spectrum management, demonstrating how comprehensive 5G training enables exceptional network deployment and service delivery. - Verizon mmWave 5G Implementation (United States)
Implementation: Verizon deployed high-frequency mmWave bands for ultra-fast fixed wireless and mobile networks in dense urban areas, pioneering real-world 5G small cell network design through innovative deployment strategies and advanced network architecture optimization.
Results: The deployment achieved ultra-high-speed wireless connectivity in challenging urban environments, enabled new fixed wireless services that compete with fiber broadband, and demonstrated effective small cell deployment strategies for mmWave spectrum, showcasing how systematic 5G training enables superior network design and deployment capabilities. - Ericsson 5G Standalone Network Implementation (Europe)
Implementation: Ericsson partnered with European operators to implement 5G Standalone (SA) networks with ultra-reliable low-latency communication (URLLC) capabilities targeting autonomous industrial applications, smart grids, and telemedicine through comprehensive network architecture transformation.
Results: The implementations successfully enabled mission-critical industrial applications through URLLC capabilities, supported advanced automation in manufacturing and energy sectors, and demonstrated the potential for 5G in healthcare applications, demonstrating how comprehensive 5G training enables superior industrial and healthcare service delivery.
Be inspired by industry-leading 5G achievements. Register now to build the skills your organization needs for next-generation wireless excellence!
