Course Overview

Modern industries increasingly rely on high-speed, reliable, and low-latency communication networks to support automation, real-time monitoring, and digital transformation initiatives. As industrial operations become more interconnected, robust wireless infrastructure is essential for enabling smart manufacturing, autonomous systems, Industrial Internet of Things (IIoT), and mission-critical applications. A strong understanding of 5G network engineering is therefore vital for professionals involved in modern infrastructure and industrial technology.

The Introduction to 5G Network Engineering programme by TransforMentors Academy provides participants with a practical foundation in the principles, architecture, and operation of fifth-generation mobile networks. The course explores the evolution of wireless communications, 5G network architecture, radio access technologies, spectrum and frequency management, network performance, industrial applications, and cybersecurity considerations.

Through practical exercises, real-world case studies, and interactive discussions, participants will learn how 5G networks deliver enhanced speed, capacity, reliability, and ultra-low latency. They will examine how frequency bands influence network coverage and performance, explore the integration of 5G with industrial systems, and understand the challenges associated with deployment, operation, and security.

Agenda

Day — 1 Introduction to 5G Networks and Their Core Objectives

• Understanding the fundamentals and performance objectives of 5G networks
• Comparing the key features of 3G, 4G, and 5G communication systems
• Identifying the three main 5G service categories:
  • eMBB (Enhanced Mobile Broadband)
  • URLLC (Ultra-Reliable Low-Latency Communications)
  • mMTC (Massive Machine-Type Communications)
• Exploring the technical and economic advantages of 5G technology
• Connecting 5G capabilities with practical industrial and commercial applications
• Exercise: Assess 5G use cases for different industry scenarios

Day — 2 Frequency Bands and Signal Characteristics in 5G

• Understanding the frequency bands used in 5G network deployments
• Comparing the coverage and performance of Sub-6 GHz and mmWave frequencies
• Analysing the behaviour of high-frequency wireless signals
• Understanding the effects of attenuation and path loss on signal range and reliability
• Evaluating the technical challenges associated with high-frequency spectrum deployment
• Exploring methods for improving 5G coverage and network performance
• Exercise: Compare frequency band performance for different deployment scenarios

Day — 3 5G Network Architecture Fundamentals

• Understanding different mobile network architectures:
  • Traditional RAN
  • Cloud RAN (C-RAN)
  • Open RAN (O-RAN)
• Comparing Standalone (SA) and Non-Standalone (NSA) 5G deployment modes
• Identifying the functions of key 5G network components
• Explaining the concept and benefits of Network Slicing
• Relating flexible 5G architectures to different application requirements
• Understanding how modern network designs improve performance and scalability
• Exercise: Analyse a 5G network architecture for an industrial use case

Day — 4 Core Wireless Technologies in 5G

• Exploring the key enabling technologies of 5G:
  • Massive MIMO
  • Millimeter waves (mmWave)
  • Beamforming
  • Network slicing
• Understanding how beamforming improves signal coverage and user connectivity
• Examining the principles of Orthogonal Frequency Division Multiplexing (OFDM)
• Analysing the capacity and performance benefits of Carrier Aggregation
• Relating advanced radio technologies to 5G speed, capacity, and reliability targets
• Understanding the role of these technologies in supporting diverse 5G applications
• Exercise: Evaluate the impact of core wireless technologies on a 5G network scenario

Day — 5 Applications, Challenges, and Integration with Technical Systems

• Exploring 5G applications in industrial and infrastructure environments
• Identifying the technical and operational challenges of 5G deployment
• Understanding the fundamental security principles of 5G networks
• Examining the impact of 5G on electrical, automation, and remote-control systems
• Discussing the integration of 5G with IoT and Artificial Intelligence (AI) technologies
• Evaluating future trends and opportunities for 5G-enabled smart systems
• Key takeaways and course evaluation

Learning Outcomes

After finishing this Introduction to 5G Network Engineering training course, you will be able to:

• Understand the objectives, services, and applications of modern 5G networks
• Compare the main features and capabilities of 3G, 4G, and 5G communication systems
• Select suitable frequency bands based on coverage, capacity, and operating conditions
• Evaluate the impact of distance, obstacles, and weather on wireless signal performance
• Describe the key components of 5G networks and the secure flow of data
• Explain how advanced antenna and radio technologies improve network efficiency and reliability
• Assess the role of 5G in industrial automation, monitoring, and real-time operations
• Evaluate deployment challenges, security requirements, and future trends in 5G technology

Who Should Attend

The Introduction to 5G Network Engineering course is ideal for professionals involved in communication networks and industrial automation. It is especially beneficial for:

• Network and Telecom Engineers
• Electrical and Automation Engineers
• ICT and Infrastructure Specialists
• Industrial Systems Engineers
• Maintenance and Operations Personnel
• Control and Instrumentation Engineers
• Wireless Communication and RF Engineers
• IT and Network Support Professionals
• Smart Manufacturing and IIoT Specialists
• Anyone involved in the design, operation, or maintenance of wireless communication systems