Course description

What if the network became part of everything around you? Are you ready to understand how?

The course “5G From A to Z” is designed to be your comprehensive guide to understanding this transformation. We start from the roots — the origins of cellular networks — and gradually progress to the heart of 5G, breaking down its concepts, explaining its architecture, and analyzing its applications that now touch every aspect of modern life.
In an era where technological innovations are accelerating, 5G stands as one of the pillars of global digital transformation. Communication networks are no longer just a means of transferring data or making calls — they’ve become an integrated platform that powers Artificial Intelligence, enables the Internet of Things (IoT), and redefines everything we know about speed, efficiency, and connectivity.
Whether you're a student looking to build a strong foundation, an engineer aiming to upgrade your skills, or a tech professional seeking to understand the mechanics of this revolutionary generation — this course gives you the essential tools and technical insight to become part of the future of communications.
Get ready to dive into the world of 5G — not just to understand it, but to master it.
General Objectives of the 5G Course
The “5G Course from A to Z” represents a pivotal step toward the future.
This course will provide you with practical and in-depth knowledge of 5G technology from basic concepts to advanced applications.
Objectives include:
1. Understanding the Evolution of Cellular Networks
Equip the trainee with background knowledge on the evolution from 1G to 5G to understand why 5G is a revolutionary step in telecom.
2. Recognizing Core 5G Concepts
Such as spectrum, latency, and network slicing — and their role in improving performance compared to earlier generations.
3. Analyzing 5G Capabilities
Understand how 5G enables higher data rates, lower latency, and support for massive numbers of connected devices.
4. Exploring Various Use Case Scenarios
- eMBB (Enhanced Mobile Broadband)
- URLLC (Ultra-Reliable Low Latency Communications)
- mMTC (Massive Machine-Type Communications)
5. Explaining 5G Architecture
Including core and RAN components, and the difference between SA (Standalone) and NSA (Non-Standalone) modes.
6. Developing Analytical Skills
Empowering trainees to evaluate 5G applications across industry, AI, IoT, and smart cities.
7. Preparing for the Job Market or Tech Projects
Whether in telecom, data analysis, tech development, or future network management.
Who Can Benefit from This Course?
The “5G Course From A to Z” is ideal for a wide range of participants:
-Telecom and network engineers aiming to enhance their skills
- Telecom/IT students seeking a strong technical foundation
- Data analysts and engineers working on infrastructure innovation
- IT professionals and tech managers seeking to understand 5G’s role in digital transformation
In short: This course is for anyone who wants to enter the future of telecom with professional-level tools and technical knowledge.

Main Course Modules: 5G Telecommunications
We start with the evolution of mobile communications — from the earliest networks to 5G. Then we explore the revolutionary 5G experience and its unique capabilities, such as high speed and network slicing.
We dive into applications like eMBB, URLLC, and mMTC, as well as the importance of spectrum and architecture. We also look at how 5G compares to previous generations to highlight its superiority.
Whether you're just starting or looking to advance, this course is your comprehensive journey. It covers everything step by step — for both understanding and application.
Key modules of the course:
1. History and Evolution of Cellular Networks

From GSM to 5G
From 1G (analog voice) to 5G (ultra-speed, low latency, massive IoT), this module explains the development of telecom and its shifting needs.
2. What is 5G?

 Core Concepts and What Makes It Different
5G is a full redesign of the network — not just a speed boost. It relies on Massive MIMO, beamforming, and supports transformative apps like autonomous cars and remote industrial control.
3. 5G Capabilities: 

Super Speeds, Low Latency, High Capacity
- Speeds up to 10 Gbps
- Latency under 1 ms (for VR and remote surgery)
- Efficient spectrum usage for high device density
4. Network Slicing:

 Boosting Performance Through Network Partitioning
Multiple virtual networks (slices) over one physical infrastructure, optimized for unique needs — gaming, banking, IoT, etc.
5. 5G Use Case Types:
- eMBB: High-speed, HD video, VR
- URLLC: Real-time, critical response (surgery, cars)
- mMTC: IoT devices with low power usage
6. Frequencies and Infrastructure:

 5G Spectrum & Network Architecture
- Low (<1 GHz): wide coverage, lower speed
- Mid (1–6 GHz): balanced
- High (mmWave): high speed, short range
Uses gNBs, 5GC, virtualization, and cloud-native structure.
7. Comparing 5G with Previous Generations
- Faster, more stable, and supports AI/cloud
- Enables smart apps and a real digital revolution
Key Technical Terms Related to  the 5G Course:

• 5G

• eMBB

• URLLC

• mMTC

•  Network Slicing

•  Latency

• Spectrum Bands

• Core & RAN

Frequently Asked Questions

What are the main stages in the evolution of cellular networks from 1G to 5G?

• 1G: Focused only on analog voice communication.

• 2G: Introduced digital voice and SMS.

• 3G: Enabled mobile internet access and higher data rates.

• 4G: Provided high-speed internet and supported video streaming and real-time applications.

• 5G: Revolutionized networks with ultra-high speed, ultra-low latency, and massive device connectivity.

What are the main capabilities that distinguish 5G from previous generations?

• Much higher data rates (Gigabit speeds).

• Ultra-low latency enabling real-time applications.

• The ability to connect a massive number of devices simultaneously (IoT).

What are the major use case scenarios of 5G?

• eMBB (Enhanced Mobile Broadband): High-speed internet for applications such as 4K video and VR.

• URLLC (Ultra-Reliable Low Latency Communications): Critical real-time applications such as remote surgery or autonomous vehicles.

• mMTC (Massive Machine-Type Communications): Large-scale IoT connectivity, linking millions of sensors in smart cities and industries.

How does 5G support Artificial Intelligence (AI) and the Internet of Things (IoT)?

5G provides reliable, high-speed, and low-latency connections, allowing smart devices to communicate in real time. This enables applications such as intelligent robotics, smart homes, automated factories, and instant big data analytics.

What will i learn?

• Master 5G fundamentals and architecture
• Analyze networks and their industrial applications
• Identify and apply eMBB / URLLC / mMTC use cases
• Understand slicing and frequency usage
• Apply 5G knowledge to projects or tech roles

Frequently asked question