
About Course
π§Ύ Course Title: 5G and Beyond: Advanced Communication Technologies
Code: 7010-EL-NC
π Introduction:
This course provides a comprehensive understanding of 5G wireless communication technologies and explores the evolution toward future generations like 6G. It highlights the paradigm shift in network design, performance, and application that 5G introduces over previous technologies such as 4G LTE.
π§© Description:
Participants will delve into the architecture, protocols, and key technologies enabling 5Gβincluding mmWave, Massive MIMO, network slicing, and URLLC. Additionally, the course addresses security challenges, integration with IoT, and the anticipated future of 6G networks empowered by AI and edge intelligence. Through hands-on labs and real-world case studies, learners will gain the technical competence to analyze and design modern wireless communication systems.
π― Objectives:
By the end of this course, participants will:
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Understand the foundational principles and architecture of 5G networks.
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Analyze key enabling technologies such as mmWave and Massive MIMO.
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Explore applications of 5G in IoT, URLLC, and eMBB use cases.
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Investigate security strategies and privacy protocols in 5G.
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Examine future trends and emerging concepts beyond 5G (6G).
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Develop basic simulations for 5G performance and network planning.
π Module 1: Introduction to 5G and Beyond
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1.1 Evolution of Mobile Networks
πΉ From 1G to 5G: Key Milestones
πΉ Comparison between 4G LTE and 5G (latency, bandwidth, mobility) -
1.2 5G Use Cases and Applications
πΉ eMBB (Enhanced Mobile Broadband)
πΉ URLLC (Ultra-Reliable Low Latency Communication)
πΉ mMTC (Massive Machine-Type Communication)
π‘ Module 2: 5G Network Architecture
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2.1 Core Network and RAN Overview
πΉ 5G NR (New Radio) architecture
πΉ Split architecture and user/control plane separation -
2.2 Network Slicing
πΉ Concept and implementation
πΉ Slicing for different QoS requirements -
2.3 Edge Computing and MEC (Multi-access Edge Computing)
πΉ Role in reducing latency
πΉ Use cases in autonomous systems and AR/VR
πΆ Module 3: Key 5G Enabling Technologies
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3.1 mmWave Communication
πΉ Benefits and challenges (e.g., penetration, range)
πΉ Deployment strategies -
3.2 Massive MIMO and Beamforming
πΉ Antenna array configuration and spatial multiplexing
πΉ Digital vs. hybrid beamforming -
3.3 Full Duplex and OFDMA
πΉ Advanced modulation and resource allocation
πΉ Interference management techniques
π Module 4: Security and Privacy in 5G
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4.1 Threat Landscape in 5G Networks
πΉ New attack vectors and vulnerabilities
πΉ Potential risks in IoT and smart infrastructure -
4.2 Security Protocols
πΉ 5G Authentication and Encryption (5G-AKA, SUCI/SUPI)
πΉ Role of Blockchain and Zero Trust architectures -
4.3 Privacy Challenges and Solutions
πΉ Data integrity, confidentiality, and user location privacy
π Module 5: 5G Applications and Integration
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5.1 5G in IoT Ecosystems
πΉ Smart Cities, Industrial IoT (IIoT), and Healthcare
πΉ Connected Vehicles (V2X) -
5.2 Integration with AI and Big Data
πΉ Intelligent network management
πΉ Predictive maintenance and traffic optimization -
5.3 Real-World Use Cases
πΉ Case studies from telecom providers and enterprise 5G solutions
π Module 6: Beyond 5G β Introduction to 6G
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6.1 What is 6G?
πΉ Vision, objectives, and early research
πΉ Expected breakthroughs (THz communication, quantum security) -
6.2 AI-Native Networking
πΉ Autonomous and self-optimizing networks
πΉ Role of federated learning and edge AI -
6.3 Sustainable and Green 6G
πΉ Energy-efficient designs
πΉ Environmental impacts and policy direction
π§ͺ Module 7: Practical Workshops and Simulations
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7.1 Network Planning and Simulation Tools
πΉ Introduction to NS-3, MATLAB, or 5G simulators
πΉ Setting up mmWave scenarios -
7.2 Beamforming and MIMO Simulations
πΉ Antenna pattern visualization
πΉ Throughput vs. distance analysis -
7.3 Security Testing in 5G Scenarios
πΉ Penetration testing basics
πΉ Attack-response modeling
π Final Project and Evaluation
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Capstone Project:
Design and simulate a 5G-based communication system for a smart campus or city. -
Deliverables:
πΉ System architecture design
πΉ Technology stack description
πΉ Simulation results and performance analysis
π What You Will Learn:
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5G architecture and its differences from previous generations
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mmWave spectrum usage and limitations
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Massive MIMO and beamforming strategies
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5G core network and network slicing
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Applications in smart cities, autonomous vehicles, and AR/VR
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5G security risks and mitigation techniques
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Future concepts: AI-driven 6G, quantum networking, and beyond
π― Target Audience:
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Wireless communication engineers
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Network designers and planners
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Telecommunications researchers and students
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IoT and smart systems developers
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Professionals interested in 5G deployment and next-gen connectivity
π¦ Materials Provided:
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Course slides and technical manuals
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Simulation templates (MATLAB/NS-3)
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5G case studies and whitepapers
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Access to relevant IEEE and ITU reports
π§βπ« Instruction Methods:
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Interactive lectures
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Simulation-based workshops
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Group projects and discussions
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Practical case studies
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Real-world scenario analysis
β³ Time Frame:
Total Duration: 40 hours (blended theory + hands-on practice)
Delivery Options: Weekly sessions (5 hours/week) or intensive bootcamp format
π§ Course Format:
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On-site or virtual classroom
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Live sessions and recorded modules
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Practical labs with performance assessments
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Final project presentation and evaluation
β Learning Outcomes:
Upon successful completion, participants will be able to:
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Design and analyze advanced wireless systems based on 5G.
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Evaluate the impact of 5G in industrial and consumer domains.
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Integrate secure communication protocols for future wireless networks.
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Prepare for the next generation of connectivity with insights into 6G technologies.