5G Edge Computing Training by TelcoLearn | MEC
- 2. Learning Outcomes 1. Understanding the Evolution of Mobile Networks: Gain insights into the progression from 2G to 5G technology, highlighting the advancements in speed, connectivity, and the new possibilities 5G offers over previous generations like 4G. 2. Mastering 5G Technology and Its Applications: Learn about 5G’s capabilities such as ultra-fast data speeds, low latency, and massive connectivity, along with the various service verticals and use cases it supports, including IoT, autonomous vehicles, and smart cities. 3. Exploring 5G NR and Its Key Features: Understand 5G New Radio (NR), including the different deployment models (Standalone vs. Non-Standalone), frequency bands (FR1 and FR2), and technologies like Massive MIMO, beamforming, DSS, and Open RAN, and their impact on 5G network performance. www.Telcolearn.com
- 3. 4. Delving into the 5G Core Architecture: Gain an understanding of the 5G core network’s architecture, its network functions, and how cloud-native deployment models support scalability, efficiency, and flexibility in 5G services. 5. Exploring Multi-Access Edge Computing (MEC): Learn about MEC’s role in 5G networks, its architecture, and how it supports low-latency, real-time services by deploying computational resources closer to users, thus enhancing application performance. 6. Private 5G Networks and Deployment Models: Understand the unique needs, advantages, and challenges of private 5G networks, including deployment models like Standalone Non-Public Networks (SNPN) and Public Network Integrated Non-Public Networks, as well as the impact of network slicing and standardization efforts. www.Telcolearn.com
- 4. 7. Integrating the End-to-End 5G System: Learn the importance of system integration across RAN, Core, Transport, and Cloud infrastructures, the role of orchestration in managing resources, and the implementation of network slicing for optimizing services in an end-to-end 5G network. www.Telcolearn.com
- 5. Overview of 5G • Evolution from 2G to 5G: 5G is the fifth generation of mobile technology, following 2G (voice), 3G (data), and 4G (high-speed internet). It offers faster speeds, lower latency, and greater capacity. • What is 5G Technology?: 5G enables ultra-fast internet, low latency, and massive device connectivity, supporting emerging technologies like IoT and AI. • 4G to 5G Evolution: 5G improves on 4G by supporting higher data speeds, reduced latency, and more reliable connections for a variety of use cases. • 5G Service Verticals and Use Cases: 5G will revolutionize industries such as healthcare, manufacturing, autonomous driving, and smart cities with applications like IoT, augmented reality, and more. www.Telcolearn.com
- 6. 5G NR (New Radio) • Introduction to 5G NR: The new radio standard for 5G, offering faster speeds, lower latency, and support for diverse use cases. • Deployment Models (SA vs NSA): Standalone (SA) mode operates independently of 4G infrastructure, while Non-Standalone (NSA) mode uses 4G infrastructure as a backbone for 5G. • 5G Bands - FR1 and FR2: FR1 (Sub 6 GHz) and FR2 (24 GHz and above) are frequency ranges for 5G, with FR2 supporting higher speeds but requiring more infrastructure. • Massive MIMO: Multiple antennas on a single base station improve capacity and coverage. • Beamforming: Technology that directs radio signals toward specific users, improving efficiency and coverage. www.Telcolearn.com
- 7. 5G Core • Introduction to 5G Core: The central part of 5G architecture responsible for managing data traffic, network slicing, and end-to-end services. • 5G Core Architecture and Network Functions: Includes key functions like user plane, control plane, and application support, enabling efficient operation of 5G networks. • Overview of Cloud Computing: The use of cloud infrastructure to support flexible, scalable, and cost-effective 5G services. • Cloud-Native Deployment of 5G Core: Deploying the 5G core using cloud- native principles for scalability and agility. • 5G Call Flow: The process by which voice or data calls are initiated, processed, and completed in a 5G network. www.Telcolearn.com
- 8. MEC (Multi-Access Edge Computing) • What is MEC?: MEC brings computing resources closer to the end- user to reduce latency and improve service delivery. • Need for MEC: Essential for applications requiring real-time data processing, such as autonomous vehicles and smart manufacturing. • MEC in 5G Network Deployment: Facilitates low-latency services by deploying compute resources at the network edge. • MEC Architecture: Involves deploying servers and storage closer to the user and integrating with the RAN and core networks. • MEC Orchestration: Managing and optimizing the use of edge resources to ensure efficient service delivery. www.Telcolearn.com
- 9. Private 5G Networks www.Telcolearn.com •Evolving Use Cases: Private 5G supports applications like secure communications, automated operations, and location-based services. •Advantages of 5G in Private Networks: Provides control over the network, improved security, and optimized performance for specific enterprise needs. •Deployment Models: Includes Standalone Non-Public Networks (SNPN), Public Network Integrated Non-Public Networks, Network Slicing, MNO Hosted, and RAN Shared models. •Challenges: Includes issues like standardization, deployment complexity, and the integration of existing infrastructure.
- 10. Enterprise 5G Use Cases www.Telcolearn.com •uRLLC/eMBB/mMTC: Ultra-Reliable Low Latency Communications (uRLLC), enhanced Mobile Broadband (eMBB), and massive Machine-Type Communications (mMTC) cover critical, high-speed, and massive device applications. •Industry 4.0: 5G enables automation, smart factories, and real-time monitoring in industrial applications. •Automotive and V2X: Supports autonomous vehicles and Vehicle- to-Everything (V2X) communication. •Defense Networks: Secure, reliable communication for defense operations. •Public Safety Verticals (PS): Enhances communication for emergency services and public safety systems.
- 11. End-to-End System Integration www.Telcolearn.com •RAN, Core, Transport, Cloud: Integrating Radio Access Networks (RAN), core networks, transport networks, and cloud infrastructure for efficient operation. •Role of Orchestration: Automates the management and coordination of network resources for efficient service delivery. •Network Slicing: Creates virtual, isolated networks for specific use cases, optimizing performance and resource allocation.