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JIO's 6G "ante portas"

6G Network Overview: a roadmap from Standards to Network

This course introduces participants into 6G network requirements
Aimed At
Course Review
Why Choose this Course
You will learn
Course Outline
Training Format

Customer Tailored

We can tailor the included topics,tech level,and duration of this course right to your team’s technical requirements and needs. - MCNS offers courses to companies, institutions, departments etc and not to individuals as per open courses.
Aimed At

This course is aimed at both RAN and Core engineers who are interested in 5G/6G technology evolution, fusing together core cloud architecture and 6G RAN slicing. It might be also useful for anyone involved in 5G/6G product development and technology who want to learn about latest mobile telecom technologies.

Prerequisites: In order for the attendant to better understand the content of this topic and to gain a further insight, some prior knowledge of 5G RAN and 5GC and cloud overview knowledge is recommended.

Course Review

This course will smoothly introduce audience into 6G network and requirements. 6G is expected to build upon the foundation of 5G, offering even faster data speeds, lower latency, greater capacity, and more reliable connections. Although the effort of 6G standards is on-going for the next four to five years away, it’s anticipated to enable revolutionary applications such as holographic communications, seamless virtual reality experiences, advanced AI integration, and highly automated systems.

Technologies like Terahertz (THz) Communication, ultra-massive MIMO, AI-Driven Radio Resource Management, Non-Orthogonal Multiple Access (NOMA), Integrated Satellite and Terrestrial Networks for low Earth orbit (LEO) satellite constellations and Quantum Communication. After this course participants will have a solid understanding of the 5G and 6G network necessity, new services and network topology.

Course Benefits for individuals (Professionals)
  • Evaluate implementation options for 6G technology
  • Understand the 3GPP release 18 & 19 contribution to 6G
  • Understand 6G RAN services and use cases.
  • Confidence to set expectation for 6G forthcoming technology and to better evaluate solutions in terms of commercially viability, reliability, risk and strategy.
Course Benefits for your Organization
  • Equip organization engineers with the necessary knowledge of forthcoming 6G technology.
  • Develop technology solutions and roadmaps that are better aligned with the expected 6G industry direction.
  • A solid foundation on which to build organizational competency development plans to ensure opportunities arising from 6G architectures.
  • Prepare for future network expansions and quality performance optimization.
You will learn
The key points you will learn through this course

6G basics

6G evolution - Technology Overview

Course Outline
A short brief of your program details & schedule

5G advanced to 6G evolution

  • 3GPP standards overview
  • 3GPP Release 17 – 5G Advanced technical requirements
  • 5G Rel 17 advanced features
  • 3GPP Release 18 – 5G Advanced technical requirements
  • 5G Rel 18 advanced features
  • 3GPP Release 19 initial requirements
  • 5G Advanced migration to 6G

6G Overview

  • 6G technology overview
  • 6G vision
  • 6G E2E architecture
  • 6G initiatives
  • 6G device requirements

6G Preliminaries on use cases

  • 6G use cases
  • 6G – Intelligent network automation
  • 6G – Reduced capability (RedCap) NR devices
  • 6G – Network energy savings
  • 6G – Ambient IoT
  • 6G Tactile/haptic communications
  • 6G Holographic services

6G network Technology

  • 6G RAN technology requirements
  • AI/ML in 6G RAN Layer 2
  • AI/ML in 6G RAN physical layer
  • 6G core technology requirements
  • AI/ML in 5G core
  • 6G cloud evolution requirements

5G/6G core network technology

  • 5G cloud core
  • 5G slicing
  • 5G core Functions
  • AMF Functionalities
  • UPF Functionalities
  • SMF Functionalities
  • AUSF Functionalities
  • 5G Core Interfaces
  • 5G to 6G core requirements
  • 5G/6G combined core architectures

6G RAN overview

  • 6G New Frequency bands
  • 6G GHz bands – upper C-band (6-15 GHz)
  • 6G GHz bands – upper mmW band (100–300 GHz)
  • 6G THz bands – (>300 GHz)
  • 6G Reconfigurable Intelligent Surface (RIS)
  • 6G smart repeaters
  • 6G RAN Non Terrestrial Network (NTN) connectivity
  • 6G RAN IoT connectivity
  • AI/ML RAN functionality
  • Orbital angular momentum (OAM) multiplexing
  • Innovative air-interface design
  • Hardware Acceleration
  • 6G Combined Sensing & Communication
  • 6G automation
  • 6G Holographic radio
  • 6G Edge Computing
  • 6G Quantum computing
  • 6G Integrated terrestrial and non-terrestrial infrastructures
Training Format

Instructor-Led Training

On-Site Classroom: 2 days

Web delivered (Virtual): 2 days

Excellent and descriptive course material (pdf file) will be provided


What are the new 6G use cases?

While 6G technology is still in the early stages of development, several potential use cases have been proposed in 3GPP release 19, based on emerging trends, technological advancements, and anticipated societal needs. Some of these include: Holographic Communications: 6G could enable real-time holographic communication, allowing users to interact with lifelike holograms of distant individuals or objects. This technology could revolutionize telepresence, remote collaboration, and entertainment experiences. Ubiquitous Augmented Reality (AR) and Virtual Reality (VR): With ultra-low latency and high bandwidth, 6G networks could support seamless and immersive AR and VR applications across various sectors, including gaming, education, healthcare, and manufacturing. Telemedicine and Remote Surgery: 6G networks could facilitate advanced telemedicine solutions, enabling remote consultations, diagnosis, and treatment. Additionally, with enhanced reliability and ultra-low latency, 6G could support real-time remote surgery, allowing surgeons to perform procedures from anywhere in the world. Autonomous Vehicles and Intelligent Transportation: 6G technology could play a crucial role in the development of autonomous vehicles and intelligent transportation systems. With ultra-low latency communication and high reliability, 6G networks could enable vehicle-to-everything (V2X) communication, traffic management, and collision avoidance systems. Smart Cities and Infrastructure: 6G networks could power the development of smart cities and infrastructure by providing real-time data analytics, predictive maintenance, and efficient resource management. This could lead to improvements in urban mobility, energy efficiency, public safety, and environmental sustainability. Internet of Things (IoT) at Scale: 6G is expected to support massive connectivity and communication between billions of IoT devices, sensors, and actuators. This could enable a wide range of applications, including smart homes, industrial automation, environmental monitoring, and precision agriculture. AI-driven Services and Personalization: 6G networks may leverage artificial intelligence (AI) and machine learning algorithms to deliver personalized services and experiences tailored to individual preferences and behavior. This could include AI-driven content recommendation, predictive analytics, and virtual assistants. Digital Twins and Simulations: 6G could enable the creation of digital twins—virtual replicas of physical objects, systems, or environments—in real-time. This technology could be applied across various domains, such as manufacturing, healthcare, urban planning, and entertainment, for simulation, optimization, and predictive analysis purposes.

What are the 6G technology drivers?

According to 3GPP, ETSI, ATIS and other standard bodies, some of the key technology drivers for 6G include: Higher Frequencies and Terahertz Communication: 6G is expected to leverage even higher frequency bands, potentially reaching into the terahertz range. This would enable faster data rates, wider bandwidth, and support for ultra-low latency communication. Massive MIMO and Beamforming: Building upon the advancements of 5G, 6G is likely to further enhance Multiple Input Multiple Output (MIMO) and beamforming technologies. This would enable more efficient spectrum utilization, improved coverage, and higher throughput in dense urban environments. Ultra-Low Latency and Reliability: 6G aims to achieve ultra-low latency communication, potentially reaching sub-millisecond latency. This would support real-time applications such as remote surgery, autonomous vehicles, and immersive virtual experiences. AI and Machine Learning Integration: Artificial Intelligence (AI) and machine learning are expected to play a significant role in 6G networks, enabling intelligent network management, predictive analytics, and personalized services. AI-driven optimization could enhance network performance, energy efficiency, and security. Holographic and Spatial Communication: 6G may introduce new communication paradigms, such as holographic and spatial communication, enabling users to interact with lifelike holograms and virtual objects in real-time. This technology could revolutionize telepresence, gaming, and entertainment experiences. Quantum Communication and Cryptography: With the growing importance of security and privacy in communication networks, 6G may incorporate quantum communication and cryptography techniques to ensure secure and tamper-proof communication channels. Quantum key distribution (QKD) and quantum-resistant encryption algorithms could protect against cyber threats and data breaches. Smart Sensing and Environment Awareness: 6G networks are expected to support advanced sensing and environment awareness capabilities, enabling real-time monitoring of physical parameters such as temperature, humidity, and pollution levels. This could facilitate applications in environmental monitoring, disaster management, and smart infrastructure. Energy Efficiency and Sustainability: As environmental concerns become more prominent, 6G technology is likely to focus on energy efficiency and sustainability. This could involve the development of energy-efficient hardware, optimization algorithms, and renewable energy-powered network infrastructure. Satellite and High Altitude Platforms (HAPs): 6G networks may integrate satellite and High Altitude Platform (HAP) communication systems to extend coverage to remote and underserved areas. Low Earth Orbit (LEO) satellite constellations and stratospheric balloons could complement terrestrial networks and provide seamless connectivity worldwide.

How is 6G digital transformation different than 5G?

The digital transformation enabled by 6G is expected to differ from that of 5G in several key aspects, reflecting advancements in technology, new use cases, and evolving societal needs. As an overall answer the digital transformation with 6G is expected to be characterized by faster speeds, ubiquitous connectivity, real-time capabilities, intelligent networks, enhanced security, and deeper integration of digital technologies into all aspects of society and industry. Here's how the digital transformation with 6G might differ: Speed and Capacity: While 5G already offers significant improvements in speed and capacity compared to previous generations, 6G aims to push these boundaries even further. With faster data rates, wider bandwidth, and lower latency, 6G could support bandwidth-intensive applications such as holographic communication, real-time virtual reality, and ultra-high-definition video streaming, facilitating new levels of digital immersion and interactivity. Ubiquitous Connectivity: 6G is expected to provide seamless and ubiquitous connectivity, extending beyond urban areas to cover remote and underserved regions. This could enable universal access to high-speed internet, bridging the digital divide and empowering communities with access to online education, telemedicine, e-commerce, and other digital services. Ultra-Low Latency and Reliability: One of the defining features of 6G is its ultra-low latency and high reliability, potentially reaching sub-millisecond latency. This would enable real-time applications such as autonomous vehicles, remote surgery, and industrial automation, transforming industries and enhancing productivity, efficiency, and safety. Intelligent and Adaptive Networks: 6G networks are expected to be more intelligent and adaptive, leveraging artificial intelligence (AI) and machine learning to optimize network performance, predict user behavior, and personalize services. AI-driven network management could enable dynamic resource allocation, predictive maintenance, and proactive security measures, enhancing the overall user experience and network efficiency. Digital Twins and Simulation: 6G could facilitate the development of digital twins—virtual replicas of physical objects, systems, or environments—allowing for simulation, optimization, and predictive analysis across various domains. This could revolutionize industries such as manufacturing, healthcare, urban planning, and entertainment, enabling more efficient processes, better decision-making, and enhanced user experiences. Quantum Communication and Security: With the integration of quantum communication and cryptography techniques, 6G networks could offer unprecedented levels of security and privacy. Quantum-resistant encryption algorithms and quantum key distribution (QKD) protocols could protect against cyber threats and ensure the integrity and confidentiality of communications, fostering trust and reliability in digital interactions. Augmented Intelligence and Human-Machine Collaboration: 6G could enable augmented intelligence, enhancing human capabilities through seamless interaction with intelligent machines and algorithms. This could lead to new forms of human-machine collaboration, automation, and decision support systems, transforming how work is performed and knowledge is created and shared in the digital age.

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