6G THZ and Sub-THz Training
6G for THZ and Sub-THz is a technology training course that covers key 6G technologies with an emphasis on the THz frequency band, which is in the range of 100 GHz to 300 GHz, and THz, which is from 300 GHz to 3 THz on the spectrum chart.
Participants will examine the benefits and challenges of coupling 6G with the THz frequency band.
Additionally, attendees will examine how THz signals have the capacity to drive advanced 6G technological applications such as digital twins, immersive extended reality (XR), mobile holograms and digital replicas, nano healthcare, three-dimensional (3D) calls, haptics communications, unmanned mobility, tele-operated driving and the nano-inspired internet of things.
The fuel that feeds each generation of wireless communications has been carved from spectrum frequency, the invisible radio frequencies that wireless signals travel over.
Each new wireless generation such as 3G, 4G and now 5G has been created around faster radio frequencies higher up on the spectrum band to provide faster internet speeds, lower latency and accommodate new technological applications.
6G is no exception. While still some years away, 6G by all accounts will make use of the highest radio frequency band to date: the terahertz (THz) band.
Actually, there are really two components to the THz spectrum band: sub-THz, which is in the range of 100 GHz to 300 GHz, and THz, which is from 300 GHz to 3 THz on the spectrum chart. The sub-THz is also known as D-band spectrum, which falls in the range of 130 GHz to 175 GHz.
The benefits of THz spectrum are that it can deliver data-intensive, high bandwidth applications at super-fast speeds for a short distance.
The challenge (as with 5G’s mmWaves) is that terahertz signals are fast but unstable and travel only short distances and may be negatively impacted by buildings and atmospheric conditions such as rain.
In fact, experts in this field believe the development of 6G and use of sub-THz bands will pose even greater challenges than has been the case for 5G, for RF engineering and device physics. But others contend that many of the lessons learned from the mmWave spectrum will work well for THz spectrum with the belief that THz frequencies will be used for mobile applications as well as fixed wireless and backhaul.
Unquestionably, THz signals are the main conduits for 6G’s projected technological advances.
Advanced multimedia services such as truly immersive extended reality (XR), mobile holograms and digital replicas, nano healthcare, three-dimensional (3D) calls, haptics communications, unmanned mobility, tele-operated driving and the nano-inspired internet of things are some examples of promising use cases of terahertz communications in 6G.
With the help of advanced sensors, artificial intelligence (AI) and THz communication technologies, it will be possible to replicate physical entities, including people, devices, objects and places in a virtual world.
In a 6G environment, users should be able to use digital twins to explore and monitor the reality in a virtual world, without temporal or spatial constraints. THz frequency imaging and spectroscopy will support real-time and perpetual data on the human body through non-intrusive, contact-free, and dynamic measurements, such as digital health technology.
In March 2019 the FCC saw the potential of the THz bands and issued its Spectrum Horizons Report and Order, which created a new category of experimental licenses for use of frequencies between 95 GHz and 3 THz. These licenses are intended to give researchers the flexibility to conduct experiments lasting up to 10 years, and to more easily market equipment during the experimental period.
6G THZ and Sub-THz Training Course by Tonex
6G for THZ and Sub-THz is a technology training course that covers key 6G technologies with an emphasis on the THz frequency band, which is in the range of 100 GHz to 300 GHz, and THz, which is from 300 GHz to 3 THz on the spectrum chart.
Participants will examine the benefits and challenges of coupling 6G with the THz frequency band.
Additionally, attendees will examine how THz signals have the capacity to drive advanced 6G technological applications such as digital twins, immersive extended reality (XR), mobile holograms and digital replicas, nano healthcare, three-dimensional (3D) calls, haptics communications, unmanned mobility, tele-operated driving and the nano-inspired internet of things.
Who Should Attend
6G THz and Sub-THz Training Course is a 2-day course designed for:
- Anyone involved in 6G product development
- Anyone involved in 6G network analysis or planning
- Anyone involved in 6G design or engineering
- Professionals who want to upgrade their skills to 6G
- Anyone else who want to learn latest telecom technologies and want to work for telecom mobile operator and vendor companies
- Cybersecurity analysts and professionals working in both red and blue teams
Course Agenda
Overview of 6G Technology
- Beyond5G
- Overview of 5G-Advanced
- Introduction to 6G
- ITU Vision for IMT-2030/6G
- 3GPP Rel 18 and Beyond
- 6G and Connecting a Cyber Physical World
- 6G Use Cases and Applications Scenarios
- 6G Commercial Deployments
- 2023 To 2030 And Beyond
- Beyond millimeter wave (mmWave)
Overview of THz and Sub-THz Technology in 6G
- 5G Spectrum Ranges And Possible New 6G Spectrum Ranges
- 6G Spectrum
- The Need for Additional Spectrum
- 6G Coverage Requirements
- 6G Use Cases and Capacity
- Key Technologies in 6G Terahertz Wireless Communication Systems
- Spectrum In the Essential Centimetric (7-20 GHz)
- The Pathway To 6G Spectrum
- ITU-RR (Radio Regulations) Frequency Allocations For 7-20 GHz
- Sub-THz (92-300 GHz) Ranges
- Sub-THz Frequencies W And D Bands
- Terabits Per Second (Tbps) Speeds and Extremely Low Latencies
Key Technologies In 6G Terahertz Wireless Communication Systems
- Region of 100-400 GHz
- New 6G Spectrum ranging from 0.1 to 10 THz, THz
- Channel Capacity and Shannon’s Equation
- Increasing the Channel Bandwidth term in 6G
- Increasing the SNR term in 6G
- Modulation Coding Scheme (MCS)
- Channel Sounding and Propagation Measurements
- Advanced MIMO systems
- Additional Channel Capacity by Using Multiple Spatial Channels
- Error Coding Schemes
- THz Multibeam Antennas
- The THz Photoconductive Antenna
- THz metallic antennas
- Advanced Beamforming and Reflector Surfaces (Meta-surfaces)
- Gain Directional Links
Fundamental Basis for the Design, Optimization and Testing of THz Communication Systems
- Device And Semiconductor Technology
- Semiconductor And Packaging Technology
- Technology And Packaging for Integrated Antenna Systems
- THz Multibeam Antennas and Front-end Chips
- Tx Baseband
- Signal Processing
- Rx Baseband
- Signal Processing
- Tx Front-End Chip
- Rx Front-End Chip
- Tx Multibeam Antenna
- Rx Multibeam Antenna
- Propagation Channel
THz Channel Characteristics and THz Radiation
- Propagation of EM Waves
- Direct Radiation, Reflection, Scattering, and Diffraction.
- The 300-GHz Wave and Beyond
- Visible Light Communication (VLC)
- Optimal Channel and Power
- THz Channel Models
- THz Propagation Mechanisms
- THz Atmosphere Absorption
- 200-THz infrared wave absorption coefficient
- 200 GHz to 10 THz Attenuation of water vapor in the atmosphere
- THz Resource Management
- Radio resource management (RRM)
- THz-based WLANs,
- Indoor Cellular Networks
- Nanocommunication
- Resource Management
- Artificial intelligence (AI) Technology in THz Channel Modeling
Advanced Design Workshop
- 6G Access and Xhaul (E.g. Fronthaul, Backhaul) Networks
- THz Channel Characterization and Modeling
- THz Multibeam Antennas
- THz Front-End Chip Design
- THz Baseband Signal Processing