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All the G's

Rel-21+ (expected) · IMT-2030 (research targets)

6G

IMT-2030 (Research Phase)

2030research

The network that merges the physical and digital worlds.

6G is still in research and standardisation phases — ITU-R IMT-2030 targets are expected to be finalised around 2027, with commercial deployments around 2030. Targets include sub-1ms latency, terahertz spectrum, AI-native air interfaces, and integrated sensing. The vision is a network that doesn't just connect devices but perceives and models the physical world.

Key Metrics

Peak Download
1.0 Tbps
Realistic Download
1.0 Gbps
Typical Latency
500 μs
Min Latency
100 μs
Peak Upload
100 Gbps
Realistic Upload
200 Mbps
Device Density
10M / km²
Spectrum Range
100 MHz – 1 THz

Key Innovations

Terahertz (THz) SpectrumSpectrum

6G research targets 0.1–10 THz bands, offering hundreds of GHz of contiguous bandwidth per carrier — enabling theoretical peak rates of 1 Tbps. Range is sub-100m; primarily indoor and dense urban.

AI-Native Air InterfaceRadio

Unlike 5G where AI is an add-on optimisation layer, 6G embeds machine learning directly into the air interface — channel estimation, beam management, and waveform selection are all ML-driven.

Integrated Sensing and Communication (ISAC)Architecture

6G base stations simultaneously communicate and sense their environment — acting as distributed radar. Enables centimetre-precision positioning and environment mapping using the communication signal itself.

Sub-1ms URLLCProtocol

Extended ultra-reliability targets: 0.1ms over-the-air latency and up to 99.99999% (seven nines) reliability — enabling full remote surgery and safety-critical industrial automation.

Holographic CommunicationsService

Multi-dimensional holographic video transmission requires Tbps throughput and <1ms latency simultaneously — only feasible with 6G's combined improvements.

Non-Terrestrial Networks (NTN) IntegrationArchitecture

6G formally integrates LEO satellite, HAPS (high-altitude platform stations), and terrestrial networks into a unified access layer — true global coverage including oceans and polar regions.

Use Case Support

💬SMS
Supported

All legacy messaging services continue to work.

🌐Mobile Web
Supported

1 Gbps+ realistic speeds make any web interaction instantaneous.

📺HD Streaming
Supported

HD streaming is trivially supported — not a meaningful differentiator for 6G.

🎬4K Streaming
Supported

Fully supported.

🎮Cloud Gaming
Supported

6G exceeds all cloud gaming requirements by multiple orders of magnitude.

📡Massive IoT
Supported

6G targets 10 million devices/km² — 10x 5G's mMTC target.

🥽AR / VR
Supported

6G's Tbps rates and <1ms latency enable full holographic AR/VR without any compromise.

🦾Remote Robotics
Supported

Sub-1ms with seven-nines reliability is the core design target of 6G URLLC — this is the flagship 6G use case.

Architecture

6G — AI-Native Distributed Architecture (Conceptual)

6G architecture is not yet standardised. Research consensus describes a distributed, AI-native, cloud-native architecture with integrated sensing, non-terrestrial layers, and semantic communication.

UEradio
User Device
6G device with THz and AI-assisted radio
TBSradio
THz Base Station
Ultra-dense THz access point (sub-100m range)
LEOradio
LEO Satellite
Low Earth Orbit satellite for NTN coverage layer
AI-RANcontrol
AI-Native RAN Controller
ML-driven resource management across all access nodes
ISACcontrol
Integrated Sensing & Comms
Environment sensing fused with communication data
6GCmanagement
6G Core (AI-Native)
Semantic-aware, intent-driven core network
DTNmanagement
Digital Twin Network
Real-time digital replica of the physical network

See the full interactive diagram on the Architecture page.

What Changed from 5G

THz spectrum (0.1–10 THz)Spectrum

Opens entirely new frequency bands above mmWave, offering hundreds of GHz bandwidth per carrier for Tbps peak rates.

AI-native air interfaceRadio

ML embedded into the waveform itself — not a layer on top. The radio interface learns and adapts continuously.

Integrated Sensing (ISAC)Architecture

Communication signals double as radar — the network perceives and maps its physical environment in real time.

Holographic communicationsService

Tbps + <1ms enables multi-user holographic video — the convergence of physical and digital presence.

Non-terrestrial network integrationArchitecture

LEO satellites and HAPS become first-class access nodes in the same architecture as ground base stations.

Digital Twin NetworkCore

A real-time virtual replica of the entire network enables AI-driven optimisation and predictive management at global scale.