Spatial Intelligence for Wireless Communications and Sensing

Methods to Applications

From wireless radiation fields to world models: a half-day tutorial by HKUST iComAI Lab on reusable spatial knowledge for 6G communications, sensing, and embodied agents.

Tutorial roadmap from foundations and 3D-GS to generalization and applications

Tutorial Motivation

Why Spatial Intelligence?

Move wireless systems from link-level optimization to spatial intelligence.

Next-generation networks are becoming AI-native, but a deeper bottleneck remains: we still understand channels as short-window, per-link samples, while the physical world is a continuous, shared, and reusable 3D space.

Massive MIMO, ultra-reliable low latency, mixed bands, and dense deployment all ask the same question: when pilots are scarce, CSI is imperfect, and environments change rapidly, how do communications and sensing upgrade from estimating one link to understanding one space?

Spatial intelligence answers this by treating wireless channels as shared projections of the physical environment, building reusable spatial priors through wireless radiation fields and world models—so networks can not only transmit, but also reason, predict, and plan in space.

Urban multipath propagation: a base station serving a mobile receiver through direct and reflected paths
Geometry shapes wireless: LoS and multipath are projections of the same 3D scene.

Learning Outcomes

After This Tutorial, Attendees Will Understand

Spatial Channel Modeling

How to move from stochastic channel descriptions to geometry-conditioned models.

3D-GS For Wireless

How 3D Gaussian Splatting can support wireless radiance field reconstruction.

Spatial Intelligence Generalization

How datasets, few-shot adaptation, and cross-scene transfer shape spatial intelligence.

6G Applications

How spatial intelligence enables positioning, planning, UAV networking, and embodied AI.

Half-Day Program

Tutorial Outline

Aligned with the slide deck Spatial Intelligence Tutorial v1 (PDF).

Part I

Vision for Wireless Spatial Intelligence

  • Why is reusable spatial knowledge needed?
  • What is the wireless spatial field?
  • How should wireless space be represented?
Part II

3D-GS Methods for Spatially Intelligent Channel Modelling

  • WRF-GS: wireless field reconstruction
  • From WRF to WRF-GS+
  • Temporal non-stationarity and mobility-aware modelling — GeoGS-CE
Part III

Radio Map & Spatial Intelligence Generalization

  • Few/Zero-shot generalization in a single scene — URF-GS
  • Generalization across scenes — Point2Radio
  • Indoor positioning
Part IV

Spatial-Intelligent Enabled Applications

  • Intelligent Agents
  • Beamforming
  • AP Deployment and Low-altitude Spatial Intelligence
Part V

Conclusions & Outlook

  • Conclusions
  • Outlook toward wireless world models

Tutorial Team

Speakers

Prof. Jun Zhang

Jun Zhang 张军

Professor, HKUST. IEEE Fellow.

Wireless communications, networking, edge AI, and cooperative AI.

Dr. Yumeng Zhang

Yumeng Zhang 张宇萌

Post-Doctoral Fellow, HKUST.

AI for wireless, sensing, ISAC, massive MIMO, and channel estimation.

Special Thanks

Featured contributor to the tutorial materials and core demos.

Acknowledgments

For significant contributions to the tutorial materials, we also thank:

Conference Versions

Accepted Tutorials

IEEE ICCC 2026

Date Aug 7, 2026 (Thu), 14:00–18:00

Venue Hall 3-6, China Optics Valley Convention & Exhibition Center, Wuhan

Host IEEE International Conference on Communications in China

From wireless radiation fields to world models — a half-day path through vision, 3D-GS methods, generalization, and applications.

IEEE GLOBECOM 2026

Conference-specific time, venue, registration link, and released materials will be added here.

Resources

Materials