Immersive Spaces

The XR Bandwidth Problem

Modern untethered XR devices offload rendering to nearby compute when possible. Cloud-rendered XR demands wireless links capable of 1–2 Gbps per user, with strict latency budgets to prevent motion sickness. At 5G FR1 frequencies this is impossible at scale; only mmWave bands (FR2 and above) offer the bandwidth. But mmWave is blocked by hands, bodies, and ceiling structures. Reconfigurable antennas that track users in real time are not a nice-to-have for immersive XR—they're a precondition.

Stadium-Scale Traffic Density

When 50,000 fans attend a concert and each wants to upload video, stream replays, and check social media simultaneously, the aggregate traffic demand exceeds what any single base station can serve. Distributed antenna systems help, but their deployment is expensive and inflexible. Reconfigurable systems that concentrate beams toward high-demand zones in real time—following the wave, following the crowd, following the moment of peak demand—offer a fundamentally different scaling approach.

Exhibition Halls and Museums

Modern exhibition design increasingly relies on wireless-connected experiences—projection mapping, AR overlays, real-time multilingual audio guides, location-aware content delivery. Each exhibit may have different wireless requirements, and the layout changes between shows. A wireless system that can be reconfigured on a per-exhibition basis—without re-cabling—aligns with how these spaces actually operate.

Engagement Models

We're in early conversation with venue operators, XR hardware manufacturers, and live-event production companies. Pilot scenarios under discussion include: VR theme park installations, demonstration zones at trade shows, fixed-position interactive museum exhibits, and experimental deployments in mid-sized stadiums.