Discover how Mi-Lab at ATU uses Timebeat's precision time synchronisation to align IMUs, LiDAR, and cameras — enabling reliable multi-modal human motion research.

30ms timing lags were breaking autonomous sensor fusion. Discover how Timebeat delivered sub-30ns synchronization across moving vehicles, mobile trailers, and roadside infrastructure without the typical €20k+ per-unit cost.

Integrating Timebeat PTP into optical fronthaul: Smart Internet Lab achieves sub-100ns alignment for dynamic DU/RU reconfiguration and fast link recovery in 5G/6G research.

Discover a repeatable architecture for GNSS-disciplined timing in private LTE networks. This case study explores edge computing and synchronisation for critical infrastructure.

From broadcast lip-sync to robot control: See how TSN over 5G extends deterministic Ethernet into the wireless domain, solving the challenge of mobility in automation.

“No roof access, no problem” timing for multi-operator 5G Sector: Large venue neutral host (stadium) Challenge: GNSS antenna installation blocked by venue approvals and limited roof routes Requirement: Stable time/phase for multi-cell TDD operation (sub-microsecond-class alignment target) Starting position The neutral host operator had: An in-building fibre network is already provisioned Multiple radio zones with BBUs/O-DUs in secured comms rooms Strict venue rules aro

Designing timing resilience when GNSS is weak even near windows Sector: Dense urban in-building neutral host (multi-tenant property) Challenge: GNSS multipath/attenuation made reception unreliable; roof route complex and slow Forward-looking requirement: Architecture ready to adopt indoor LEO PNT when available Starting position The building had: A shared comms room in the basement Risers and fibre to each floor’s radio zones Limited access to the roof and strict façade

An enterprise campus deployed private 5G without rooftop antennas on every building. Learn how centralized timing and engineered PTP over shared IT networks delivered reliable synchronization while avoiding “GNSS everywhere” costs.