Rail & Trackside
Safety-certified, deterministic communications for signalling and train-to-ground links, with zero tolerance for failure.
Rail cannot tolerate the same network behaviour as a factory. A digital substation has different requirements from a mine, and a life-safety system cannot be engineered like a conventional enterprise network. Throughput applies the same resilience principles to each environment while designing for the operational reality of the industry.
The engineering principles behind resilient industrial communications are consistent, but their application is not. Safety integrity, determinism, environmental exposure, asset lifecycle, regulatory requirements and recovery behaviour change from one industry to another. Throughput designs around those differences rather than forcing every environment into the same network model.
Safety-certified, deterministic communications for signalling and train-to-ground links, with zero tolerance for failure.
Absolute continuity for substation, pipeline, and nuclear OT under strict safety mandates.
Networks that survive explosive, dusty environments and integrate legacy systems.
Resilient segmentation blending real-time control with IIoT data for 24/7 uptime.
Integrated, segmented networks ensuring public service resilience during outages or attacks.
Geographically diverse redundancy and defence-in-depth for society's backbone.
Life-safety systems demanding five-nines availability, strict segmentation, and hardened infrastructure.
Resilient architectures with diverse paths ensuring zero-downtime for traffic management.
The engineering disciplines that support resilient industrial communications apply across every sector.
Engineering outcomes for industrial networks
Deep engineering reference and insight
Proven technologies for demanding environments