Warehouses, distribution centres, ports and freight terminals depend on wireless connectivity for a growing base of automated systems, often across sites where public network coverage is weak or absent altogether. Private LTE and 5G give logistics and transport operators a dedicated wireless infrastructure, sized for the site's actual automation and operational requirements rather than best-effort commercial coverage. Planning a network that performs reliably requires simulation before deployment.
Why logistics and transportation operators need private LTE/5G networks
Private networks are deployed where public networks cannot meet operational, security or reliability requirements, a rationale Forsk applies consistently across every industrial and enterprise vertical.
In logistics and transportation, that plays out in a specific, well-documented way: ports, distribution hubs and freight terminals are frequently located away from population centres, where public network coverage is weakest to begin with. Even at sites with reasonable public coverage, commercial network planning typically prioritises passenger terminals and runway areas, leaving operational and maintenance zones comparatively under-served. Warehouses compound the problem indoors: dense metal racking, concrete construction, minimal windows and internal metalwork create some of the most difficult in-building RF environments of any commercial vertical.
A private LTE or 5G network gives the operator full control over coverage, capacity and reliability across the entire site, rather than relying on the parts of the site a public network operator happens to prioritise.
The challenge of planning private networks for logistics and transportation
Logistics and transportation sites vary enormously in scale and layout, but share a structural pattern: they combine dense, RF-hostile indoor environments with very large outdoor areas that can span several kilometres, all functioning as one operational site. A large port or airport can extend up to 10km across, with its own internal road network, closer in scale to a small industrial town than a single facility.
Planning a private wireless network for this environment means modelling the transition between these very different zones as one continuous problem, not as separate indoor and outdoor projects that happen to sit next to each other. A gap at the loading-bay door between a warehouse interior and the yard outside is exactly where an AGV, forklift or handheld scanner is most likely to lose connectivity mid-task.
These sites also need to integrate private cellular alongside systems already in place: legacy PMR/LMR radio for critical voice, existing Wi-Fi for office and tenant areas, and sometimes fixed fibre infrastructure. Planning has to account for how the new private network coexists with what's already operating on site, rather than disrupting it.
What the network must support
- Vehicle telemetry and condition monitoring
- Automated and remote-guided vehicles
- Video surveillance and security
- Worker safety systems
- Site-wide workforce communications
- Multi-stakeholder connectivity
Planning logistics and transportation networks with Atoll One
Atoll One is built for site-level private network planning: a single distribution centre, port or freight terminal spanning multiple buildings and outdoor zones, modelled as one project. The same simulation covers indoor warehouse space and outdoor yard or apron areas together, so the indoor-outdoor transition is planned as one continuous environment rather than stitched together from separate projects.
Frequently asked questions
Public networks are often weakest exactly where logistics and transport sites are located, and even where coverage is reasonable, commercial network planning typically prioritises passenger or public-facing areas over operational zones. A private LTE or 5G network is operated independently, under the full control of the operator, with coverage and reliability configured to the site's automation and operational needs.
Vehicle telemetry and condition monitoring, automated and remote-guided vehicles, video surveillance, worker safety systems, site-wide workforce communications, and multi-stakeholder connectivity for tenants, contractors and passengers where applicable.
The combination of some of the most RF-hostile indoor environments of any commercial vertical with very large outdoor areas that can span several kilometres, plus the need to coexist with legacy radio and Wi-Fi systems already in place. Planning must treat the indoor-outdoor transition as a single continuous problem, since that boundary is where automated vehicles and handheld devices most commonly lose connectivity.
Atoll One for a single university campus, including multi-building sites modelled as one project. Atoll for multi-campus university systems or where multi-technology planning is required.
