Nexus Observatory

Connectivity

Private 5G, AI-RAN and orbit, on site.

Standalone private 5G and O-RAN, AI-RAN on shared accelerated compute, LEO and GEO backhaul and 3GPP direct-to-device, LPWAN and mesh for sensors over kilometres, PTP timing inside the budget, and the spectrum route for each country.

Plan with usReference architectureThe open protocol

At a glance

Private 5G, AI-RAN and orbit, on site

Connectivity delivers standalone private 5G and O-RAN, AI-RAN on shared accelerated compute, LEO and GEO backhaul with 3GPP direct-to-device, LPWAN and mesh for battery sensors, and timing inside the budget. Each part can be bought on its own or as one managed network, under your control or ours.

Die probleem

Public networks were not built for this site

Cranes, vehicles, sensors and crews need coverage where public networks are weak, latency they can plan around and control over who connects. Sites far from fibre need backhaul that still works when the road is cut. Coverage has to be designed for the site, not borrowed from a public map.

Key facts

Interfaces: O-RAN fronthaul · E2 · A1 · O1
Radio: 3GPP 5G NR standalone · LoRaWAN · LTE-M / NB-IoT

Components

Street small-cell pole with an air-quality node
Particulate monitoring station and sensor node
LoRaWAN gateway, endpoint and soil probe
Road weather information station (RWIS) on a highway shoulder
Private-5G site
“AI tower in a box”
PTP grandmaster clock with GNSS antenna
Data hall row pair with cold-aisle containment

Interfaces

Radio: LTE / 5G · Fibre · PoE

Where it works

RAN and inference on the same accelerators
Backhaul from orbit

In the story below

The system, part by part
Assembly
Installation
Deployment
Connections
Operation
Failure and recovery
Scale and federation
What you get

Scenes · 19

Next steps

Plan a deployment Open the Field Deployment Studio Request a quote Talk to sales

Die probleem
Public networks were not built for this site
Cranes, vehicles, sensors and crews need coverage where public networks are weak, latency they can plan around and control over who connects. Sites far from fibre need backhaul that still works when the road is cut. Coverage has to be designed for the site, not borrowed from a public map.
What it does
Private 5G, AI-RAN and orbit, on site
Connectivity delivers standalone private 5G and O-RAN, AI-RAN on shared accelerated compute, LEO and GEO backhaul with 3GPP direct-to-device, LPWAN and mesh for battery sensors, and timing inside the budget. Each part can be bought on its own or as one managed network, under your control or ours.
See Private 5G
Open RAN
Open fronthaul, many suppliers
With O-RAN interfaces the radio units, distributed units and RAN intelligent controller can come from different suppliers and still be tested as one network, so the site is not locked to a single vendor. Interfaces are tested at every upgrade, so a new supplier can be brought in without rebuilding the network.
Interfaces
O-RAN fronthaul · E2 · A1 · O1

See O-RAN
The system
One station, part by part
Before anything is installed, the station is laid out as its parts: instrument, logger and edge compute, secure element, GNSS timing, radio, power, enclosure, wiring, earthing, mast and foundation.
Assembly
Built and tested before it ships
Each part is fitted to the pole and the enclosure, wired through surge protection to one earth, powered and bench-tested until it signs its first reading.
Installation
Installed on site
The crew arrives with the tested kit: foundation, mast raised and guyed, instruments mounted, cables run in conduit, the enclosure fitted out and the site commissioned.
Deployment
Site after site, one design
The same station goes in at every site on the plan, each commissioned against the same checklist, until the field is covered.
Wiring
Signal, power and time, wired
Inside one site the instrument’s signal pair runs to the logger, solar charges the battery that feeds the load, GNSS time reaches the clock and the logger hands its records to the radio.
AI-RAN
RAN and inference on the same accelerators
AI-RAN runs radio processing and applications on shared accelerated compute at the edge, so spare capacity serves inference when traffic is low and the radio when it peaks. The same compute that runs the radio can host the analytics that use it, so one investment serves both.
See AI-RAN
Connections
Backhaul, time and power
The relay carries every site to the edge over a point-to-point link, the grandmaster’s time reaches every clock, and each site keeps its power through the night.
Timing
PTP to the telecom profile, GNSS with holdover
Radios need phase-aligned time. A grandmaster disciplined by GNSS distributes PTP under the ITU-T G.8275.1 profile, and holdover rides through outages within the timing budget. Timing quality is monitored at every radio, and a degraded clock is flagged before it disturbs the service.
See Timing
Satellite and NTN
Backhaul from orbit
LEO and GEO terminals backhaul remote sites and back up terrestrial links; 3GPP non-terrestrial networks bring direct-to-device coverage where no mast can reach. Satellite links are monitored and switched like any other path, so the site keeps reporting whichever route is available.
See Satellite and NTN
Hoe dit werk
Your core, your SIMs, your site
Devices attach to radios on poles and towers; traffic is routed by a core that runs on site, so data that should stay local never leaves. Battery sensors join over LoRaWAN; the site reaches the outside world over fibre, microwave or satellite.
Radio
3GPP 5G NR standalone · LoRaWAN · LTE-M / NB-IoT
Spectrum
Bands, licences and routes, by country
Each country has its own route to spectrum: shared, local or leased. We prepare the case from band tables and measured occupancy, and keep the licence conditions with the network record. The licence and its conditions are kept with the network record, so a renewal or an audit starts from the facts.
See Spectrum
Operations
Coverage, capacity and interference, watched
The network is monitored per cell and per device class: coverage holes, congestion and interference are found from measurements, then fixed in the plan and verified on site. Every fix is checked against measurements after the change, so the network plan always matches what is really on air.
Bywerkings
Radio software, rolled out in rings
RAN and core software is staged across cells and sites with health checks on each ring, so a release that degrades the network stops before it spreads. Rollback is planned for every release, so a bad change is undone in minutes, not days, and the cause is recorded.
How it scales
Add cells, not networks
Coverage grows by adding small cells and sectors to the same core; capacity grows by adding spectrum and compute; new sites join as copies of a proven design. Many sites can share one core or keep their own. The same design rules apply at every scale, so the network never has to be re-engineered to grow.
What you get
Private Wireless as a Service
Band tables, country guides and coverage methods are open. Private Wireless as a Service, AI-RAN deployment and spectrum route support are contracted, from a single site to a multi-site network. Service levels are written per site and per service, and measured from the same data you can see.
Talk to sales
Next step
Plan coverage on your terrain
Plan coverage on real terrain in the Field Deployment Studio, or send us the site and the devices you need to connect. We return a design with a coverage plot, a capacity estimate and the spectrum route your country allows.
Plan a deployment Open the Field Deployment Studio Request a quote

See it from every side.

Each opens as a full-screen presentation: deeper pages on the same subject, explainers, stories, guided tours of the places, network scenes and the observatories that came before.

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