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Use cases
Telecom: where it is deployed.

Deployment scenarios from the sector research and the use-case library, each with the kit, the data products and the proof a buyer asks for. 16 in all.

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  1. Telecom · Use cases

    Towers that compute, sense and connect

    AI-RAN and edge compute at the tower, private 5G for enterprises, timing and spectrum monitoring, satellite backhaul and ground segment, and towers that host observing instruments as a second tenant. Needs: spectrum occupancy and interference, timing accuracy, site power and cooling, backhaul for remote sites and tower capacity for hosted instruments.

  2. Use case

    Northern civil observatory

    Weather, geodetic and space-weather instruments with communications and power at a remote northern site, built for civil use that infrastructure programmes may share. For natural-resource and environment departments, northern communities. Data products: weather and space-weather observations and search-and-rescue support data.

    Standards
    WMO-No. 8 · IGS RINEX · INTERMAGNET
  3. Use case

    Mine site private 5G and environmental monitoring

    A standalone 5G core, radios across the pit and edge compute for autonomy, with dust, vibration, slope and weather sensing for environmental records. For mining companies and their contractors. Data products: autonomy and safety communications records and environmental monitoring records (dust, blast vibration, slope, tailings).

    Standards
    3GPP Rel-16/17 URLLC · ISO 17757 (autonomous mining machinery safety) · GISTM (tailings) · ISA/IEC 62443
  4. Use case

    Community cellular and sensing

    Small cells with an open core, satellite backhaul and solar power, plus a sensing overlay, for a community that owns its network. For indigenous organisations and Indigenous-owned service providers, remote communities. Data products: coverage and service maps in the regulator’s format, speed-test and uptime evidence and community sensing overlay (weather, water, air).

    Standards
    3GPP LTE/NR · ISED Access Licensing Framework (SAB-002-26) · Local data-governance principles (OCAP) where applicable
  5. Use case

    Utility grid-edge private LTE and wildfire weather

    Private LTE on substations and poles for distribution automation, with weather nodes that inform public-safety power shutoff decisions. For electric utilities. Data products: fault location, isolation and service restoration telemetry, distributed-energy control and islanding events and wildfire-risk weather observations. Drawn against 3GPP Band 106, IEC 61850, IEEE 1547 / 2030.5 and NERC CIP.

    Standards
    3GPP Band 106 · IEC 61850 · IEEE 1547 / 2030.5 · NERC CIP
  6. Use case

    Remote microgrid observatory

    Solar, storage and power-quality telemetry with a weather station and a small cell, for a community that is reducing diesel. For remote communities, utilities, Indigenous power producers. Data products: diesel offset and power-quality records and solar-resource measurements. Drawn against IEEE 1547, IEEE 2030.5 and National electrical codes.

    Standards
    IEEE 1547 · IEEE 2030.5 · National electrical codes
  7. Use case

    Deployable incident observatory

    A trailer or vehicle with a cell on wheels, satellite backhaul, a mesh kit, a drone and weather and air-quality nodes for an incident base. For emergency management agencies, event organisers, utilities. Data products: incident-base connectivity and situational observations. Drawn against 3GPP LTE/NR, OASIS CAP 1.2 and National incident-management systems.

    Standards
    3GPP LTE/NR · OASIS CAP 1.2 · National incident-management systems
  8. Use case

    Highway corridor coverage and safety sensing

    Small cells with satellite backhaul along an unserved highway, with road-weather and camera nodes. For provinces and states, carriers. Data products: coverage maps and road-condition observations. Drawn against 3GPP LTE/NR and NTCIP 1204. Every reading and every change leaves a record that can be checked later.

    Standards
    3GPP LTE/NR · NTCIP 1204
  9. Trust

    Every node proves what it is

    A node joins only after its hardware root of trust answers an attestation challenge. Keys stay in secure hardware, software arrives signed, and every reading carries a signature, so its origin can be checked by anyone downstream without asking us.

  10. Time and place

    Every reading carries when and where

    Readings are stamped against a disciplined clock, from satellite time or a PTP grandmaster, together with the station position and its siting record. When time or position is degraded, the record says so instead of hiding it, and every analyst downstream sees the same warning.

  11. How it scales

    One base unit, repeated

    A programme starts with one base node and the instruments it reads. A station adds power and radio, a site adds a relay, a fleet repeats the proven site across many places, and a network federates fleets through edge and core. Capacity grows by adding units, never by replacing what works.

  12. What you get

    AI-RAN and multi-access edge deployment

    RAN and AI workloads on shared accelerated compute at the cell site or edge, integrated with O-RAN interfaces. Delivered as professional services and managed service, for carriers, neutral hosts, large enterprises. Scale: Carrier-scale rollouts. Service levels are written as numbers you can measure on your own dashboard.

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  13. Next step

    Plan a telecom deployment

    Tell us the sites, the measurements and the people who will use them. We reply with a design and a scope for telecom. An engineer replies with a survey proposal and a scope, and the plan grows from one site to the network you need, at your pace.

    Plan a deploymentOpen the StudioRead the stories

01Specialized fields

Each field has its own setup.

The measurements, radio, power and crew work differ from one field to the next. Open a field for its full stack, from order to operation.

Specialized field

Mobile network sites

Power and batteries, shelter climate, tower movement, intrusion and site weather at every mobile site, with an out-of-band path that reports when the site itself is down.The full field →
Specialized field

Fibre networks and outside plant

Distributed fibre sensing along routes, flooding and gas in chambers, and cabinet access and climate, on LoRaWAN and the fibre itself, so dig-ins and faults are found before the cable is cut.The full field →
Specialized field

Edge data centres

Power and energy, cooling and air, leaks and vibration in edge and regional data centres, on an industrial network behind a security gateway, with efficiency indicators to the standard.The full field →
Specialized field

Satellite ground stations

Rain, wind and lightning at the antennas, antenna drive condition, timing and site security at satellite ground stations, on the site’s fibre, so passes are planned around the weather and faults are caught between passes.The full field →
Specialized field

Spectrum monitoring and interference

Fixed and mobile receivers that measure occupancy, find interference and locate its source by direction finding and time difference, with GNSS timing, so regulators and operators clear the bands they depend on.The full field →

02Use-case library

Worked use cases, kit to data product.

Each names who deploys it, the kit by device class, the data products it publishes and the standards it is drawn against. Open one for its full page.

Use case · medium to high complexity

Community cellular and sensing

Small cells with an open core, satellite backhaul and solar power, plus a sensing overlay, for a community that owns its network.
Who
Indigenous organisations and Indigenous-owned service providers, remote communities.
Data
Coverage and service maps in the regulator’s format; Speed-test and uptime evidence; Community sensing overlay (weather, water, air)
3GPP LTE/NR ISED Access Licensing Framework (SAB-002-26) Local data-governance principles (OCAP) where applicable The full use case →
Use case · medium complexity

Remote microgrid observatory

Solar, storage and power-quality telemetry with a weather station and a small cell, for a community that is reducing diesel.
Who
Remote communities, utilities, Indigenous power producers.
Data
Diesel offset and power-quality records; Solar-resource measurements
IEEE 1547 IEEE 2030.5 National electrical codes The full use case →
Use case · high complexity

Utility grid-edge private LTE and wildfire weather

Private LTE on substations and poles for distribution automation, with weather nodes that inform public-safety power shutoff decisions.
Who
Electric utilities.
Data
Fault location, isolation and service restoration telemetry; Distributed-energy control and islanding events; Wildfire-risk weather observations
3GPP Band 106 IEC 61850 IEEE 1547 / 2030.5 NERC CIP The full use case →
Use case · high complexity

Mine site private 5G and environmental monitoring

A standalone 5G core, radios across the pit and edge compute for autonomy, with dust, vibration, slope and weather sensing for environmental records.
Who
Mining companies and their contractors.
Data
Autonomy and safety communications records; Environmental monitoring records (dust, blast vibration, slope, tailings)
3GPP Rel-16/17 URLLC ISO 17757 (autonomous mining machinery safety) GISTM (tailings) ISA/IEC 62443 The full use case →
Use case · medium to high complexity

Methane fenceline observatory

Point sensors on the fenceline with optical gas imaging and quantification, feeding leak-detection reports.
Who
Oil and gas operators.
Data
Leak-detection survey records; Site-level emission estimates with uncertainty
Regulation (EU) 2024/1787 OGMP 2.0 reporting levels The full use case →
Use case · medium complexity

Deployable incident observatory

A trailer or vehicle with a cell on wheels, satellite backhaul, a mesh kit, a drone and weather and air-quality nodes for an incident base.
Who
Emergency management agencies, event organisers, utilities.
Data
Incident-base connectivity and situational observations
3GPP LTE/NR OASIS CAP 1.2 National incident-management systems The full use case →
Use case · high complexity

Highway corridor coverage and safety sensing

Small cells with satellite backhaul along an unserved highway, with road-weather and camera nodes.
Who
Provinces and states, carriers.
Data
Coverage maps and road-condition observations
3GPP LTE/NR NTCIP 1204 The full use case →
Use case · very high complexity

Northern civil observatory

Weather, geodetic and space-weather instruments with communications and power at a remote northern site, built for civil use that infrastructure programmes may share.
Who
Natural-resource and environment departments, northern communities.
Data
Weather and space-weather observations; Search-and-rescue support data
WMO-No. 8 IGS RINEX INTERMAGNET The full use case →

03Communities and rural

Communities and rural: deployment scenarios.

Community networks, Indigenous and remote connectivity, interim public-safety broadband and remote microgrids.

Communities and rural

Indigenous-owned community cellular

Unused 800 MHz and 1900 MHz spectrum through an access-licensing framework with a priority window for Indigenous applicants.The full use case →
Communities and rural

Last-mile fixed wireless with community anchor sensing

Sub-grantee partnerships where observatory nodes co-host at schools, clinics and fire halls.The full use case →
Communities and rural

Rural and cross-border 5G corridors and smart communities

Co-funded cross-border sections under European digital infrastructure calls.The full use case →
Communities and rural

Remote microgrid, sensing and connectivity bundle

Solar-plus-storage telemetry with a weather station and a small cell in a diesel-reduction project.The full use case →
Communities and rural

Interim public-safety broadband where no national network exists

Private LTE or 5G for fire and medical services in territories without a national public-safety network.The full use case →

04Industrial

Industrial: deployment scenarios.

Mining, oil and gas, ports, utilities, rail, construction and manufacturing: private networks and compliance-grade sensing.

Industrial

Mine-wide private LTE or 5G with environmental sensing

Autonomy communications plus dust, blast vibration, slope and tailings monitoring.The full use case →
Industrial

Utility private LTE for the grid edge

Distribution automation, distributed-energy control and wildfire-risk weather on a dedicated band.The full use case →
Industrial

Continuous methane monitoring

Fenceline sensors and optical gas imaging under regulatory leak-detection cadences.The full use case →

05Across the industry

Across the classification.

Use cases mapped to the UN ISIC Rev. 4 sections this site covers.

  • AI-RAN on shared accelerated compute
  • Neutral-host and rural coverage
  • Ground segment hosting for satellite operators

06Proof

What buyers ask to see.

  • Coverage maps in the regulator’s format, speed-test evidence, uptime, local ownership and benefit agreements, Indigenous data-governance alignment, licence status.
  • Latency and jitter test reports, redundancy design, equipment-maker interoperability, spectrum licence, industrial cybersecurity (ISA/IEC 62443), hazardous-area equipment ratings, uptime service levels, reference sites.
  • Drive-test results, KPI baselines, qualification against interface specifications

Ready when you are.

Plan a deployment, configure a station or talk to sales. Every request reaches the team that answers it.

Plan a deploymentStation BuilderTalk to sales

Bring us the site.

Survey, design, deployment and operation for telecom. The form names who receives your details.

Talk to usPlan a deployment

Telecom: where it is deployed.

Reference design, drawn to scale · drag to turn