Lincoln 01522 740818 Hull 01482 520818
Shop certified radios

Wireless Communications Blog

Remote Site Communications: Radio, Satellite Backhaul and Mesh Networks Where There Is No Infrastructure

Radio, satellite backhaul, and mesh networking can create a resilient communications system anywhere on Earth — without a single piece of fixed infrastructure.

  • Starlink — Satellite backhaul
  • Mesh — Self-healing network
  • Global — Coverage anywhere

The infrastructure problem

Permanent communications infrastructure exists where it is commercially viable to build it. Remote construction sites, mining operations, offshore platforms, disaster response zones, and temporary event venues frequently fall outside that footprint. The question is not whether communications are needed — they always are — but how to build a reliable system without relying on infrastructure that doesn’t exist.

The answer lies in combining three complementary technologies: local radio networks, satellite backhaul, and mesh networking — each compensating for the weaknesses of the others.

Layer 1: Local radio coverage

Within a site boundary, DMR or analogue radio provides robust short-range coverage. A single portable or vehicle-mounted repeater, powered from a generator or solar/battery array, can cover several kilometres with reliable push-to-talk voice and data — requiring no external connectivity whatsoever.

For larger sites, multiple repeaters linked by 5.8 GHz microwave links can extend coverage across wide areas — common on large mining or civil engineering projects spanning several square kilometres.

Layer 2: Satellite backhaul

Low Earth Orbit satellite systems, particularly Starlink, have transformed the economics of remote connectivity. A Starlink flat-panel terminal delivers 50–200 Mbps throughput with 20–40ms latency — low enough for real-time voice and radio-over-IP without perceptible delay.

The repeater’s IP backhaul port connects directly to the satellite terminal’s LAN output. The remote site radio network appears as a node on the wider IP network, and RoIP protocols carry voice between sites transparently. A field engineer presses PTT and speaks directly to a supervisor at HQ — via LEO satellite — in under a second.

Cost context: A Starlink Business terminal costs a fraction of what a conventional VSAT link cost five years ago. For temporary or semi-permanent deployments, this is now genuinely cost-effective rather than an expensive last resort.

Layer 3: Mesh radio networks

For scenarios where even a repeater with satellite backhaul is impractical — disaster response, fast-moving operations, or sites where the layout changes daily — mesh radio networks offer a self-configuring alternative. Each node simultaneously acts as a user terminal and a relay point. If one node fails, the network automatically re-routes traffic through surviving nodes. No single point of failure, no fixed infrastructure.

Remote site communications stack

1
Field radios
DMR handhelds and vehicle-mounted units on site
2
Site repeater
Solar/battery-powered DMR repeater with IP gateway
3
Microwave links
5.8 GHz point-to-point links between repeater nodes
4
Satellite terminal
Starlink or BGAN providing WAN uplink
5
Remote dispatch
Control room or HQ connected via RoIP over satellite

Power considerations

Remote communications infrastructure is only as reliable as its power supply. A well-designed system pairs each node with a solar panel array and LiFePO4 battery bank sized for expected solar irradiance at that latitude, maintaining continuous 24/7 operation through multiple consecutive overcast days. Generator backup provides additional resilience for extended deployments.

??

Mining

Open-cast and underground mines connected to surface control rooms via mesh and satellite.

?

Offshore & marine

Vessel-to-shore radio networking over satellite with seamless roaming into port.

?

Civil engineering

Motorway and rail projects covered by relocatable solar-powered repeaters.

?

Disaster response

Rapidly deployable mesh communications for emergency services in damaged infrastructure zones.

Need communications where there’s no infrastructure?

Yesway designs and deploys remote communications systems combining radio, satellite, and mesh technology. We’ll assess your site and engineer a solution that works.

Talk to Yesway →

Author

  • craig miles

    TEDx Conversation

    Wireless communications engineer, technical educator and founder with 30 years of experience spanning aerospace, LEO satellite systems and RF engineering.

    Former ILS engineer at Airbus Defence and Space on NATO satellite and classified UK defence radio programmes.

    Founder of Yesway Communications — a Lincoln-based wireless communications specialist established in 2010, and ReachED, a new charitable initiative using LEO direct-to-device satellite connectivity to deliver education to the 273 million children globally without school access.

    TEDx Brayford Pool 2023 speaker. BSc · PGCE · QTS · Level 4 DSA Specialist Mentor · Ofcom Licensed · DBS Checked.