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A satellite terminal is a product. Getting a country back online is a rehearsed plan.

Starlink can put bandwidth on the ground fast, and ICEYE can put flood extent on a map within hours. Neither is a standing national restoration contract with pre-staged hardware and drilled local teams, which is what the satellite programme partner we represent sells.

In service, not experimental

This capability has been exercised under real disaster conditions, on the model proven after the 2022 Tonga eruption severed the country's subsea cable. The hardware is held ready and the deployment is rehearsed with national teams before anything goes wrong.

Side by side

AttributeRepresented by UnstratRapid capability restorationSpaceXStarlink (Performance and Enterprise kits, business service plans)123United StatesICEYEFlood Rapid Impact4Finland
What is restored or delivered34National space-enabled capability: connectivity and earth-observation servicesBroadband connectivity from a phased-array terminal, sold as hardware plus a monthly service planFlood extent data derived from a synthetic aperture radar constellation, delivered through the ICEYE Solutions Event Intelligence Hub
Time to first service14Days, via pre-staged hardwareNot published as a disaster-response figure; hardware must be ordered, shipped and installed, and the Performance kit is described as coming ready for permanent installationFloodwater extent within approximately 6 to 12 hours of the first signs of an event, updated every 6 to 12 hours for the duration
Hardware held in country before the event34Pre-staged hardware held ready for rapid deploymentNot published; kits are purchased per siteNot applicable, the constellation is on orbit and tasked by ICEYE
Who performs the deployment14National teams, drilled in advance through rehearsed deployment exercisesCustomer self-installation, with software-assisted manual orienting of the dishICEYE, including an in-house meteorology team monitoring conditions 24/7/365 and tasking satellites accordingly
Environmental tolerance of the field hardware12Not publishedPerformance dish 5.2 kg, IP69K with cables installed, minus 40 to 60 degrees C, survivable wind 280 kph or more, 75 to 100 W average; Enterprise dish IP67, minus 30 to 50 degrees C, operational wind 96 kph or moreNot applicable, no customer field hardware
Performance figures published134Not publishedPerformance kit currently capable of download speeds up to 400 Mbps or more; typical user speeds of 25 to 220 Mbps down and 5 to 20 Mbps up, latency 25 to 50 ms in most regions on landRadar imaging day or night and through cloud, with machine learning used to quantify flood extent
Commercial structure34A standing resilience contract, not a per-incident purchaseHardware purchase plus monthly plans; US pricing published at 250 USD per month for 1 TB priority, 500 USD for 2 TB, 1,500 USD for 6 TB, with recommended hardware at 599 USD or 2,500 USDNot published
Dependence on external authorisation34Both competitor documents describe services the vendor controls. Neither transfers control of the capability to the national authority.Independent, non-aligned originMobile priority use on the ocean or in motion depends on country authorisation, and pricing and plans vary by market; service continuity rests with a single US operatorTasking priority and satellite scheduling sit with the vendor's own meteorology team
Precedent cited by the supplier43The 2022 Tonga eruption and subsea cable severanceNot published in the specification documentsProduct launched July 2025; specific national deployments not named in the release

Competitor values are quoted from the vendor documents listed under Sources, as published on the date shown. Configurations vary, so treat every row as a starting point for the evaluation rather than a like-for-like test result.

What the table means

Bandwidth is the easy part

Starlink's published figures are strong: a 5.2 kg dish rated IP69K from minus 40 to 60 degrees C, hundreds of megabits, latency of 25 to 50 ms on land. If the whole requirement is internet at a command post, buy the terminals. The gap opens when the requirement is a country: which sites come up first, who carries the kit there, who has practised the sequence, and what happens to earth observation, which no broadband terminal restores.

Rehearsal is the difference between days and months

Disaster response fails on logistics, not technology. Hardware bought after the event has to clear customs at an airport that may be shut, be configured by people who have never seen it, and be sited by teams improvising under pressure. Pre-staged equipment and drilled national crews turn that into a checklist. This is why our capability is sold as a standing contract rather than an emergency order.

Who holds the switch

Starlink's own service-plan document states that mobile priority use on the ocean or in motion depends on country authorisation, and that pricing varies by market. ICEYE tasks its own constellation through its own meteorology team. Both are legitimate commercial models. Both leave a national authority dependent on a foreign company's decisions at the worst possible moment. A restoration contract with a non-aligned supplier and hardware already on your soil changes who is waiting for whom.

Questions buyers ask

What is the best alternative to Starlink for a government that needs guaranteed connectivity after a disaster?

For raw bandwidth at a site, Starlink is hard to beat on published performance and price transparency, and its Performance kit is rated for extreme weather. What it does not sell is a national restoration plan: pre-staged hardware, a rehearsed deployment sequence, trained local crews and earth-observation services alongside connectivity. Our principal sells that as a standing contract. Several countries will sensibly want both, commercial broadband for everyday resilience and a contracted restoration capability for the day the cable is cut.

How quickly can national connectivity realistically be restored after a subsea cable break?

Our published answer is days, on the model proven after the 2022 Tonga eruption, and the reason it is days rather than months is that the hardware is already staged and the deployment has been drilled. For comparison on the data side, ICEYE publishes flood extent within roughly 6 to 12 hours of the first signs of an event, because its satellites are already on orbit and tasked automatically. The pattern is the same in both cases: speed comes from what was arranged before the event, not from what is ordered after it.

How does a rapid capability restoration contract compare with just buying satellite terminals?

Terminals are cheaper and you can buy them today. Starlink publishes US plan pricing from 250 to 1,500 USD per month with hardware at 599 or 2,500 USD, so the arithmetic is easy. A restoration contract buys the things the terminal does not: hardware pre-positioned in country, an agreed priority list of sites, exercises with your own teams, and earth-observation services restored alongside connectivity. If your risk is a single office losing broadband, buy terminals. If your risk is the state losing its picture and its comms at once, the contract is the cheaper failure mode.

Does using a commercial satellite service create political dependency for a state?

It can, and the vendor documents say so themselves. Starlink's service-plan sheet states that mobile priority use on the ocean or in motion depends on country authorisation, and that plans and pricing vary by market. That is a normal commercial condition, and it is also a lever. A non-aligned supplier with hardware already on your territory and your own operators trained to deploy it removes the lever without pretending commercial services have no role.

Sources

  1. 4. ICEYE, ICEYE unveils machine learning-powered Flood Rapid Impact Product to revolutionize response (press release, 14 July 2025)Retrieved: 2026-07-31
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