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Rapid capability restoration, Space (Space Domain), Unstrat

Rapid capability restoration

Sovereign connectivity restored in days

Overview

Rapid restoration of national space-enabled capability after disaster or disruption: pre-staged hardware and rehearsed deployment that put connectivity and earth-observation services back up in days, on the model proven after the 2022 Tonga eruption severed the country's subsea cable. Resilience as a standing contract, not an improvisation.

When the cable is cut or the ground segment is gone, capability comes back in days: pre-staged hardware and rehearsed deployment on the model proven after Tonga 2022.

Unstrat represents this capability to a market only once classification and the end-user-certificate chain are confirmed. Full specifications are shared under briefing.

Capabilities

  • Pre-staged hardware held ready for rapid deployment
  • Restores connectivity and earth-observation services in days
  • Rehearsed deployment drills with national teams
  • Structured as a standing resilience contract
  • Turns disaster recovery from improvisation into a rehearsed capability: connectivity and observation services restored in days, not months

Specifications

TypeRapid capability restoration
ResponseDays, via pre-staged hardware
PrecedentAvailable under controlled technical briefing
OriginIndependent / non-aligned

In depth

Prepare before the cable fails

Rapid capability restoration addresses the interval after disaster or disruption, when connectivity or Earth-observation services are unavailable and the response cannot begin with a fresh procurement. The model uses pre-staged hardware, a rehearsed deployment plan and national teams prepared to execute it. Its stated objective is to restore connectivity and Earth-observation services in days rather than months. The arrangement is described as a standing resilience contract, so hardware, roles and procedures exist before the incident. The catalogue gives one precedent for the model: the 2022 Tonga eruption severed the country's subsea cable and cut it off from the world. The record presents the response model as proven after that cable severance. It does not add a restoration time, customer name or independent case-study measurement. The supported lesson is narrower. Preparation changes recovery from an improvised procurement exercise into an execution problem with equipment and a plan already held ready.

Deployable satellite ground terminal being set up at a disaster-affected site.
Deployable satellite ground terminal being set up at a disaster-affected site.

Rehearse the deployment

A restoration capability has to cover more than the terminal or spacecraft service. Hardware must be available, roles must be assigned, procedures must be exercised and the national team must know how the deployment is meant to proceed under pressure. The catalogue explicitly lists rehearsed deployment drills with national teams. It also places the capability alongside ground stations, communication satellites and infrastructure-independent HF emergency communications. Those related capabilities describe possible parts of a broader resilience architecture, not automatic inclusions in every restoration arrangement. Ground stations support tasking, telemetry and data reception. Communication satellites provide satellite connectivity. HF emergency communications provide networks that need no towers, satellites or subscriptions. The restoration requirement should determine which elements are needed and how they are integrated.

Restore service without creating a new dependency

The restoration model is supplied by a firm whose catalogue also states that it has built and launched satellites and ground stations. It is paired with the wider sovereign space capability it protects, rather than described as a permanent substitute for national capacity. The intended result is a rehearsed way to restore connectivity and observation services when a terrestrial link is cut or a space-enabled service is disrupted. The reason to keep this as a standing arrangement is that undersea cables and terrestrial backbones can be vulnerable to accident and attack. The existing exposition describes the gap between disruption and restoration as the period in which damage accumulates. Pre-positioned hardware, assigned roles and exercised procedures address that gap without claiming that a particular disaster will follow a fixed pattern. The Tonga example establishes the model's precedent. It does not establish a universal equipment list or response schedule. The preparation is therefore specific to the services that must return: connectivity and Earth observation are named, while the hardware, sites and national roles have to be defined before the arrangement is operational. A rehearsal is meaningful here because the plan covers both the equipment and the people who must put it into service, rather than treating hardware held in reserve as a complete recovery capability. It also keeps the restoration offer distinct from a general continuity claim: the source names the services, the pre-staged hardware and the drills, but not every service a future crisis might require. The product's type is rapid capability restoration, with response described as days through pre-staged hardware, not as an unqualified promise about every outage. Procurement should define the services to be restored, the hardware to be pre-positioned, the deployment locations, the national personnel involved, the rehearsal schedule and the export-control position. The available record establishes a standing contract, pre-staged hardware, drills with national teams and restoration in days. It does not publish a universal response time beyond that statement, a list of stored equipment or a new deployment claim. Those details require a controlled briefing.

Response team rehearsing a rapid connectivity-restoration deployment in the field.
Response team rehearsing a rapid connectivity-restoration deployment in the field.

Why Unstrat: the difference

Unstrat is the authorised global representative and distributor for this capability. It is already in service with a track record behind it, so you are buying something that has done the job elsewhere, not funding a first attempt. You are not the test bed.

01

Independent, non-aligned origin, with no political exposure to any major-power ecosystem.

02

One accountable team from first briefing through delivery and in-region sustainment.

03

Proven under real disaster conditions: connectivity restored after the 2022 Tonga eruption severed the subsea cable.

How it reaches you

Independent maker
Non-aligned manufacturer
Unstrat
Single accountable channel
End user
Government or enterprise buyer
In-region sustainment · training · classification & end-use governance

Related capability

View all

Procurement & sustainment

Classification & EUC

Classification and the end-user-certificate chain are confirmed before this capability is represented to your market.

Non-aligned origin

Sourced from an independent manufacturer: no major-power disclosure rules or political conditions.

One accountable channel

A single team responsible from first briefing through delivery: not a chain of foreign primes to integrate yourself.

In-region sustainment

Lifecycle support and operator training delivered in-region, building capability that outlasts the initial deployment.

Questions buyers ask

How do you restore national connectivity after a subsea cable is cut?

Speed comes from what was arranged before the event, not from what is ordered after it. Our answer is days, on the model proven after the 2022 Tonga eruption severed that country's subsea cable, and it is days because the hardware is already staged in country and the deployment has been drilled with national teams. Equipment bought after the event has to clear customs at an airport that may be shut and be configured by people who have never seen it.

See: What rapid capability restoration coversSide-by-side with Starlink and ICEYE

Starlink alternatives for government disaster response

For raw bandwidth at a site, Starlink is hard to beat on published performance and price transparency, with typical user speeds of 25 to 220 Mbps and a dish rated IP69K from minus 40 to 60 degrees C. What it does not sell is a national restoration plan: pre-staged hardware, an agreed priority list of sites, rehearsed deployment by your own crews, and earth observation restored alongside connectivity. The Satellite Programme Partner sells that as a standing contract. Plenty of states will sensibly want both.

See: Terminal purchase against a restoration contract

What is a disaster resilience contract for satellite services?

It is a standing arrangement rather than an emergency purchase order: hardware held ready before anything goes wrong, a rehearsed deployment sequence, drills run with national teams, and a defined service to bring back. The alternative is improvisation under pressure, which is where disaster response usually fails. Our version restores connectivity and earth-observation services in days and is structured as a contract you hold, not a service you queue for.

See: Resilience as a standing contract

How fast can satellite connectivity be restored after a natural disaster?

Our published answer is days, via pre-staged hardware and rehearsed deployment. For comparison on the data side, ICEYE publishes flood extent within roughly 6 to 12 hours of the first signs of an event, updated every 6 to 12 hours, because its satellites are on orbit and tasked automatically. Starlink publishes no disaster-response timing at all, because kits must be ordered, shipped and installed. The pattern holds across all three: what was arranged in advance sets the clock.

See: Time to first service compared

Pre-staged satellite equipment for island states and remote regions

Islands and remote provinces carry the sharpest version of this risk, because a single cable or a single road can carry the whole capability. Pre-staging puts the hardware inside the affected territory before the event, so restoration is a checklist rather than a logistics exercise across a closed airport. We do not publish the exact contents of a stage on the site, so ask for the equipment list and the number of sites one stage covers when you scope the contract.

See: Pre-staged hardware and drilled teamsWhat we publish and what we do not

Who actually deploys the equipment during a national emergency?

In our model, your own national teams do, because they have rehearsed the sequence in advance. Starlink assumes customer self-installation with software-assisted dish orientation, which works well for one site and less well for a country. ICEYE deploys nothing, tasking its own constellation through an in-house meteorology team monitoring conditions around the clock. Decide early whether you want a service someone else operates or a capability your people can run.

See: Who performs the deployment

Does restoration cover earth observation as well as communications?

Ours does: connectivity and earth-observation services are both in scope, which matters because no broadband terminal restores a picture of the flooded districts. A commercial flood product such as ICEYE's can deliver extent data quickly, and it remains a service tasked by the vendor. Pair the two deliberately if you need both a picture and a link during the first week.

See: What is restoredHazard monitoring alongside restoration

How often are the restoration drills run?

The site does not publish a drill frequency, and we list that openly as a gap rather than quoting a number we have not committed to. What is published is that deployment is rehearsed with national teams as part of a standing contract, not improvised at the time. Make the drill cadence, the participants and the pass criteria contractual terms when you negotiate.

See: Rehearsed deployment in the brief

Can national teams be trained to deploy the equipment themselves?

That is the model rather than an option: deployment is rehearsed with national teams so the people who put the kit up have done it before, in daylight, without an emergency running. It also keeps the capability inside the country when travel is impossible and foreign engineers cannot get in. Training sits alongside the wider space programme work, where operator development is delivered with the deployment rather than after it.

See: Rehearsed deployment with national teamsTraining for national space operators

Should a government buy satellite terminals or a restoration contract, and how do we justify the difference to a finance ministry?

Terminals are cheaper and you can order them today, with Starlink publishing US plan pricing from 250 to 1,500 USD per month and hardware at 599 or 2,500 USD, so the arithmetic is easy to present. A restoration contract buys what the terminal does not: hardware already in country, an agreed site priority list, exercises with your own teams, and earth-observation services restored alongside connectivity. If the risk is one office losing broadband, buy terminals. If the risk is the state losing its picture and its communications at the same hour, the contract is the cheaper failure.

See: Commercial structure compared

Does relying on a commercial satellite operator create political dependency for a state?

It can, and the vendor's own documents say so. 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 also a lever. A non-aligned supplier, hardware already on your territory and your own operators trained to deploy it removes the lever, without pretending commercial broadband has no role in everyday resilience.

See: Dependence on external authorisationOwning the ground segment rather than buying data

Has this restoration model actually been used after a real disaster, or is it a proposal?

It has been exercised under real disaster conditions, on the model proven after the 2022 Tonga eruption severed the country's subsea cable. That precedent is the reason the offer is framed as pre-staged hardware plus rehearsed deployment rather than a rapid-response promise. Ask any supplier for the event, the date and what specifically came back up, and be sceptical of anyone whose evidence is a diagram.

See: The precedent behind the claimPrecedent cited by each supplier

How does a restoration contract fit alongside a national space programme we are already building?

It is the insurance policy on the rest of the investment, and it works best when the ground segment and the mission software are already yours. Satellite operations run from your facilities by your operators, on software decoupled from any single spacecraft vendor, mean a restored link plugs into a system you control rather than a service you rent. Ground stations on your soil put the downlink inside your jurisdiction. Buy the restoration contract as part of that architecture, not as a bolt-on afterwards.

See: Mission-control software under national controlThe wider sovereign space programme

What throughput and coverage does the restored capability actually deliver?

We do not publish throughput, latency or environmental ratings for the deployable hardware, and we list those as gaps rather than implying figures. Starlink does publish them, from 25 to 220 Mbps typical user speeds to 75 to 100 W average power draw, and any buyer will reasonably compare. Ask us for the numbers against your priority sites and put them in the contract as service levels. The argument for the contract is who controls the capability and how fast it appears, not a better datasheet.

See: Published performance, side by side

Which agency should own a restoration contract, the disaster management authority or the communications ministry?

Whichever one can convene both, because the failure mode is institutional as often as technical. The contract needs a site priority list agreed across ministries in advance, national teams released for drills, and customs and spectrum arrangements pre-cleared so nothing waits on a signature during the emergency. We deal with a single accountable counterpart through one team, and the internal question of who holds it is worth settling before the tender rather than during the crisis.

See: How a national engagement is structuredThe restoration brief

Rapid capability restoration: questions

What is Rapid capability restoration?

Rapid capability restoration is Unstrat's Space (Space Domain) capability: Rapid restoration of national space-enabled capability after disaster or disruption: pre-staged hardware and rehearsed deployment that put connectivity and earth-observation services back up in days, on the model proven after the 2022 Tonga eruption severed the country's subsea cable. Resilience as a standing contract, not an improvisation.

How does Rapid capability restoration work?

Rapid capability restoration delivers its effect through Pre-staged hardware held ready for rapid deployment, Restores connectivity and earth-observation services in days and Rehearsed deployment drills with national teams, capabilities matched to the requirement and confirmed under briefing rather than published.

Who provides Rapid capability restoration?

Rapid capability restoration is delivered by The Satellite Programme Partner, whose focus is satellites & sovereign space programmes. Unstrat represents The Satellite Programme Partner to government and enterprise buyers worldwide as an independent, non-aligned prime vendor.

Why choose Rapid capability restoration over a major-power alternative?

Rapid capability restoration is sourced from an independent, non-aligned provider, so it carries no major-power disclosure rules, upgrade-locks or political ramifications. Concretely: proven under real disaster conditions: connectivity restored after the 2022 Tonga eruption severed the subsea cable. The capability is accountable to you, not to a foreign vendor's government and its release schedule.

How is Rapid capability restoration procured, and where can it be delivered?

When the cable is cut or the ground segment is gone, capability comes back in days: pre-staged hardware and rehearsed deployment on the model proven after Tonga 2022. Every engagement begins with a briefing, and export eligibility is confirmed per market under briefing rather than published. Where controlled capabilities are involved, the classification and end-user-certificate chain is confirmed first. Rapid capability restoration is then sustained in-region by one accountable team from briefing through long-term operation.

Contact us

Tell us the requirement. Specifications and the export position are confirmed in briefing, not published here.