A deployable modular data center restores compute where the infrastructure that used to provide it is damaged, overloaded or gone, without waiting for a building to be repaired.
Incident command, shelter registration and damage assessment all need somewhere to run, at exactly the moment the local facility, the grid and the fibre are unavailable.
Compute and comms for the command element at the staging area.
Systems for intake, case management and family reunification.
Processing aerial and drone imagery on site, within the response window.
Capacity supporting crews rebuilding the grid or the network.
After an event there is rarely a serviceable facility and rarely a utility feed to rely on. A deployable modular data center arrives as its own facility and is sited where the response is being coordinated.
Lengths shown are indicative. The configuration for any site is set during the survey, against the actual load, the power available and the conditions on site.
Response operations generate and consume data at exactly the moment local infrastructure is least able to carry it. A deployable modular data center puts coordination, mapping and communications workloads on the ground with the responders, so the operation does not depend on a link back to a region that may itself be affected.
The five lengths cover a wide range of disaster response deployments without changing the underlying design: 7 ft with a single rack at a nominal 125 kW, 12 ft with two racks at 250 kW, 20 ft with five racks at 625 kW, 40 ft with ten racks at 1.25 MW, and 52 ft with fourteen racks at 1.75 MW. Every length shares the same cooling, power and security design, so an engineering review completed for one unit holds for the next.
Siting is a question of power and ground rather than construction. A conventional build runs two to five years from permit to energised; a SovereignOne unit runs four to six months from survey to live load. For disaster response, that is the difference between capacity arriving inside the planning cycle and arriving after it.
Cooling is where most of the saving sits. The design reduces power and water used for cooling by 30% against a conventional air-cooled hall. On constrained sites, available utility capacity rather than floor space is usually what limits a disaster response deployment, so that reduction often decides whether a site can host the load at all.
Operationally the unit behaves like any other facility on the site. It presents standard power and network interfaces, it is monitored the same way, and spares follow the original vendors’ support channels rather than a bespoke supply chain. Nothing inside the enclosure is unique to SovereignOne, which keeps sustainment of a deployable modular data center ordinary.
The same enclosure supports incident command and coordination systems, mapping and damage assessment, communications interoperability, logistics and resource tracking, and the continuity workloads an agency runs when its primary site is unavailable.
Capacity is added the same way it was installed. A second unit is specified against the same design, set beside the first and joined into one continuous white space, so growth stays a procurement decision rather than a new construction project, and the site keeps a single operating model as it scales.
Each unit is integrated from established platforms — CDW, Vertiv, Penguin Solutions, Motivair, Dell, Supermicro, Connected Power, NVIDIA — rather than bespoke hardware. SovereignOne is a Liberation Technology Services company, and Liberation Technology Services Inc. is a WEXMAC prime contract holder.
A hurricane does the same two things everywhere it lands: it damages the places compute lives, and it takes the links to those places with it. A deployable modular data center answers both, and what it does on the ground differs depending on who is running the site.
A company comes back to a facility where the IT space has taken water, lost power, or lost connectivity — often all three. Rather than waiting for the building to be repaired, or for a link to a recovery region that may itself be degraded, a unit is delivered to the site carrying a copy of the data. It stands up as an on-site disaster recovery module, so the business restarts where its people already are, on its own premises, while the permanent facility is dealt with on a separate timeline.
For a public agency the same enclosure is sited at the emergency operations center. It puts compute next to the people directing the response, so damage assessments, resource requests and incident data can be sorted and acted on locally instead of queued behind a connection that is carrying everything else. That matters most during the storm and through the weeks of recovery that follow, which is exactly when wide-area links are least dependable.
In both cases the unit is the same product and the same five lengths. What changes is where it is set down and whose data it carries.
It is deployed to the damaged site as an on-site disaster recovery module, bringing a copy of the data back to the building so operations can restart without waiting for the facility to be rebuilt.
A unit deployed at an emergency operations centre puts local compute where the response is being run, so sorting and processing continue through the storm and into the recovery.
Yes. Processing is local, so the unit does not depend on links that are often the first thing to go down and the last to come back.
Within hours — but only where the unit has been prepositioned, which means it was contracted before the event rather than after it. Response capacity is arranged in advance and held ready; a unit cannot be procured once the storm has already made landfall. If continuity matters to you, the decision has to be made while nothing is happening.
Send the site, the load and the timeline. We will come back with a length, a power plan and a delivery window.