Maritime autonomy infrastructure
Pelagio Defense combines real ocean data, device telemetry, hardware interfaces, and autonomy software into one operating layer for autonomous maritime systems.
For teams building ocean robotics, uncrewed surface and subsurface systems, and distributed maritime sensing.
Software is live today. Physical Pelagio Defense hardware is pre-hardware: zero devices deployed. Simulation lives in a separate, labeled workspace.
What the software does today
Public provider integrations with source, timestamp, unit, and quality preserved on every value.
Data sources →Authenticated ingestion, history, and alerts for future physical nodes, running in production now.
Device registry →Versioned software contracts for real sensors, power, position, and device health.
Hardware package →A separate, deterministic environment for validating software behavior, never mixed with real data.
Simulation workspace →Why this is not another ocean dashboard
A dashboard shows conditions. An autonomous maritime system also needs its own position, power, sensor health, and history, read through the same contract as the environment around it.
Pelagio Defense puts those layers into one infrastructure layer, so the same data model serves a public buoy today and a Pelagio Defense node tomorrow, at any location with provider coverage.
Why now
Four public trends make maritime autonomy infrastructure a near-term problem rather than a research question. Every factual claim links to its source.
The U.S. Department of Defense's Replicator initiative set out to field comparatively low-cost, attritable autonomous systems at scale, and 2025 policy moved to remove barriers to buying and training with small drones.[1][2][3]
Public estimates put some one-way attack drones at tens of thousands of dollars, while shipboard interceptors are budgeted in the millions. DoD's 2024 counter-drone strategy names reducing that cost imbalance as an objective.[4][5][6]
NOAA, NASA, and GEBCO publish observations, model output, and global bathymetry openly, much of it on commercial cloud platforms. The raw material for maritime software is public.[10][11][12]
Navy plans call for spreading sensors across more, often uncrewed, platforms. Distributed hardware is only useful when operators can see its environment, health, and history. Pelagio Defense is building that layer first.[9]
Long-term system / hardware
The long-term system pairs the software layer with Pelagio Defense hardware: an energy-aware, locally autonomous surface and subsurface node that reports through the same data model as public ocean sources.
Nothing here is built yet. The model at right communicates system architecture; it is not deployed or validated hardware.
Cost-exchange economics
Public sources describe a growing cost imbalance between low-cost unmanned systems and the long-range responses used against them.[4] Pelagio Defense's thesis is that distributed, pre-positioned maritime infrastructure could change that math. This is a thesis, not a validated result.
Pelagio Defense is not only selling an interface. If distributed autonomous infrastructure shifts where sensing happens, where compute runs, how far a response asset must travel, and how much infrastructure each response needs, it changes the unit economics of maritime operations, and the operating layer plus the nodes it runs becomes core infrastructure.
Not yet hardware-validated. No Pelagio Defense cost, savings, or ratio figure is published until node cost and performance are measured.
Development path
Each stage retires a specific risk. The software stages are done; physical hardware has not been purchased or assembled. States reflect repository evidence, not a schedule, so no dates are shown.
Live in production on public maritime data.
Built and tested before any device exists.
Documented and reviewable; nothing purchased or assembled.
The first step that produces physical evidence.
Requires the bench node.
Requires a validated bench node.
Only after controlled water testing.
Software stages are complete; every physical stage is pending. See the evidence-based readiness review →
Live data example
Monterey Bay is the default example, not the product's scope. Switch locations to run the same provider pipeline elsewhere. Every value keeps its source and age; missing coverage stays Unavailable instead of being simulated.
Example locationMonterey Bay, California36.62° N, 121.90° W
NOAA NDBC connection in progress
Public provider connection in progress
Public provider connection in progress
NOAA CO-OPS connection in progress
NASA POWER connection in progress
MarineCadastre connection in progress
NOAA NDBC station discovery in progress
NOAA terrain lookup in progress
No substitute basemap is shown when GEBCO imagery has not loaded. Any coordinate can be inspected on the live map; coverage depends on each public provider.
Public providers queried by the live product, wherever they have coverage. Links go to each provider's official site. These are data sources, not partners.
Contact
Talk to us about data integration, device telemetry, hardware development, research, or an early pilot.