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Systems and technologies
The systems behind oceans.

The technologies that carry this industry’s observations, ranked against what it needs to observe and drawn from across the spectrum.

Plan a deploymentUse casesOpen the explainer

At a glance

Private 5G, AI-RAN and orbit, on site

Standalone private 5G and O-RAN, AI-RAN on shared accelerated compute, LEO and GEO backhaul and 3GPP direct-to-device, LPWAN and mesh for sensors over kilometres, PTP timing inside the budget, and the spectrum route for each country. In oceans, Connectivity serves the work on waves, tides and sea level, water temperature and salinity and coastal water quality.

مسئله

From the coastline to the open ocean

Wave buoys and tide gauges, profiling floats and coastal water quality, ports and shipping lanes, and satellite links where no cable runs, with every observation carrying its position, time and quality flag. The platforms that serve oceans are sensors and instruments, connectivity and data and licensing.

Components

  • Pole-mounted edge gateway node
  • Moored met-ocean observing buoy, 3 m discus class
  • Particulate monitoring station and sensor node
  • Bioacoustic recorder on a tree
  • Radar stream gauge on a road bridge
  • LEO broadband user terminal (generic flat-panel class) on a ballasted pivot mount, with cable and router
  • “AI tower in a box”
  • PTP grandmaster clock with GNSS antenna

Interfaces

ابزارها
SDI-12 · RS-485 / Modbus RTU · 4–20 mA
Radio
Ethernet · LTE-M / NB-IoT · LoRaWAN
Time and position
GNSS 1PPS
Security
TPM 2.0
Publishing
MQTT

Where it works

  • Grid data, licensed for your use

In the story below

  1. The system, part by part
  2. Assembly
  3. Installation
  4. Deployment
  5. Connections
  6. Operation
  7. Failure and recovery
  8. Scale and federation
  9. What you get

Scenes · 13

Next steps

Plan a deploymentOpen the Field Deployment StudioRead the storiesTalk to sales
  1. Oceans · Systems and technologies

    From the coastline to the open ocean

    Wave buoys and tide gauges, profiling floats and coastal water quality, ports and shipping lanes, and satellite links where no cable runs, with every observation carrying its position, time and quality flag. The platforms that serve oceans are sensors and instruments, connectivity and data and licensing.

  2. Platform · Connectivity

    Private 5G, AI-RAN and orbit, on site

    Standalone private 5G and O-RAN, AI-RAN on shared accelerated compute, LEO and GEO backhaul and 3GPP direct-to-device, LPWAN and mesh for sensors over kilometres, PTP timing inside the budget, and the spectrum route for each country. In oceans, Connectivity serves the work on waves, tides and sea level, water temperature and salinity and coastal water quality.

    See Connectivity
  3. Platform · Data & licensing

    Grid data, licensed for your use

    Research, commercial API, enterprise and government tiers, the licence of every source carried through to every product, routes from licensed to open release, and residency fixed by contract. In oceans, Data & licensing serves the work on waves, tides and sea level, water temperature and salinity and coastal water quality.

    See Data & licensing
  4. Platform · Space and satellite systems

    From orbit to the ground, on one protocol

    Spacecraft buses and payload classes, constellations sized to revisit and coverage, non-terrestrial networks and 3GPP direct-to-device, tasking and downlink, and space safety from tracking to conjunction awareness. Every pass, product and link carries its provenance into the grid. In oceans, Space and satellite systems serves the work on waves, tides and sea level, water temperature and salinity and coastal water quality.

    See Space and satellite systems
  5. Platform · Sensors & instruments

    Measurements that carry their own proof

    Weather and environment stations to WMO practice, RF spectrum sensing in the band, and calibration that is traceable, recorded and repeated. Every value leaves with its metadata, quality flag and provenance. Or buy the observations and leave the hardware to us: Sensing as a Service.

    See Sensors & instruments
  6. Platform · Earth observation & GeoAI

    The ground, measured and modelled

    Ground-segment downlink and processing at the edge, drone and imagery campaigns planned to the ground sample distance, site twins measured in 3D, and GeoAI trained and checked against field truth, with the source and licence of every layer in view.

    See Earth observation & GeoAI
  7. Platform · Positioning, navigation and timing

    Where and when, with the error bound

    GNSS reference stations tied to the geodetic frame, PTP and SyncE time distribution engineered to the budget, grandmasters and holdover that ride through outages, and resilient PNT that finds jamming and spoofing before a timestamp goes wrong. In oceans, Positioning, navigation and timing serves the work on waves, tides and sea level, water temperature and salinity and coastal water quality.

    See Positioning, navigation and timing
  8. Platform · Edge compute & AI

    Inference beside the instrument

    A modular edge data centre at the foot of the tower, multi-access edge computing one hop from the radio, inference on the live stream, scientific models run where the data lands, and physical AI for drones and robots, inside published red lines.

    See Edge compute & AI
  9. Field service

    One crew, from survey to repair

    For oceans, one crew carries a site from survey to repair: it installs, commissions and calibrates from the site’s own record. The record grows with every visit to a site for oceans, and spares and references are planned from what it shows.

  10. تازه‌ها

    Updates in rings, with rollback

    No change reaches a whole fleet for oceans at once: software and configuration go to one canary site first, then to a few, then to all. Each ring for oceans passes only on health and data completeness, and a failed check returns every node to its last good release.

  11. How it scales

    One base unit, repeated

    A network for oceans grows from one proven unit: a base node, its instruments, then the power and radio that make it a station. A relay turns stations into a site, a fleet repeats the site in many places, and capacity for oceans rises with each unit added, never by replacing what works.

  12. What you get

    Transport and logistics corridor sensing

    Road weather, rail condition, port and cold-chain sensing along corridors, with connectivity where coverage ends. For oceans, it goes to transport agencies, rail and port operators and logistics firms as a managed service or a data licence, sized to the sites they run.

    Talk to sales
  13. Next step

    Plan a oceans network with us

    Tell us the platforms you already run in oceans and what the new sites must connect to. An engineer replies with a survey proposal, a design and a scope for oceans, and the plan grows from one site to the network you need.

    Plan a deploymentOpen the Field Deployment StudioRead the stories

More presentations

See it from every side.

Each opens as a full-screen presentation: deeper pages on the same subject, explainers, stories, guided tours of the places, network scenes and the observatories that came before.

All presentations

In depth

Industry · Oceans Oceans, coasts and maritimeFrom the coastline to the open oceanSpecialized field · Oceans Sea level and storm surgeSurge on tide on a rising seaSpecialized field · Oceans Waves and coastal buoysEveryone at sea needs the wavesSpecialized field · Oceans Coastal and bathing water qualityBetween the samplesSpecialized field · Oceans Underwater noiseA sea full of soundISIC section · ISIC A Agriculture, forestry and fishingISIC section · ISIC H Transportation and storageISIC section · ISIC G Wholesale and retail trade; repair of motor vehicles and motorcyclesISIC section · ISIC E Water supply; sewerage, waste management and remediation activities

Explainers

Explainer · Environment and climate Environment and climate — SectorsMethane fencelines, acoustic biodiversity grids, flux towers, river sondes and smoke networks: an interactive explainer with the method behind every number.Explainer · Transport Transport — SectorsRoad weather, corridor station spacing, small-airport weather, port met-ocean with vessel tracking and highway coverage: an interactive explainer with the method behind every…Explainer · Sensors & instruments Sensors and observing networks, explainedFrom a weather station’s siting class to a radar volume scan, a seismic vault and an ocean float: the measurement chain, quality control, calibration traceability and WIGOS…سکو Data & licensingGood data, unusable termsسکو Sensors & instrumentsA number without its story

Stories

Story · Ocean The ocean below the surfaceMost of the ocean’s heat lies below what satellites can see. Profiling floats drifting at depth and surfacing to report have measured it routinely since the…Story · Coast and port The port that sees the approachA port observes three things at once: the ships coming in, the sea they come through and the cranes that receive them. Ship identity travels on a radio…Story · Satellite backhaul When the backhaul is a satelliteFor a remote site, the satellite is not a backup; it is the network. Since Release 17, the cellular standard includes satellites as part of the radio access…

Places and networks

Guided tour · Guided 3D tour Coastal portCoastal radar and AIS watch the approach, a met-ocean buoy reports the sea state, and crane-side edge compute closes the control loop on a private network.Guided tour · Guided 3D tour Offshore and oceanA moored met-ocean buoy and a profiling float report through a satellite pass overhead; the red link is the uplink.Guided tour · Guided 3D tour Arctic stationA self-powered station on the ice: a microgrid, a low-orbit satellite terminal, a weather station, a GNSS monument and an edge node that holds data through the polar night.Network scene · Private 5G · Port Private 5G at a container portSmall cells on the yard lighting masts and a sector site on the operations building serve remote-controlled cranes and trucks among steel container stacks.Network scene · Backhaul · Fresnel zone Microwave backhaul across a river valleyAn 18 GHz hop from the church tower to a mast on the far side of the flood plain: its first Fresnel zone, clearance over the town and trees, and what a new building in the path…

Heritage observatories

Heritage observatory · Equatorial Pacific Ocean · 1985 TAOSome seventy moorings along the equator across the Pacific, each reporting wind, temperature and salinity by satellite.Heritage observatory · United States · 2009 Ocean Observatories InitiativeCabled and moored arrays in the Atlantic and Pacific, designed to give scientists a continuous, real-time view of the ocean for decades.

Interactive tools

Interactive tool · Plan a site Field Deployment StudioTerrain, devices, coverage, viewshed, power and the best spot for a station, then a deployment request with the plan attached.

01Remote sensing and Earth observation

Processing levels and analysis-ready data.

Remote sensing and Earth observation · Processing levels and analysis-ready data

Level 0: raw instrument data

Time-ordered packets as received, with communications artefacts removed.

CCSDS 133.0-B (Space Packet Protocol) · CCSDS 131.0-B (TM synchronisation and channel coding)

Remote sensing and Earth observation · Processing levels and analysis-ready data

Level 1: calibrated and geolocated

Radiometric and geometric corrections applied, sensor units and geolocation attached (L1A, L1B, L1C).

NASA EOSDIS data processing levels · ISO 19115-2 (imagery and gridded data metadata)

Remote sensing and Earth observation · Processing levels and analysis-ready data

Level 2: geophysical variables

Per-scene surface reflectance, temperature, backscatter, water or gas quantities at native resolution.

CEOS ARD product family specifications

Remote sensing and Earth observation · Processing levels and analysis-ready data

Levels 3 and 4: gridded, composited and modelled

Space-time composites on fixed grids, and model or assimilation outputs that fill gaps.

NASA EOSDIS data processing levels · CF Conventions

Remote sensing and Earth observation · Processing levels and analysis-ready data

CEOS analysis-ready data

Products pre-processed to threshold and goal requirements so they can be stacked and compared without expert reprocessing.

CEOS ARD framework and product family specifications

Remote sensing and Earth observation · Processing levels and analysis-ready data

Atmospheric, terrain and radiometric terrain correction

Removal of atmosphere, illumination and topographic effects so pixels represent the surface.

CEOS ARD Surface Reflectance · CEOS ARD SAR (Normalised Radar Backscatter)

All 9 in this layer

02In situ sensors and instruments

RF, acoustics, cameras and radar.

Frontier · In situ sensors and instruments · RF, acoustics, cameras and radar

Event-based and neuromorphic cameras

Sensors that report changes per pixel at microsecond rates with very low power.

EMVA 1288 (reference for characterisation)

In situ sensors and instruments · RF, acoustics, cameras and radar

Spectrum monitoring receivers

Measured occupancy, interference and emissions across bands at a site.

ITU-R Handbook on Spectrum Monitoring · ITU-R SM.1880 (spectrum occupancy measurement)

In situ sensors and instruments · RF, acoustics, cameras and radar

Direction finding and emitter geolocation

Locating interference and unknown emitters by angle and time difference of arrival.

ITU-R SM.854 (direction finding) · ITU-R Handbook on Spectrum Monitoring

In situ sensors and instruments · RF, acoustics, cameras and radar

Acoustic and noise monitoring

Class 1 sound level meters and microphone arrays for environmental noise and event detection.

IEC 61672-1 (sound level meters) · ISO 1996-2 (environmental noise)

In situ sensors and instruments · RF, acoustics, cameras and radar

EO/IR cameras

Visible and thermal cameras characterised for sensitivity, noise and resolution.

EMVA 1288 (camera characterisation) · ISO 12233 (resolution measurement)

In situ sensors and instruments · RF, acoustics, cameras and radar

PTZ and networked video systems

Pan-tilt-zoom and fixed cameras for wildfire watch, sites and coastlines, with interoperable control.

IEC 62676 series (video surveillance systems) · ONVIF Profiles S, T and M

All 9 in this layer

03IoT, LPWAN and mesh

Satellite IoT and non-terrestrial networks.

Frontier · IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

Store-and-forward satellite IoT

Regenerative satellites that hold uplinked data until a ground station is in view.

3GPP Rel-19 IoT-NTN store-and-forward work item

Frontier · IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

NR NTN and direct-to-device

5G NR links from satellites to standard devices, including RedCap over NTN in Rel-19.

3GPP TS 38.300 (Rel-17 NR NTN) · 3GPP TR 38.821 (NR NTN solutions)

Frontier · IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

LoRa-class links to satellites

LPWAN modulations received by satellites for remote sensors with very small payloads.

LoRaWAN Regional Parameters RP002 (LR-FHSS)

IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

NB-IoT and LTE-M over satellite (IoT-NTN)

Standard cellular IoT devices reaching satellites where there is no terrestrial coverage.

3GPP TR 36.763 (NB-IoT/eMTC over NTN) · 3GPP TS 36.300 (Rel-17 IoT-NTN)

IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

Mobile-satellite messaging terminals

L-band and S-band short-burst data terminals for remote stations and alarms.

ITU Radio Regulations (mobile-satellite service)

IoT, LPWAN and mesh · Satellite IoT and non-terrestrial networks

Satellite terminal licensing

Authorisation of terminals and earth stations country by country.

ISED Radio Standards Specifications (Canada) · ITU Radio Regulations

All 6 in this layer

04In situ sensors and instruments

Ocean and coastal.

In situ sensors and instruments · Ocean and coastal

CTD profilers

Conductivity, temperature and depth instruments for salinity and density profiles.

TEOS-10 (thermodynamic equation of seawater) · GO-SHIP hydrographic manual

In situ sensors and instruments · Ocean and coastal

Acoustic Doppler current profilers (ocean)

Moored and hull-mounted profilers for currents through the water column.

IOOS QARTOD manual for in situ currents

In situ sensors and instruments · Ocean and coastal

Moored and drifting buoys

Surface meteorology, waves and sea temperature from moorings and drifters.

WMO/IOC Data Buoy Cooperation Panel practices · IOOS QARTOD manual for waves

In situ sensors and instruments · Ocean and coastal

Argo-class profiling floats

Autonomous floats that profile temperature, salinity and biogeochemistry to depth on a regular cycle.

Argo data management documentation · OceanOPS

In situ sensors and instruments · Ocean and coastal

Tide gauges and sea level

Long-term sea level and storm surge records tied to geodetic benchmarks.

IOC Manuals and Guides 14 (Manual on Sea Level Measurement and Interpretation) · GLOSS

In situ sensors and instruments · Ocean and coastal

Gliders and uncrewed surface vehicles

Mobile autonomous platforms that sample along tracks for weeks.

GOOS Essential Ocean Variables

All 7 in this layer

055G and 6G radio access networks

Macro, small cells, DAS and repeaters.

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Macro sites

Tower and rooftop base stations that carry wide-area coverage and most traffic.

3GPP TS 38.104 (BS radio transmission and reception) · ANSI/TIA-222 (antenna supporting structures) · CSA S37 (antennas, towers and antenna-supporting structures)

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Small cells

Medium-range and local-area base stations for capacity hotspots, streets, campuses and indoor spaces.

3GPP TS 38.104 (medium range and local area BS classes) · Small Cell Forum SCF222 (5G FAPI PHY API)

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Distributed antenna systems

Passive, active and digital DAS that spread one or more operators’ signals through buildings, tunnels and venues.

3GPP TS 38.106 (NR repeater radio) · IEC 62232 (RF field strength near base stations)

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Repeaters and network-controlled repeaters

RF repeaters, including beam- and TDD-aware repeaters controlled by the gNB, for low-cost coverage extension.

3GPP TS 38.106 (NR repeater) · 3GPP TR 38.867 (network-controlled repeaters, Rel-18)

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Integrated access and backhaul

NR used to backhaul other NR cells wirelessly, useful where fibre or microwave is impractical.

3GPP TS 38.300 (IAB, Rel-16) · 3GPP TS 38.174 (IAB radio)

5G and 6G radio access networks · Macro, small cells, DAS and repeaters

Public-safety in-building coverage

Emergency responder radio coverage systems required in many buildings by fire and building codes.

NFPA 1225 (emergency services communications)

All 9 in this layer

06Satellite and space systems

Communications payloads, NTN and direct-to-device.

Frontier · Satellite and space systems · Communications payloads, NTN and direct-to-device

Regenerative payloads and on-board processing

Payloads that demodulate, route or run base-station functions in orbit, cutting gateway dependence and latency.

3GPP Rel-19 NR NTN enhancements (regenerative payload) · 3GPP TS 38.300

Frontier · Satellite and space systems · Communications payloads, NTN and direct-to-device

Direct-to-device in mobile bands

Satellites serving unmodified phones in terrestrial mobile spectrum to extend coverage at the edge of networks.

FCC Supplemental Coverage from Space framework (2024) · ITU WRC-27 agenda item 1.13 (Resolution 253 (WRC-23))

Frontier · Satellite and space systems · Communications payloads, NTN and direct-to-device

Store-and-forward satellite IoT

Satellites that collect data when out of gateway view and deliver later, suited to sparse sensor networks.

3GPP Rel-19 IoT NTN store-and-forward

Satellite and space systems · Communications payloads, NTN and direct-to-device

Transparent (bent-pipe) payloads

Payloads that frequency-translate and amplify signals, keeping the gNB or hub on the ground.

3GPP TS 38.300 (NTN, Rel-17) · 3GPP TR 38.821 (NR NTN solutions)

Satellite and space systems · Communications payloads, NTN and direct-to-device

Multibeam and digitally beamformed payloads

Hundreds of steerable spot beams with flexible power and bandwidth that follow demand across a coverage area.

ETSI EN 302 307-2 (DVB-S2X) · Rec. ITU-R S.1503

Satellite and space systems · Communications payloads, NTN and direct-to-device

5G NR over satellite (NR-NTN)

3GPP NR adapted for satellite delay and Doppler so standard 5G devices and cores work over orbiting access.

3GPP TS 38.300 (NTN, Rel-17) · 3GPP TS 38.101-5 (UE RF, satellite access) · 3GPP TS 38.108 (satellite access node radio)

All 9 in this layer

07Every domain

The rest of the spectrum.

The domains whose layers serve this industry, each with its full directory.

Layers · 8 · items · 61

In situ sensors and instruments

Instruments placed in the air, water, ground and spectrum, from weather stations to seismometers, radars and cameras, with the calibration, metadata and quality control that make their readings evidence.
Layers · 8 · items · 62

5G and 6G radio access networks

The radio access network from site to spectrum: macro, small cells, DAS and repeaters, massive MIMO, NR bands and TDD synchronisation, NR features such as RedCap, positioning and sidelink, private and shared networks, Wi-Fi coexistence, 6G and ISAC, and the planning and assurance that keep it working.
Layers · 8 · items · 60

AI-RAN and Open RAN

Disaggregated, software-defined and AI-assisted radio access: the O-RAN architecture and its open interfaces, 7.2x fronthaul, RAN intelligent controllers with xApps and rApps, SMO and O-Cloud, accelerated L1, shared GPU infrastructure for RAN and AI, AI/ML in the 3GPP air interface, energy saving, and the test and integration work that makes multi-supplier RAN deployable.
Layers · 8 · items · 60

Core and transport networks

The networks behind the radio: the 5G core and its functions, slicing and edge breakout, IMS voice and emergency calling, fronthaul, midhaul and backhaul over microwave, E-band, fibre, free-space optics and satellite, IP/MPLS and segment routing, IPv6, automation and intent, and the security that holds it together.
Layers · 8 · items · 66

Satellite and space systems

The space segment end to end: orbits and constellations, spacecraft buses, communications and Earth observation payloads, inter-satellite links, tracking and command, space safety, launch, and the licensing and filings that let a system operate over a site.
Layers · 8 · items · 63

Ground segment

Everything on the ground that talks to spacecraft: gateways and teleports, user terminals, modems and software-defined radio, shared antenna networks, CCSDS protocol stacks, mission control, data processing and the spectrum coordination behind each earth station.
Layers · 7 · items · 59

Spectrum, timing and PNT

The shared foundations every network and sensor depends on: how spectrum is licensed, shared and monitored, GNSS positioning and its corrections, packet timing with PTP and SyncE, grandmasters and holdover, resilient PNT alternatives, and the detection of interference, jamming and spoofing.
Layers · 8 · items · 54

IoT, LPWAN and mesh

The radios, networks, gateways, device management and field protocols that connect low-power sensors and controllers to the grid, sized to a measured power budget.
Layers · 8 · items · 59

Data, software and interoperability

How observations move from the edge into stores, catalogues and APIs with their provenance, licence and residency attached, and how they interoperate through open standards and the open Observatory Protocol.
Layers · 8 · items · 67

Remote sensing and Earth observation

Every platform, sensor, processing level and ground-segment step that turns remote measurements of the Earth into calibrated, analysis-ready evidence for a site, a region or a network.
Layers · 8 · items · 65

GIS, maps and GeoAI

The reference frames, formats, services, analysis methods, machine learning and 3D models that turn observations into located, queryable and decision-ready geographic information.
Layers · 8 · items · 65

Compute and edge

Compute placed where data is produced and decisions are needed: the device, far, near and regional edge tiers, multi-access edge computing, modular edge data centres including the AI tower in a box, servers and accelerators, storage, power and cooling, ruggedisation, fleet orchestration, OTA and GitOps, and the hardware trust that makes remote sites safe to run.
Layers · 8 · items · 65

AI systems

AI from model to accountable operation: edge inference and model optimisation, foundation models for Earth observation and geospatial work, time-series and sensor AI, multimodal fusion and supervised agentic operations, federated and privacy-preserving learning, physical AI and robotics within stated red lines, MLOps, evaluation and model risk, and the governance frameworks that apply to each.

Bring us the site.

Survey, design, deployment and operation for oceans. The form names who receives your details.

Talk to usPlan a deployment

The systems behind oceans.

Reference design, drawn to scale · drag to turn