EUSPA’s October 29, 2026, feature describes how satellite information supports aquaculture, from selecting seaweed-farm locations to monitoring conditions around fish farms. The European Union Agency for the Space Programme connects its EU Space Market Report 2026 with specific applications of Copernicus environmental data and Galileo positioning. Its examples span European coastal waters and the Lake Victoria basin in East Africa.
The agency forecasts that revenue from Earth observation data and services for fisheries and aquaculture will exceed €200 million by 2034. That forecast concerns information products used by the sector, including services that help producers interpret water conditions and organize operations. EUSPA’s account focuses on the decisions those products support: where cultivation takes place, when farm work is scheduled, and how vessels and equipment are positioned.
Planning Seaweed Cultivation
A central example is EUSPA’s fisheries and aquaculture demonstrator, an online tool designed around seaweed cultivation. It combines information from the Copernicus Marine Service and the European Marine Observation and Data Network, known as EMODnet. EUSPA says aquaculture companies, including Seaweed Solutions, contributed user requirements to the tool’s design.
The demonstrator brings together recent and historical information about water quality and ocean conditions. Farmers can examine seasonal changes and differences between locations, using those patterns to assess potential cultivation sites. The same interface supports operational decisions about seeding, harvesting, and alerts. These functions connect environmental records with distinct stages in the production cycle, from establishing a farm to organizing activity at an existing site.
Historical data gives location planning a seasonal dimension, alongside recent information relevant to current operations. Seaweed cultivation supplies food, cosmetics, pharmaceuticals, and biofuel producers, so the tool addresses an agricultural activity with customers beyond seafood markets.
Turning Ocean Observations Into Farm Information
Copernicus Marine information combines several kinds of evidence. Its products draw on satellite observations, measurements collected in the water, and numerical ocean models. Satellite instruments observe the ocean using visible light, infrared and microwave measurements, and radar techniques. Local observations come from equipment such as drifting buoys, moorings, profiling floats, gliders, and instruments carried aboard vessels.
Ocean models incorporate observations to calculate the physical and biological state of the sea. They produce analyses and forecasts covering surface waters and conditions at depth. This combination allows an application to present environmental information across an operating area and through time, connecting remote observations with measurements made close to the water being studied.
Ocean color provides one example of the underlying measurement process. Satellite sensors measure light coming from the ocean, and processing algorithms use those measurements to estimate chlorophyll-a concentrations near the surface. Chlorophyll-a is a photosynthetic pigment in phytoplankton, the microscopic organisms at the base of marine food webs. Copernicus publishes daily and monthly ocean-color products, giving users repeated observations of biological conditions.
These environmental measurements support the site-selection and water-quality applications described in New Space Economy’s account of space technology in aquaculture. Positioning supplies a complementary function: it locates vessels and equipment. Combining location information with environmental records allows marine applications to associate an activity with the conditions at that place.
Offshore Cultivation and Fisheries Records
EUSPA also highlights OLAMUR, a research project examining offshore cultivation alongside other marine activities. The project’s three pilot locations place seaweed and blue-mussel cultivation within wind farms or near a trout farm. They are located north of Helgoland in Germany’s North Sea waters, at Kriegers Flak in the Danish Baltic Sea, and near the Port of Veere in Estonia.
OLAMUR’s work concerns the shared use of marine space for food production and existing offshore activities. In EUSPA’s account, Copernicus Marine temperature, chlorophyll, and current information supports that work. The project brings the same categories of environmental data used in farm planning into geographically defined demonstrations in the North and Baltic Seas.
The Fish-X project applies digital information to fishing activity and seafood traceability. Its published outputs include a fisheries data-sharing environment, a traceability application, and an Insight Platform. The project also provides user documentation and reports from live use cases, alongside aggregated vessel-density and fishing-effort datasets derived from vessel monitoring and electronic reporting systems.
These outputs organize information around different tasks. Vessel records describe the location and movement of fishing activity; environmental information describes marine conditions; traceability records follow seafood through its supply chain. Fish-X’s stated focus includes small-scale and recreational fisheries, connecting digital tools with operators whose activities form part of coastal food production.
Combining Satellite and Local Measurements
In East Africa, KijaniSpace is developing a system that combines Copernicus Earth observation information with local connected-sensor data. Its proposed KijaniBox integrates existing tools, platforms, and datasets, with crop-farming and fish-farming pilots in the Lake Victoria basin. EUSPA lists the project as ongoing and identifies INNOTEC21 as its coordinator.
The project also includes training and innovation programs associated with developing practical applications. Its fish-farming pilot extends the combination of regional observations and local measurements to inland aquaculture. Across the applications in EUSPA’s feature, the operational connection is specific: environmental information supports cultivation decisions, positioning identifies activities and assets, and digital records organize information about fisheries and their products.
Useful Books Available on Amazon
