Risk Academy, a Nexortium programmeRisk Science and MethodsDepartment of Geospatial and Risk Data Science

GIS, remote sensing, exposure mapping, GeoAI and the accuracy of what a map shows

Geospatial analysis, Earth observation and GeoAI

A map is a model with an accuracy that can be measured.

risksacademy.comrisk-sciencediscipline

Geospatial analysis, Earth observation and GeoAI, drawn as uncertainty bands: 1 primary courses open, 2 in preparation, 0 approved for authoring and 3 also taught here, across 10 subtopics and 2 connected disciplines. Courses: RAT-201 L1 open, RAT-211 L2 in preparation, RAT-212 L3 in preparation, RAT-205 L2 also taught here, RAT-209 L2 also taught here, RAT-232 L2 also taught here.
Geospatial analysis, Earth observation and GeoAI at a glance. Drawn as uncertainty bands.
  • Open, 1
  • In preparation, 2
  • Also taught here, 3
  • Subtopics, 10
Course codes from the curriculum; study levels L1 to L4.
Twin builder and simulatorThe central Apennines: L'Aquila, Amatrice and Norcia4 twin generators, 8 layers, 4 instruments
course open now
1
in preparation
2
subtopics in its scope
10
reference earthquakes, M6.2 to M6.6
3

Twin figures for the central Apennines: L'Aquila, Amatrice and Norcia, counted from its layers at their stated dates.

Twin builder and simulator.

For Geospatial analysis, Earth observation and GeoAI: the faculty's twin of L'Aquila on the planet map, the globe and in 3D. Pick a generator, switch layers, run the instruments; every layer prints its provider and date.

The central Apennines: L'Aquila, Amatrice and Norcia: a flat plan of the faculty twin. Terrain 24 to 2,805 m; 3 reference earthquakes, M6.2 to M6.6; Earthquakes M4.5 and above, past week (live): live, loads in the twin; USGS ShakeMap intensity contours: live, loads in the twin. Contours every 500 metres from the elevation grid; reference earthquakes as marks.
The central Apennines: L'Aquila, Amatrice and Norcia, Italy. Flat plan of the same data: relief, the three reference epicentres with magnitude and depth, and the numbers below; the sampler's figure shows one precomputed field with its parameters. The 3D twin opens on devices with WebGL once its data and library have been checked.
  • Terrain 24 to 2,805 m
  • 3 reference earthquakes, M6.2 to M6.6
  • Earthquakes M4.5 and above, past week (live): live, loads in the twin
  • USGS ShakeMap intensity contours: live, loads in the twin
Credits and dates per layer are listed under the stage. Relief in the twin is exaggerated ×1.5 for legibility.

Drag to move, right drag or Shift with a drag to turn and tilt, Ctrl with the wheel to zoom. Keyboard: arrows move, Shift with arrows turn and tilt, + and - zoom, 0 resets, V steps through the views, Escape clears.

Flat plan of the same data: relief, the three reference epicentres with magnitude and depth, and the numbers below; the sampler's figure shows one precomputed field with its parameters. The 3D twin opens on devices with WebGL once its data and library have been checked.

The map loads from this site as it nears the view (MapLibre 6.9.1, checked by hash).

The discipline in brief.

The discipline teaches GIS foundations and coordinate reference systems, remote sensing and image analysis, radar flood mapping, exposure mapping, GeoAI methods and their validation, spatial statistics and autocorrelation, cartography for risk and the Earth observation missions that supply the data, on the Copernicus elevation model and the USGS products of the Apennine twin. A graduate can build a spatial layer from open data, assess its accuracy against reference data and present it as a map whose limits are stated.

This area covers the geospatial methods of risk analysis: GIS foundations, remote sensing and image analysis, radar flood mapping, exposure mapping, GeoAI, spatial statistics and cartography, with accuracy assessment and the critical review of what maps and models can show. It is taught in the department of Geospatial and Risk Data Science, Faculty of Risk Science and Methods, through 3 courses with it as primary discipline and 3 more that also teach it.

What the discipline covers.

10 subtopics, taught across its courses and labs.

Courses
1 open, 2 in preparation
Levels
L1 Introductory, L2 Intermediate, L3 Advanced
Labs
Exposure lab, GeoAI lab, Map lab, Geo quiz
  • GIS foundations
  • Remote sensing and image analysis
  • Radar flood mapping
  • Exposure mapping
  • GeoAI methods
  • Map accuracy and validation
  • Spatial statistics
  • Cartography for risk
  • Earth observation sensors and missions
  • Disaster monitoring from space

What is changing now.

Recent developments in geospatial analysis, Earth observation and GeoAI, each with its source; sources checked on 16 October 2026. Summaries are short readings of the source; follow the link for the full account.

The faculty hub.

News and research as they are published, per discipline, with the faculty's other tools.

The newest research, preprints, news and humanitarian reports for Geospatial analysis, Earth observation and GeoAI, each with its source and date, load here. Open the research and news hub

The methods it teaches.

From the Academy's risk taxonomy: the discipline's own entries and those of its primary courses, with how many courses teach each.

Methods and practice

  1. Earth observation and GIS3 courses
  2. AI and GeoAI2 courses
  3. Hazard, exposure, vulnerability and capacity assessment1 course
  4. Risk data governance1 course

Hazard families

  1. Riverine flood2 courses
  2. AI and algorithmic failure1 course
  3. Coastal flood and storm surge1 course

1 open, 2 in preparation.

Courses with this as their primary discipline. Open courses link to the catalogue.

How the subject is practised in labs.

LabWhat you do in itCourses using it
Exposure labOverlay people and assets with hazard footprints5
GeoAI labApply Earth observation and machine learning to open imagery4
Map labRead hazard, exposure and boundaries on real maps3
Geo quizCheck spatial reasoning on where hazards and systems meet3

Courses from other disciplines.

These courses count in their own primary discipline and also teach this one; they do not count towards its achievement as primary courses.

What you can earn here.

Pathways that teach it.

Where the subject is worked on.

Cited as places where the subject is practised; the institutions named are sources here, and Risk Academy hosts every course.

The two Foundry systems where it is practised.

  • Nexus FoundryEOP systemEarth observation and geospatial computationAcquisition room, Change room, Maps room
  • GRIx systemStatistical-geospatial products; no single room fits imagery work closely

Nexus Foundry system pages describe what each system and its rooms are designed to do; they are not a service on offer, and studying here gives no access to them.

Terms used on this page.

TermDefinition
Raster and vector dataGrids of cells and geometric features, the two main forms of spatial data.
Accuracy assessmentComparing a map with reference data to estimate its errors.
Coordinate reference systemThe definition that ties coordinates to locations on the Earth.
GeoAIThe use of machine learning on spatial and Earth observation data.
Spatial autocorrelationThe tendency of nearby locations to have similar values.
Geospatial analysis, Earth observation and GeoAI

Start with an open course.

The catalogue lists each course with its outcomes, labs, hours and level.

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