GIS and Remote Sensing for Early Warning Training Course

Duration 10 days 18 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Disaster Risk Management Officers, GIS Analysts and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 9 Nov 2026 Course code SD-DRM-004

Before you join: Participants should understand basic disaster risk concepts, including hazards, exposure, vulnerability and emergency response arrangements.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Disaster managers need warning decisions that are spatially precise, timely and understandable to the people who must act. Satellite imagery, rainfall estimates, terrain models and field observations can identify exposed settlements, track hazard conditions and support warning messages, but only when data sources, thresholds, maps and communication procedures are connected. Weak geospatial workflows can produce late alerts, misleading maps, unverified hotspots or warnings that fail to reach vulnerable groups.

This course develops the GIS and remote-sensing methods used in multi-hazard early warning systems. Participants work with hazard, exposure and vulnerability data for floods, droughts, landslides, wildfires and tropical storms. They learn to prepare spatial datasets, interpret optical and radar imagery, derive terrain and hydrological indicators, analyse change, establish monitoring thresholds, model risk and produce operational warning products. The course also addresses impact-based forecasting, Common Alerting Protocol messages, uncertainty communication, validation and data governance.

Teaching combines short technical briefings with guided software demonstrations, sector cases, group analysis and scenario-based warning decisions. Cases reflect the operating needs of national disaster management agencies, humanitarian organisations, utilities, municipalities and infrastructure operators. Participants progressively develop a multi-hazard early warning workflow using realistic datasets, from data acquisition and hazard mapping through to warning dissemination and review. They leave with a documented GIS and remote-sensing early warning package that can be adapted for their own area of responsibility.

The course suits professionals who already work with disaster risk, climate information, environmental data, emergency planning or GIS and now need to turn geospatial evidence into defensible warning actions. It is particularly relevant where agencies must coordinate across meteorological, hydrological, civil-protection, public-health and community-response functions.

What you will be able to do

  • Prepare geospatial datasets for multi-hazard early warning analysis using documented quality controls
  • Interpret optical, radar and thermal satellite imagery for hazard detection and situational assessment
  • Produce flood, drought, landslide, wildfire and storm hazard maps from spatial indicators
  • Build exposure and vulnerability layers using census, infrastructure and critical-facility data
  • Apply impact-based forecasting to link hazard thresholds with likely consequences
  • Design warning trigger matrices, alert levels and escalation procedures for operational use
  • Create map products and Common Alerting Protocol content for warning communication
  • Present a complete GIS and remote-sensing early warning workflow for a defined hazard area

Benefits of attending

For you

  • Produce defensible hazard and impact maps for operational warning briefings
  • Interpret satellite imagery when field access is limited or delayed
  • Set measurable warning thresholds linked to expected local impacts
  • Communicate geospatial uncertainty clearly to decision-makers and responders
  • Build a portfolio-ready early warning workflow for a real jurisdiction

For your organisation

  • Improve warning timeliness through repeatable geospatial monitoring procedures
  • Target preparedness actions using mapped populations, assets and service dependencies
  • Reduce inconsistent alert decisions through documented thresholds and escalation rules
  • Strengthen coordination between technical forecasting and emergency response teams
  • Create reusable map templates and data specifications for future incidents

Course modules

18 modules over 10 days

Participants can define the geospatial functions and decision points within a multi-hazard early warning system.

  • Four pillars of people-centred early warning systems and accountability
  • Hazard, exposure, vulnerability and capacity relationships within disaster risk
  • End-to-end warning chain from monitoring through community response
  • Sendai Framework priorities relevant to early warning system design
  • Institutional roles across meteorological, hydrological and civil-protection services
  • Warning decisions documented through standard operating procedures and escalation

Participants can organise spatial datasets for consistent early warning analysis and map production.

  • Vector, raster and tabular data structures for hazard monitoring
  • Coordinate reference systems, datum selection and projection-related map distortion
  • Geodatabases structured around hazards, assets, populations and administrative boundaries
  • Metadata fields recording source, date, resolution, accuracy and restrictions
  • Data dictionaries defining attributes, codes, units and update responsibilities
  • Version control procedures for operational layers and incident map products

Participants can assess whether geospatial data are fit for specified warning decisions.

  • Positional, thematic, temporal and logical consistency quality dimensions
  • Completeness checks for settlement, road, facility and population datasets
  • Ground-truth observations compared against mapped features and classifications
  • Error matrices used to assess remotely sensed classification accuracy
  • Uncertainty statements matched to map scale and decision consequence
  • Quality assurance logs recording checks, corrections, approvals and publication dates

Participants can select suitable satellite and ancillary data sources for different hazard questions.

  • Spatial, spectral, temporal and radiometric resolution trade-offs
  • Sentinel-1 radar imagery for cloud-affected flood monitoring
  • Sentinel-2 optical imagery for vegetation, burn scars and surface water
  • Landsat thermal bands for land-surface temperature assessment
  • MODIS products supporting regional fire and drought monitoring
  • Gauge, radar, forecast and satellite data combined for validation

Participants can prepare satellite imagery for visual interpretation and quantitative analysis.

  • Radiometric calibration converting digital numbers into physical reflectance values
  • Atmospheric correction methods for comparable multi-date optical imagery
  • Speckle filtering applied to synthetic aperture radar observations
  • Cloud, shadow and snow masking before optical image analysis
  • Image mosaicking and clipping to defined operational monitoring areas
  • False-colour composites designed for water, vegetation and burned land

Participants can derive terrain and drainage indicators for flood and landslide assessment.

  • Digital elevation model selection based on terrain and mapping scale
  • Slope, aspect and curvature derived for terrain instability screening
  • Flow direction and accumulation calculated from conditioned elevation surfaces
  • Watershed delineation using pour points and drainage networks
  • Topographic Wetness Index applied to saturated-area susceptibility assessment
  • Stream buffers and floodplain zones generated for exposure screening

Participants can map flood extent and analyse affected areas using multiple evidence sources.

  • Normalized Difference Water Index used for optical water delineation
  • SAR backscatter thresholds applied to floodwater classification
  • Pre-event and post-event imagery compared through change detection
  • Permanent water masks separated from newly inundated land
  • Flood extent intersected with buildings, roads and critical facilities
  • Gauge thresholds linked with observed inundation and operational impacts

Participants can analyse drought indicators and identify areas requiring early action.

  • Normalized Difference Vegetation Index interpreted against seasonal baselines
  • Vegetation Condition Index calculated from historical NDVI ranges
  • Standardized Precipitation Index used for rainfall deficit classification
  • Soil-moisture anomalies combined with rainfall and vegetation indicators
  • Crop calendars aligned with monitoring windows and warning thresholds
  • Administrative summaries identify districts with persistent drought stress

Participants can develop a landslide susceptibility screening model from spatial conditioning factors.

  • Slope gradient, geology and land cover compiled as conditioning factors
  • Distance-to-road and distance-to-stream layers calculated for susceptibility
  • Rainfall intensity-duration thresholds linked to documented landslide occurrence
  • Weighted overlay methods used for transparent susceptibility scoring
  • Landslide inventories separated into training and validation datasets
  • Susceptibility classes communicated with limitations and monitoring priorities

Participants can identify active fire indicators and assess burned-area impacts.

  • VIIRS active-fire detections interpreted with confidence and latency attributes
  • Fire Weather Index components linked to ignition and spread conditions
  • Normalized Burn Ratio calculated from pre-fire and post-fire imagery
  • Differenced Normalized Burn Ratio used for burn-severity classification
  • Fuel, slope and settlement proximity combined for priority monitoring
  • Burned areas intersected with watersheds, roads and protected areas

Participants can translate storm forecasts into mapped areas of probable impact.

  • Track forecasts mapped with forecast cones and timing uncertainty
  • Wind swaths generated from intensity, radius and directional assumptions
  • Storm-surge zones overlaid with elevation and coastal settlement data
  • Rainfall forecasts aggregated by catchment and administrative boundary
  • Critical infrastructure exposure assessed within forecast impact zones
  • Scenario maps distinguish observed conditions from forecast probabilities

Participants can build exposure and vulnerability layers that support impact estimates.

  • Population grids compared with census polygons and settlement footprints
  • Critical facilities classified by function, capacity and service dependency
  • Building exposure estimated through footprints, occupancy and construction types
  • Social vulnerability indicators selected using transparent inclusion criteria
  • Network analysis identifies access constraints to hospitals and shelters
  • Exposure databases updated after construction, displacement and service changes

Participants can combine hazard, exposure and vulnerability evidence into priority areas for action.

  • Risk matrices link likelihood, consequence and decision escalation levels
  • Raster overlay combines hazard intensity with exposure and vulnerability
  • Multi-criteria decision analysis documents weights, scores and assumptions
  • Hotspot analysis identifies statistically significant clusters of potential impact
  • Priority rankings distinguish life safety, service disruption and economic loss
  • Sensitivity testing shows effects of alternative weights and thresholds

Participants can design trigger logic connecting forecast hazards with anticipated impacts and actions.

  • Impact-based forecasting connects hazard probability with exposed vulnerable elements
  • Trigger matrices define thresholds, confidence levels, actions and owners
  • Forecast-based financing thresholds linked to pre-agreed early actions
  • Lead-time analysis identifies feasible preparedness and evacuation measures
  • Alert levels aligned with national emergency management arrangements
  • Decision logs record evidence, assumptions, authorisation and issued messages

Participants can produce clear map and message products for operational warning communication.

  • Cartographic hierarchy directs attention to hazard, impact and required action
  • Colour schemes distinguish alert levels while supporting colour-vision accessibility
  • Scale bars, north arrows and dates support map interpretation
  • Common Alerting Protocol fields structure multi-channel warning messages
  • Protective-action instructions matched to locations, populations and lead times
  • Uncertainty language states confidence, update timing and information limitations

Participants can specify operational information products for incident monitoring and coordination.

  • Dashboard indicators selected from agreed operational decision requirements
  • Situation reports distinguish confirmed observations from preliminary assessments
  • Web map layers organised by hazard, impact, response and reference
  • Update frequencies assigned according to hazard speed and data latency
  • Incident geodatabases preserve timestamps, sources and verification status
  • Briefing templates summarise affected locations, trends, actions and gaps

Participants can establish responsible data-sharing arrangements for geospatial early warning operations.

  • Data-sharing agreements specify access, ownership, retention and permitted uses
  • Personal data risks assessed for household, health and displacement records
  • Minimum data standards support exchange between agencies and partners
  • Open Geospatial Consortium services support interoperable map publication
  • Community observations validated without exposing reporters to unnecessary risk
  • Access controls protect sensitive infrastructure and vulnerable population locations

Participants can build, review and present a complete GIS and remote-sensing early warning workflow for a defined multi-hazard area.

  • Hazard scenario defined with geographic extent, lead time and consequences
  • Data inventory documents sources, resolution, update cycles and limitations
  • Monitoring indicators selected from satellite, forecast and field observations
  • Exposure and vulnerability analysis identifies priority populations and assets
  • Trigger matrix links evidence thresholds with authorised early actions
  • Warning map and CAP message prepared for specified recipient groups
  • Peer review tests assumptions, uncertainty statements and operational feasibility
  • Implementation roadmap assigns owners, data updates and review milestones

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Multi-hazard geospatial data model
  2. Satellite monitoring indicator library
  3. Hazard-impact trigger matrix
  4. Exposure and vulnerability assessment template
  5. Early warning map production checklist
  6. GIS and remote-sensing workflow implementation plan

Who should attend

  • Disaster Risk Management Officers — need spatial evidence for warning and preparedness decisions
  • GIS Analysts — need to apply geospatial workflows to operational hazard monitoring
  • Emergency Operations Centre Staff — need actionable maps, triggers and alert products
  • Hydrologists and Meteorologists — need to connect forecasts with mapped impacts
  • Humanitarian Programme Managers — need to prioritise at-risk populations and response locations
  • Infrastructure Resilience Managers — need location-based warnings for assets and service continuity

Skills and tools covered

Hazard mappingSatellite image interpretationSpatial risk analysisWarning threshold designImpact-based forecastingAlert communication

Tools and standards

QGIS, Google Earth Engine, Common Alerting Protocol, Sendai Framework for Disaster Risk Reduction

How the course runs

Training methodology

The course uses short instructor briefings followed by software demonstrations, worked cases, group exercises and structured review sessions. Participants analyse realistic flood, drought, landslide, wildfire and storm scenarios using GIS layers, satellite products and forecast information. Simulations require teams to interpret evidence, select alert levels and prepare warning products under time constraints. Application planning sessions connect course methods to participants’ own jurisdictions, hazards, data holdings and institutional procedures. Trainers provide feedback on technical assumptions, map design, trigger logic and communication choices.

Requirements and prerequisites

Participants should understand basic disaster risk concepts, including hazards, exposure, vulnerability and emergency response arrangements. Prior experience using maps, spreadsheets or GIS data is expected, although advanced GIS analysis is not required. Familiarity with common file types such as CSV, shapefiles and GeoTIFFs is useful. Participants should be comfortable interpreting charts, coordinates and simple data tables. Programming, satellite-image processing experience, advanced statistics and prior use of Google Earth Engine are not required. The course explains the required remote-sensing concepts before applying them.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

You should understand basic disaster risk concepts and be able to work with maps, tables and common data files. Prior GIS use is helpful, but advanced spatial analysis, coding and satellite-image processing are not required.

Bring a laptop capable of running standard desktop GIS software and, where permitted, non-sensitive examples of your hazard maps, data specifications or warning procedures. Training datasets and instructions are provided by the trainer.

It is designed for disaster risk staff, GIS analysts, forecasters, emergency operations personnel, humanitarian managers and infrastructure resilience teams. It is most useful for people who contribute to warning decisions, impact analysis or emergency information products.

General courses teach software functions or image-processing methods without necessarily connecting them to warning decisions. This course centres on operational triggers, impact forecasting, alert communication, coordination and repeatable early warning workflows.

You can adapt the trigger matrix, data model, map checklist and workflow plan to your priority hazard and jurisdiction. The methods support seasonal monitoring, incident response planning, emergency operations centre briefings and post-event review.

The 10-day format provides about 65 contact hours, combining technical instruction with case analysis, software-based work and decision simulations. The first part establishes data, imagery and hazard methods; the later part focuses on impact analysis, warning operations and the capstone.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.