Emergency Response GIS Systems Training Course

Duration 10 days 21 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Emergency Management GIS Analysts, Civil Protection Officers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-GRS-088

Before you join: Participants should have practical experience using desktop GIS, including opening spatial datasets, editing attribute tables, applying basic symbology and creating maps.

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

Emergency managers need reliable geographic information before, during and after an incident. Flooding, wildfire, earthquake damage, hazardous-material releases and public-health events create fast-changing questions: where is the hazard, who is exposed, which roads remain usable, where are response assets, and what information can be released publicly? Poorly structured data, inconsistent map products and unclear update responsibilities can delay decisions and create conflicting operational pictures between command posts, field teams and partner agencies.

This course develops the GIS and remote-sensing methods used to support emergency preparedness, response and early recovery. Participants work with incident requirements, coordinate reference systems, operational geodatabases, satellite imagery, field data collection, damage assessment, evacuation analysis, routing and emergency dashboards. They apply Incident Command System concepts to define information products for operations, planning, logistics and public information. The course also addresses data quality, interoperability, privacy, information governance and continuity arrangements for GIS services during prolonged incidents.

Teaching combines focused instructor briefings with case-based mapping tasks, scenario simulations and peer review of operational products. Participants progressively build an emergency GIS package from the first week, using a realistic multi-agency incident scenario. By the end of the course, each participant has produced an incident GIS plan, operational geodatabase design, map series, dashboard specification, field-data workflow and situation-reporting package that can be adapted for their own agency or organisation.

The course suits professionals who already use GIS or manage spatial information and now need to support emergency operations. It is relevant to civil protection agencies, municipalities, utilities, humanitarian organisations, transport operators, health authorities, insurers and corporate crisis-management teams.

What you will be able to do

  • Define incident information requirements using Incident Command System functional roles
  • Design an operational geodatabase for hazards, assets, populations and response resources
  • Produce emergency map products using scale, symbology, labelling and update controls
  • Interpret satellite imagery and remote-sensing outputs for rapid damage and hazard assessment
  • Configure field-data collection workflows for damage assessment and responder reporting
  • Conduct exposure, accessibility and evacuation analyses using spatial analysis methods
  • Build a common operating picture dashboard with verified operational indicators
  • Present a complete emergency GIS response package for command-level review

Benefits of attending

For you

  • Produce command-ready maps under incident time constraints
  • Translate operational questions into spatial data requirements
  • Assess imagery for hazards and damage evidence
  • Design repeatable field reporting and verification workflows
  • Build a portfolio-ready emergency GIS response package

For your organisation

  • Faster production of verified incident maps and situation reports
  • Clearer data responsibilities across emergency operations centre functions
  • More accurate exposure estimates for populations and critical assets
  • Improved coordination between field teams, command staff and partner agencies
  • Reusable GIS templates for preparedness, response and recovery operations

Course modules

21 modules over 10 days

Participants can define the GIS role, information products and update cycle for an emergency operation.

  • Common operating picture elements: incident perimeter, resources, hazards and decisions
  • GIS roles within Incident Command System sections and emergency operations centres
  • Time, geography and attribution as emergency decision-making variables
  • Mapping products matched to command, planning, logistics and public-information functions
  • Map scale, symbol hierarchy and readable emergency cartographic layouts
  • Response mapping lifecycle from activation through demobilisation and archival

Participants can convert incident objectives into prioritised GIS information requirements.

  • Incident objectives translated into geographic questions and measurable information requirements
  • Essential elements of information identified through command-staff interview techniques
  • Priority intelligence requirements distinguished from routine situational reporting requests
  • Information request log fields, ownership, deadlines and approval status
  • Decision timelines mapped against data availability and update frequency
  • Product acceptance criteria agreed with operations, planning and logistics leads

Participants can select coordinate systems and structure core emergency response datasets.

  • Coordinate reference systems selected for local, national and cross-border incidents
  • Datum transformations checked before combining partner agency spatial datasets
  • Feature classes structured for incidents, hazards, assets, people and resources
  • Unique identifiers assigned for records, locations, reports and operational assets
  • Domain values and subtypes controlled within emergency geodatabase schemas
  • Metadata captured using ISO 19115 principles and local data conventions

Participants can assess source fitness and prepare interoperable emergency GIS data.

  • Authoritative source registers maintained for boundaries, roads, facilities and demographics
  • Positional accuracy, completeness, timeliness and lineage assessed before operational use
  • Data-quality statements attached to maps, dashboards and analytical outputs
  • OGC Web Map Service and Web Feature Service exchange patterns
  • Common Alerting Protocol geography compared with operational GIS boundary definitions
  • Data-sharing agreements checked for licensing, classification and redistribution restrictions

Participants can establish a controlled geodatabase workflow for incident operations.

  • Incident geodatabase folders separated by intake, working, published and archive states
  • Versioning rules protect approved operational layers from uncontrolled edits
  • Edit tracking records contributor, timestamp, source and verification status
  • Schema templates prepared for repeated hazards and recurring emergency functions
  • Daily backup schedules matched to recovery point and recovery time objectives
  • Naming conventions support rapid search, handover and post-incident retrieval

Participants can design field-data workflows for rapid, traceable incident reporting.

  • Field forms designed for observations, damage reports and resource status updates
  • Required fields distinguish verified observations from preliminary unconfirmed reports
  • GPS accuracy, timestamp and observer identity captured with each submission
  • Offline collection workflows prepared for disrupted communications and remote locations
  • Photo attachments managed with consent, classification and retention controls
  • Quality-assurance queues route submitted reports for review and publication

Participants can select and interpret remote-sensing sources for emergency assessment.

  • Optical, radar and thermal imagery matched to hazard and weather conditions
  • Pre-event and post-event imagery compared using change-detection methods
  • Cloud cover, smoke and shadow limitations evaluated before image interpretation
  • Synthetic aperture radar backscatter interpreted for flood extent indicators
  • Spatial, spectral, temporal and radiometric resolution assessed against task requirements
  • Image-derived observations recorded with confidence levels and analyst notes

Participants can create hazard layers that support operational protective actions.

  • Hazard footprints digitised from imagery, sensors, forecasts and field reports
  • Buffer analysis applied to hazardous-material releases and protective action zones
  • Raster reclassification converts forecast values into operational hazard categories
  • Slope, aspect and fuel layers combined for wildfire spread context
  • Flood-depth grids translated into road closure and building-impact indicators
  • Uncertainty boundaries displayed without implying unsupported positional precision

Participants can estimate exposed populations, assets and service dependencies.

  • Spatial overlays identify people, facilities and infrastructure within hazard footprints
  • Census geography matched carefully to incident boundaries and reporting periods
  • Vulnerability indicators selected for age, disability, income and mobility constraints
  • Critical infrastructure dependencies mapped across power, water, transport and communications
  • Exposure estimates documented with assumptions, source dates and aggregation methods
  • Sensitive population data minimised through aggregation and controlled access

Participants can produce consistent, readable maps for operational decision-making.

  • Map templates standardise titles, legends, north arrows, scale bars and disclaimers
  • Operational symbology differentiates confirmed hazards, planned actions and reported incidents
  • Label placement prioritises evacuation routes, shelters, hospitals and command locations
  • Inset maps provide regional context without obscuring local operational detail
  • Print, PDF and mobile formats tested for legibility under field conditions
  • Map marginalia records producer, issue time, data currency and approval status

Participants can analyse routes and service access under disrupted network conditions.

  • Network datasets prepared with road restrictions, closures, turn rules and travel speeds
  • Shortest-path analysis compares responder routes under changing incident conditions
  • Service-area analysis estimates reachable populations within operational travel-time thresholds
  • Location-allocation models test candidate sites for shelters and distribution points
  • Bridge, tunnel and road dependencies identified within critical response corridors
  • Route outputs validated against field reports, road authorities and safety constraints

Participants can prepare geographic information products for evacuation and shelter operations.

  • Evacuation zones defined using hazard thresholds, boundaries and protective-action guidance
  • Assembly points, pickup locations and shelters mapped with capacity attributes
  • Shelter catchments assessed against travel times, accessibility and population needs
  • Contra-flow assumptions documented before modelling evacuation network capacity
  • Accessible routes identified for mobility-impaired residents and medical transport
  • Public evacuation maps separated from restricted operational routing products

Participants can map response resources and support logistics coordination decisions.

  • Resource status categories aligned with Incident Command System terminology
  • Staging areas mapped with access constraints, capacity and security requirements
  • Supply routes linked to warehouses, distribution points and affected communities
  • Mobile assets tracked through location feeds, check-ins and dispatch records
  • Fuel, water and medical supply indicators displayed by operational period
  • Logistics maps distinguish planned deployments from confirmed resource positions

Participants can specify dashboards that display verified operational indicators and trends.

  • Dashboard indicators selected from incident objectives and command decision cycles
  • Operational-period timestamps distinguish current status from historical incident records
  • Charts combine map context with counts, trends and threshold alerts
  • Data refresh schedules matched to source reliability and decision urgency
  • Role-based views separate executive summaries from operational coordination details
  • Dashboard annotations explain changes, exceptions and material data limitations

Participants can assess crowdsourced reports without treating unverified content as fact.

  • Crowdsourced reports triaged by location, timestamp, source and reported urgency
  • Geolocation methods compare landmarks, imagery, coordinates and place-name references
  • Rumour-control workflows separate verified information from unsubstantiated public claims
  • Duplicate reports clustered to prevent inflated incident counts and resource requests
  • Social-media content handled under privacy, consent and evidence-retention procedures
  • Verification matrices document corroboration, confidence, action and review responsibility

Participants can structure damage assessment data for response prioritisation and recovery reporting.

  • Rapid damage categories distinguish affected, minor, major, destroyed and inaccessible
  • Building assessment forms record occupancy, structural observations and safety restrictions
  • Sampling strategies balance assessment speed, coverage and confidence requirements
  • Damage observations aggregated by neighbourhood, administrative unit and service area
  • Recovery priorities mapped using damage, vulnerability and lifeline-service restoration factors
  • Assessment records preserved for claims, assistance and post-incident analysis

Participants can apply governance controls to emergency GIS data and public map releases.

  • Data classification identifies public, internal, restricted and personal information
  • Privacy impact considerations applied to household locations and vulnerable populations
  • Role-based access controls limit editing, viewing and export permissions
  • Public-release review checks accuracy, safety, privacy and operational sensitivity
  • Audit logs preserve decisions behind edits, approvals and data publication
  • Retention schedules distinguish operational records, evidence and disposable working files

Participants can maintain GIS services through staff changes, outages and operational transitions.

  • GIS continuity plans identify essential services, dependencies and fallback procedures
  • Shift handover briefs record open requests, data issues and pending approvals
  • Offline map packages prepared for power loss and network disruption
  • Cloud and local storage arrangements tested against access and backup requirements
  • Demobilisation checklists transfer datasets, documentation and unresolved analytical questions
  • After-action review evidence links GIS products to decisions and outcomes

Participants can coordinate GIS contributions across agencies with different systems and mandates.

  • Partner capability maps identify data custodians, analysts and technical contact points
  • Information-sharing protocols define requests, validation, release and escalation routes
  • Cross-agency layer catalogues reconcile names, schemas and update responsibilities
  • Briefing formats communicate geographic findings without unnecessary technical detail
  • Joint map reviews resolve conflicting boundaries, figures and hazard interpretations
  • Mutual-aid arrangements specify staff access, equipment and data transfer procedures

Participants can prepare a practical readiness plan for emergency GIS activation.

  • Activation checklists sequence staffing, data intake, equipment and communications actions
  • Pre-incident map libraries prepared for hazards, assets, communities and response facilities
  • Service-level targets set for urgent maps, updates and analytical requests
  • Training matrices assign GIS tasks by role, proficiency and shift coverage
  • Readiness tests simulate data failures, conflicting reports and surge demand
  • Improvement actions prioritised by operational risk, effort and ownership

Participants can build, review and present a complete emergency GIS response package for a simulated incident.

  • Incident scenario requirements converted into a prioritised GIS action plan
  • Operational geodatabase assembled from authoritative, field and remote-sensing data sources
  • Hazard, exposure and accessibility analyses produced with documented assumptions
  • Command map series and dashboard specification prepared for operational-period briefings
  • Peer review tests accuracy, readability, governance controls and decision relevance
  • Final presentation defends product choices before a simulated command group

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

What you take back to work

  1. Emergency GIS activation checklist
  2. Incident information requirements template
  3. Operational geodatabase schema
  4. Emergency map series template
  5. Field damage assessment workflow
  6. Emergency GIS response package

Who should attend

  • Emergency Management GIS Analysts — need operational mapping products during incidents
  • Civil Protection Officers — coordinate hazard, exposure and resource information
  • Municipal GIS Professionals — support local emergency operations centres and field teams
  • Humanitarian Information Managers — produce verified situational information for response coordination
  • Utility Emergency Coordinators — map outages, field crews and critical infrastructure dependencies
  • Corporate Crisis Managers — require location-based intelligence for site and personnel decisions

Skills and tools covered

Incident GIS planningOperational cartographyRemote-sensing assessmentField data workflowsEvacuation analysisCommon operating pictures

Tools and standards

Incident Command System, ISO 19115, OGC Web Map Service, Common Alerting Protocol

How the course runs

Training methodology

The course uses short technical briefings followed by instructor demonstrations, case work and scenario-based group assignments. Participants analyse a developing emergency incident, define information requirements, prepare datasets, create map products and review decisions against operational priorities. Simulations introduce changing hazards, incomplete reports and competing requests from command functions. Peer critiques assess map readability, data quality and decision relevance. Individual application planning connects course outputs to participants’ own incident plans, data holdings, response procedures and reporting cycles.

Requirements and prerequisites

Participants should have practical experience using desktop GIS, including opening spatial datasets, editing attribute tables, applying basic symbology and creating maps. Familiarity with vector data, raster imagery, layers, projections and spreadsheet data is expected. Participants should understand the purpose of emergency response functions or have worked with operational teams that support incidents. Prior programming, advanced remote-sensing analysis, database administration and previous Incident Command System certification are not required. The course explains emergency management terminology where it affects GIS design and information products.

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 be comfortable with basic GIS tasks such as working with layers, attributes, projections and map layouts. You do not need programming experience, advanced image processing skills or prior Incident Command System certification.

Bring a laptop if attending in person, subject to the venue guidance provided before the course. If permitted by your employer, bring sample non-sensitive map templates, emergency plans or data dictionaries that you want to adapt during application planning.

It is designed for GIS analysts, emergency planners, civil protection staff, humanitarian information managers, utility coordinators and crisis-management personnel. Participants benefit most when they support response teams or maintain data used during incidents.

General GIS courses focus on software functions and standard spatial analysis. This course applies GIS and remote sensing to incident command requirements, time-critical map production, field reporting, evacuation, resource tracking, information governance and response continuity.

You will leave with reusable templates and a response package structure that can be aligned with your organisation's emergency plans, data sources and approval processes. The application planning component identifies practical actions for improving activation, map production and information exchange.

Training runs from 08:30 to 16:30, providing about 6.5 contact hours daily. The first week establishes operational data, mapping and remote-sensing workflows; the second week develops analysis, coordination, governance and the final incident response package.

Questions about this course?

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