GIS for Health Programme Management Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Health Programme Managers, Monitoring and Evaluation Specialists 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-116

Before you join: Participants should have experience working with health programme data, monitoring indicators, facility lists, surveillance records or population datasets.

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

Health programmes depend on timely decisions about where need is greatest, which facilities can deliver services, how far communities travel, and whether resources reach underserved populations. Yet programme teams often work with disconnected facility lists, incomplete reporting data, inconsistent boundaries and maps that describe problems without guiding action. GIS provides a disciplined way to connect health indicators, population data, service locations, environmental conditions and operational constraints into defensible geographic decisions.

This 10-day instructor-led course develops the practical GIS and remote-sensing methods used in health programme planning, disease surveillance, service-access analysis, monitoring and resource allocation. Participants prepare spatial health datasets, assess data quality, map facilities and target populations, model travel time, analyse coverage gaps, identify disease clusters, interpret environmental risk factors and communicate findings through decision-focused maps and briefs. The course also addresses privacy, ethical mapping, metadata, standard operating procedures and repeatable analysis workflows.

Teaching combines short technical briefings with health-sector cases, guided software work, group analysis, map critiques and application planning. Participants work with realistic datasets such as facility master lists, immunisation coverage reports, maternal health indicators, outbreak notifications, population grids and satellite imagery. They leave with a completed geographic programme analysis containing documented data sources, spatial methods, maps, findings, limitations and recommendations. The course is available in classrooms in more than 50 cities or live online, runs for 10 days from 08:30 to 16:30, and awards a certificate of completion.

The course suits public health, humanitarian, development, health-system strengthening and monitoring teams that need to turn geographic data into service-delivery decisions rather than produce maps for reporting alone.

What you will be able to do

  • Design GIS analyses for health programme planning, monitoring and service delivery decisions
  • Prepare health facility, population, surveillance and administrative datasets for spatial analysis
  • Produce decision-focused maps using appropriate classifications, symbology and cartographic standards
  • Analyse service accessibility using buffers, network service areas and cost-distance modelling
  • Apply spatial epidemiology methods for disease rates, clustering and hotspot interpretation
  • Integrate remote-sensing indicators into environmental health and disease-risk assessments
  • Establish data governance, privacy controls and repeatable GIS operating procedures
  • Present a documented geographic programme analysis with actionable recommendations

Benefits of attending

For you

  • Ability to turn routine health data into location-specific programme recommendations
  • Practical experience producing service-access and coverage-gap analyses
  • Confidence interpreting disease hotspots without overstating causal conclusions
  • Reusable methods for combining facility, population, environmental and monitoring data
  • A documented GIS portfolio piece for health programme management roles

For your organisation

  • Better targeting of facilities, outreach teams, commodities and programme investments
  • Clearer evidence on geographic inequities in access, coverage and service readiness
  • More reliable maps and analysis through documented data-quality procedures
  • Faster production of decision briefs for outbreaks, campaigns and annual planning
  • Stronger privacy and governance controls for sensitive health location data

Course modules

20 modules over 10 days

Participants can frame health programme questions as measurable spatial analysis requirements.

  • Health programme decisions framed as location, population, service and time questions
  • Spatial epidemiology concepts: rates, risks, denominators, clustering and exposure
  • Point, line, polygon and raster data matched to health decisions
  • Coordinate reference systems and map scale effects on interpretation
  • GIS project structure: layers, tables, metadata, styles and processing history
  • Problem statements translated into measurable spatial analysis requirements

Participants can organise GIS projects and produce operational maps from tabular and spatial data.

  • QGIS and ArcGIS Pro interfaces, project files and geodatabases
  • GeoPackage, shapefile and file geodatabase formats compared for programme use
  • Layer symbology, labels and scale dependencies configured for operational maps
  • Attribute tables filtered, sorted and joined using unique identifiers
  • Field types, null values and coded domains controlled consistently
  • Map layouts exported with legends, sources, dates and coordinate grids

Participants can assess health data quality and document spatial data for reliable reuse.

  • Health Management Information System extracts assessed for geographic completeness
  • Facility master lists reconciled using names, codes and coordinates
  • Completeness, timeliness, consistency and validity checks documented in data dictionaries
  • Duplicate records detected through identifier matching and spatial proximity
  • Outliers investigated using range checks, temporal trends and local knowledge
  • Data provenance recorded through source registers and transformation logs

Participants can prepare authoritative boundary and facility-location datasets for programme analysis.

  • Administrative boundaries sourced, versioned and matched to reporting hierarchies
  • Facility locations geocoded from addresses, gazetteers and field coordinates
  • Coordinate capture accuracy evaluated using satellite imagery and verification records
  • Geocoding confidence categories assigned for uncertain facility locations
  • Boundary changes reconciled through crosswalk tables and area correspondence
  • Settlement datasets linked to catchment and service delivery planning

Participants can design field data workflows for verifying health service locations and attributes.

  • Mobile data collection forms designed with required fields and constraints
  • KoboToolbox skip logic, GPS capture and offline workflows configured
  • Enumerator protocols specify consent, location precision and daily synchronization
  • Field verification samples selected using stratified and purposive approaches
  • GPS accuracy, datum settings and positional error recorded at collection
  • Incoming records reviewed through automated validation rules and exception queues

Participants can create clear maps that accurately communicate health programme findings.

  • Choropleth classification selected using quantiles, natural breaks and policy thresholds
  • Rates normalized by population denominators before geographic comparison
  • Proportional symbols, dot density and bivariate mapping matched to questions
  • Colour schemes tested for accessibility, interpretation and print reproduction
  • Map purpose, audience and decision action stated in titles
  • Cartographic generalization protects readability without concealing material patterns

Participants can estimate and map target populations for geographic programme planning.

  • WorldPop and census grids assessed for resolution, vintage and uncertainty
  • Population denominators aggregated to administrative areas and catchment zones
  • Age and sex disaggregation applied to target population estimates
  • Dasymetric mapping refines population allocation using land cover constraints
  • Small-area estimates documented with assumptions, confidence limits and source dates
  • Target populations compared against service volumes and intervention coverage

Participants can map service availability, facility readiness and referral relationships.

  • Facility readiness indicators linked to coordinates through master facility identifiers
  • Service availability mapped by commodity, staffing, equipment and operating hours
  • Catchment hypotheses defined from referral patterns, terrain and patient origin
  • Thiessen polygons contrasted with administrative and reported catchment boundaries
  • Referral networks mapped as directed flows between service levels
  • Facility gaps ranked using population need and readiness scores

Participants can assess physical access to health services using spatial accessibility methods.

  • Euclidean buffers estimated for rapid initial service access screening
  • Network service areas calculated from roads, travel speeds and barriers
  • Cost-distance surfaces built from land cover, slope and transport assumptions
  • Travel-time thresholds aligned with maternal, immunisation and emergency service standards
  • Accessibility results disaggregated by rurality, age group and season
  • Assumptions tested against journey data and local transport knowledge

Participants can identify and rank geographic priorities using transparent decision criteria.

  • Priority areas ranked through weighted overlay and transparent criteria scores
  • Multi-criteria decision analysis weights elicited from programme stakeholders
  • Coverage gaps identified by intersecting need, access and service capacity
  • Intervention sites screened against land availability, hazards and referral links
  • Scenario maps compare baseline, proposed investment and constrained resource options
  • Decision briefs pair maps with recommendations, caveats and accountable actions

Participants can map disease burden using appropriate rates, denominators and privacy controls.

  • Case definitions and reporting units standardized before spatial surveillance analysis
  • Incidence and prevalence rates calculated using aligned geographic denominators
  • Choropleth maps distinguish counts, crude rates and age-standardized rates
  • Kernel density estimation identifies concentrations of point-reported cases
  • Standardized morbidity ratios compare observed and expected disease burden
  • Privacy thresholds suppress small counts and sensitive locations

Participants can interpret spatial cluster statistics and translate results into investigation priorities.

  • Spatial autocorrelation assessed using Global Moran's I and Local Moran's I
  • Getis-Ord Gi* statistics identify statistically significant hot and cold spots
  • Cluster results interpreted alongside reporting completeness and population density
  • Multiple testing, spatial dependence and ecological fallacy addressed explicitly
  • Temporal aggregation choices tested for outbreak detection sensitivity
  • Cluster alerts translated into investigation priorities rather than causal claims

Participants can select and interpret satellite imagery for health-related environmental analysis.

  • Optical, radar and thermal imagery matched to health-relevant environmental variables
  • Spatial resolution, temporal resolution and spectral resolution compared for programme questions
  • Cloud masking, mosaicking and image compositing prepare analysis-ready scenes
  • Land cover classification supports settlement, water and vector habitat mapping
  • Normalized Difference Vegetation Index indicates vegetation conditions relevant to vectors
  • Remote-sensing uncertainty documented before operational decisions are made

Participants can combine environmental and health data to assess geographic risk patterns.

  • Rainfall estimates, temperature and elevation surfaces linked to disease risk
  • Drainage, standing water and flood exposure mapped from terrain data
  • Land surface temperature derived from thermal imagery with stated limitations
  • Seasonal time series reveal environmental conditions preceding transmission peaks
  • Environmental covariates combined with surveillance data using lagged indicators
  • Risk maps distinguish predictive signals from confirmed epidemiological evidence

Participants can map programme indicators and assess geographic performance trends over time.

  • Indicator reference sheets define numerators, denominators, geography and reporting frequency
  • DHIS2 data extracts joined to boundaries through organisational unit codes
  • Coverage, dropout and equity indicators mapped at appropriate administrative levels
  • Time-enabled layers show service trends, campaigns and outbreak progression
  • Before-after comparisons account for denominator changes and boundary revisions
  • Monitoring maps include data-quality flags and interpretation notes

Participants can assess geographic inequities and compare allocation options using equity criteria.

  • Equity stratifiers combine poverty, disability, gender, displacement and rurality data
  • Small-area deprivation indices mapped with transparent component definitions
  • Concentration curves and equity gaps interpreted alongside spatial patterns
  • Intersection analysis identifies populations facing overlapping service barriers
  • Resource allocation scenarios test equity, efficiency and feasibility trade-offs
  • Distributional impacts stated before approving geographic targeting decisions

Participants can apply privacy, access and ethical controls to health location data.

  • Data protection impact assessments identify risks from health location data
  • Role-based access controls separate identifiable records from aggregated outputs
  • Geomasking, aggregation and suppression reduce disclosure risk in published maps
  • Data-sharing agreements specify purpose, retention, access and destruction requirements
  • Ethical review considers stigma, security and consequences of geographic labels
  • Metadata records document custodians, licences, update cycles and permitted use

Participants can establish repeatable GIS workflows for programme teams and routine reporting.

  • GIS standard operating procedures define intake, validation, analysis and publication steps
  • Version control and naming conventions maintain traceable spatial project files
  • Update schedules align boundary, facility, population and monitoring datasets
  • Quality assurance checklists verify projections, joins, classifications and map elements
  • Reproducible workflows record parameters, scripts and processing dependencies
  • Service request registers prioritize products by decision deadline and user

Participants can communicate GIS findings through suitable products for programme decision-makers.

  • Decision-focused map products separate operational, strategic and public communication needs
  • Story maps combine maps, charts, narrative and source notes
  • Dashboard specifications define indicators, filters, refresh schedules and ownership
  • Uncertainty communicated through annotations, ranges and appropriate visual variables
  • Briefing notes state geographic findings, limitations, options and recommended actions
  • Stakeholder review criteria test usability, credibility and decision relevance

Participants can build, review and present a complete geographic programme analysis with recommendations.

  • Programme question scoped with decision owner, users, geography and timeline
  • Source datasets assessed, cleaned and documented in a project data register
  • Spatial analyses selected to answer access, coverage, risk or equity questions
  • Operational map series and decision brief produced with transparent assumptions
  • Peer review applies quality, ethics, interpretation and usability criteria
  • Final presentation defends recommendations, limitations and implementation priorities to reviewers

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

What you take back to work

  1. Health GIS analysis plan template
  2. Facility and boundary data-quality checklist
  3. Service accessibility modelling worksheet
  4. Geographic targeting decision matrix
  5. Health mapping privacy and ethics checklist
  6. Documented geographic programme analysis

Who should attend

  • Health Programme Managers — need geographic evidence for targeting, site selection and resource allocation
  • Monitoring and Evaluation Specialists — need to map coverage, equity gaps and programme indicators
  • Public Health Officers — need spatial methods for surveillance, outbreak response and service planning
  • GIS Analysts — need health-sector workflows, indicators and ethical mapping controls
  • Health Information System Officers — need to connect DHIS2, facility registry and boundary data
  • Humanitarian and NGO Coordinators — need location-based analysis for mobile services and emergency health operations

Skills and tools covered

Spatial health analysisHealth facility mappingAccessibility modellingDisease cluster detectionRemote sensing interpretationGIS data governance

Tools and standards

QGIS, ArcGIS Pro, KoboToolbox, DHIS2

How the course runs

Training methodology

The course uses short instructor briefings followed by guided analysis of health-sector datasets and cases. Participants work through facility mapping, access modelling, surveillance analysis, remote-sensing interpretation and monitoring applications using GIS software. Group discussions test assumptions behind travel-time models, risk maps and geographic targeting decisions. Map critiques and decision-brief reviews build communication discipline. Throughout the course, participants adapt templates and workflows to a current or plausible programme question, culminating in a reviewed geographic programme analysis.

Requirements and prerequisites

Participants should have experience working with health programme data, monitoring indicators, facility lists, surveillance records or population datasets. They should be comfortable using spreadsheets, managing files and interpreting basic percentages, rates and tables. Prior exposure to maps or GIS is helpful but not essential; the course introduces the required GIS concepts and software workflows. Programming, advanced statistics, remote-sensing expertise and previous use of QGIS or ArcGIS Pro are not required. Participants benefit most when they can relate the methods to a current health programme, geographic targeting question or reporting challenge.

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

Previous GIS experience is helpful but not required. Participants should be comfortable with spreadsheets, programme indicators and basic data interpretation; the course introduces the GIS concepts and software workflows needed for the analysis.

Participants should bring a laptop if organisational policy permits, plus any non-sensitive examples of facility lists, indicator definitions, maps or programme questions they want to discuss. Software access requirements are provided before the course, and sample datasets are used throughout.

The course is intended for health programme managers, M&E specialists, public health officers, health information staff, GIS analysts and humanitarian coordinators. It is particularly relevant for teams responsible for geographic targeting, service access, surveillance or equity monitoring.

This course uses health-sector decisions, indicators and data structures rather than generic mapping examples. It focuses on facility catchments, service access, surveillance, health equity, environmental risk, privacy and programme decision briefs.

Participants can use the templates and workflows to clean facility registers, map coverage gaps, assess travel time, prepare geographic monitoring products and support targeting decisions. The capstone structure can also be reused for internal planning or donor reporting assignments.

The first part builds practical capability in GIS setup, data preparation, facility mapping, population analysis and access modelling. The second part covers surveillance, remote sensing, equity, governance, operational workflows and communication, ending with a complete capstone analysis.

Questions about this course?

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