GIS Mapping and Spatial Analysis for Monitoring and Evaluation Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Monitoring and Evaluation Officers, M&E Managers 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-ME-114

Before you join: Participants should understand basic monitoring and evaluation concepts, including indicators, baselines, targets, data collection and results frameworks.

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

Monitoring and evaluation teams often hold survey, facility, beneficiary, incident and programme data without being able to show where results are improving, where services are absent, or which populations remain underserved. GIS provides a disciplined way to connect indicators to location, administrative boundaries, population denominators, infrastructure, hazards and travel conditions. Used well, spatial analysis strengthens targeting, baseline assessment, coverage monitoring, evaluation design, humanitarian response and management reporting.

This course develops the practical GIS skills needed to turn M&E data into defensible maps, analyses and decision products. Participants work with vector and raster data, coordinate reference systems, geocoded monitoring records, population grids, service catchments, travel-time surfaces, hotspot analysis and satellite-derived indicators. They learn to design spatial indicators, assess data quality, calculate coverage and accessibility, identify geographic gaps, map risk and vulnerability, and communicate uncertainty without overstating conclusions.

Delivered over 10 instructor-led days in a classroom in 50+ cities or live online, the course combines short technical briefings with case work, group analysis, simulations and structured application planning. Participants progressively build a spatial M&E work package using realistic development and humanitarian datasets. They leave with a GIS analysis plan, indicator specifications, quality controls, map templates and a complete capstone analysis suitable for adaptation to their own programme. A certificate of completion is issued to participants who complete the course.

The course is suited to M&E professionals, programme staff, information management teams, evaluators, GIS analysts and decision-makers who need credible geographic evidence for planning, implementation, accountability and learning.

What you will be able to do

  • Design spatial indicators linked to results frameworks, geographic units and reporting periods
  • Prepare and integrate monitoring datasets, administrative boundaries, population data and contextual layers
  • Apply vector geoprocessing methods to calculate coverage, proximity, service gaps and target populations
  • Build travel-time and accessibility analyses for facilities, services and affected communities
  • Conduct hotspot and spatial autocorrelation analysis for geographically patterned monitoring indicators
  • Produce thematic maps and dashboards that communicate findings, uncertainty and operational implications
  • Apply geospatial data quality, protection and ethical review procedures to sensitive location data
  • Develop a complete GIS-supported M&E analysis plan and decision-ready capstone product

Benefits of attending

For you

  • Ability to convert M&E datasets into decision-ready geographic evidence
  • Practical capability to calculate service coverage and access gaps
  • Confidence to assess map quality, spatial bias and analytical limitations
  • Reusable methods for targeting, baseline mapping and evaluation design
  • A portfolio-ready spatial M&E capstone analysis

For your organisation

  • More precise geographic targeting of services, beneficiaries and field resources
  • Stronger evidence for programme reviews, donor reporting and management decisions
  • Earlier identification of coverage gaps, duplication and underserved communities
  • Improved protection controls for sensitive beneficiary and incident location data
  • Repeatable GIS workflows for routine monitoring and emergency analysis

Course modules

20 modules over 10 days

Participants can frame M&E questions as spatial questions with appropriate geographic units and indicators.

  • Translate results frameworks into geographic questions, units of analysis, and boundaries
  • Distinguish point, line, polygon, raster, and tabular monitoring data
  • Define spatial indicators using numerator, denominator, geography, and reporting period
  • Map theory-of-change assumptions, exposure pathways, and intended service coverage
  • Select administrative, catchment, grid, and facility reporting geographies
  • Apply disaggregation principles for sex, age, disability, and location
  • Document indicator limitations caused by modifiable areal unit effects

Participants can set up GIS projects and inspect the spatial data structures used in M&E work.

  • Coordinate reference systems: geographic coordinates, projected coordinates, datums, and transformations
  • Choose projected coordinate systems appropriate for distance and area measurement
  • Inspect vector attribute tables, field types, joins, and unique identifiers
  • Raster cell size, extent, bands, and NoData values
  • Set project folders, naming conventions, and reproducible geodatabase structures
  • Use QGIS interfaces, layers panel, processing toolbox, and map canvas
  • Check layer extent and coordinate reference system before analysis

Participants can source, assess and document spatial datasets for M&E analysis.

  • Identify authoritative boundary, population, facility, road, and hazard datasets
  • Assess data licences, update dates, lineage, scale, and positional accuracy
  • Query HDX, national portals, OpenStreetMap, and agency data catalogues
  • Prepare data request specifications for partners and government custodians
  • Record source metadata using ISO 19115 core elements
  • Compare census, WorldPop, and gridded population denominator options
  • Screen humanitarian datasets for access restrictions and sensitivity classifications

Participants can design and quality-check georeferenced field data collection processes.

  • Design KoboToolbox forms with geopoints, constraints, skip logic, and required fields
  • Configure GPS accuracy thresholds, capture methods, and enumerator guidance
  • Code location identifiers linking household records to administrative units
  • Validate coordinates against plausible ranges, boundaries, and settlement locations
  • Plan offline collection, synchronization, device security, and consent procedures
  • Apply informed consent language for collecting location and respondent data
  • Reconcile duplicate records, missing coordinates, and conflicting location names

Participants can prepare consistent, linked datasets for spatial monitoring and analysis.

  • Standardize place names using gazetteers, controlled vocabularies, and matching rules
  • Geocode facilities and events, recording match confidence and source evidence
  • Join monitoring tables to geographic layers through stable unique keys
  • Reshape indicator data between wide, long, and panel structures
  • Create data dictionaries for fields, codes, units, and missing values
  • Audit completeness, timeliness, consistency, and validity before spatial processing
  • Maintain version logs for corrected datasets and derived outputs

Participants can use vector geoprocessing to analyse service areas, population coverage and gaps.

  • Calculate areas, lengths, centroids, and proximity using projected coordinate systems
  • Build buffers around clinics, water points, roads, and protected areas
  • Clip, intersect, dissolve, and spatially join operational datasets
  • Aggregate household observations to wards, districts, and programme catchments
  • Use select-by-location queries to identify populations within service zones
  • Calculate coverage ratios with population denominators and facility capacities
  • Document processing parameters for repeatable indicator production

Participants can produce clear thematic maps for technical, management and community audiences.

  • Apply visual hierarchy, figure-ground, alignment, and contrast in thematic maps
  • Select nominal, ordinal, interval, and ratio symbology appropriately
  • Classify choropleths with quantiles, natural breaks, equal intervals, and thresholds
  • Use colourblind-safe palettes and accessible labels for decision audiences
  • Construct map layouts with titles, legends, scale bars, north arrows, sources
  • Add uncertainty notes where data quality or denominators constrain interpretation
  • Export print and web maps at appropriate resolution and format

Participants can map baseline conditions and compare indicator patterns across programme areas.

  • Map baseline distributions for access, utilization, outcomes, and vulnerability indicators
  • Calculate rates, percentages, prevalence, and incidence using defensible denominators
  • Compare indicator values across administrative units without misleading raw counts
  • Profile target areas using demographic, service, hazard, and market layers
  • Identify baseline outliers requiring data verification or contextual explanation
  • Create baseline map series aligned to results framework indicators
  • Write map annotations that distinguish observation, interpretation, and recommendation

Participants can assess who is reached, who is missed and where services overlap.

  • Define service catchments using administrative rules, travel time, and referral patterns
  • Estimate population coverage through buffers, Thiessen polygons, and raster surfaces
  • Overlay vulnerability criteria to prioritize communities for programme outreach
  • Compare planned beneficiary locations against existing service provider footprints
  • Identify geographic gaps, duplication risks, and underserved population clusters
  • Use location-allocation concepts for alternative service point placement
  • Frame targeting findings with explicit assumptions and exclusion criteria

Participants can estimate physical access to services using distance and travel-time methods.

  • Calculate Euclidean distance and explain its operational limitations
  • Build travel-time surfaces from roads, land cover, slope, and barriers
  • Parameterize walking and vehicle speeds using documented assumptions
  • Run least-cost path analysis between communities and health facilities
  • Measure facility accessibility against sector-specific service standards
  • Compare dry-season and rainy-season accessibility scenarios for contingency planning
  • Interpret friction-surface uncertainty in access estimates and decisions

Participants can test and interpret geographic clustering in monitoring and outcome data.

  • Distinguish spatial autocorrelation, clustering, dispersion, and random spatial patterns
  • Calculate Global Moran's I for area-based monitoring indicators
  • Use Local Moran's I to identify high-high and low-low clusters
  • Apply Getis-Ord Gi* hotspot analysis with defined distance bands
  • Test whether observed patterns exceed chance under spatial randomness assumptions
  • Choose spatial weights matrices based on contiguity or distance
  • Report statistical significance, multiple-testing limitations, and practical relevance

Participants can use raster data and satellite imagery to strengthen M&E evidence.

  • Interpret spectral bands, spatial resolution, temporal resolution, and cloud contamination
  • Derive NDVI and normalized difference water index from satellite imagery
  • Classify land cover with supervised methods and reference samples
  • Use change detection to monitor settlement expansion and vegetation loss
  • Assess classification accuracy using confusion matrices and validation points
  • Extract zonal statistics for administrative units and programme areas
  • Combine raster exposure layers with population grids for risk estimates

Participants can develop operational maps for risk analysis, response planning and coordination.

  • Map hazards, exposure, vulnerability, and coping capacity using risk frameworks
  • Overlay flood extent, displacement sites, health facilities, and road access
  • Produce contingency maps for evacuation routes, staging areas, and access constraints
  • Incorporate seasonal calendars into hazard and service availability analysis
  • Track incident locations while protecting affected populations and staff
  • Use Common Operational Datasets for coordinated humanitarian mapping products
  • Set update triggers for rapidly changing displacement and access information

Participants can apply spatial methods to sampling, comparison areas and evaluation interpretation.

  • Design spatial sampling frames using clusters, grids, enumeration areas, and strata
  • Assess spatial representativeness before generalizing survey findings to programme areas
  • Map treatment and comparison areas for quasi-experimental evaluation designs
  • Identify spillover, contamination, and displacement risks around intervention boundaries
  • Match before-and-after observations using consistent geographic units and identifiers
  • Use difference-in-differences maps to communicate geographically varied programme change
  • Document boundary changes that compromise longitudinal indicator comparability

Participants can specify and maintain spatial dashboards for recurring monitoring decisions.

  • Prepare analysis-ready layers for web maps, dashboards, and scheduled updates
  • Design indicator dashboards linking maps, charts, filters, and disaggregations
  • Set refresh workflows for routine monitoring data and derived indicators
  • Apply role-based access controls to sensitive operational map products
  • Specify decision questions before selecting dashboard metrics and map interactions
  • Create metadata panels showing source, update date, definitions, and caveats
  • Test dashboard outputs against user tasks and bandwidth constraints

Participants can review spatial outputs for quality, privacy, protection and ethical risks.

  • Apply positional accuracy, attribute accuracy, completeness, consistency, and currency checks
  • Assess spatial bias from uneven reporting, missing data, and access constraints
  • Minimize harm through aggregation, masking, jittering, and controlled dissemination
  • Conduct data protection impact assessments for sensitive location datasets
  • Set retention schedules, access permissions, and secure sharing protocols
  • Review maps for stigma, re-identification, political sensitivity, and protection risks
  • Use peer review checklists before publishing spatial findings

Participants can communicate geographic findings, limitations and recommendations to decision-makers.

  • Structure map-based findings around decision, evidence, uncertainty, and action
  • Write analytical captions that state pattern, comparison, and operational implication
  • Select map scales appropriate to executive, district, and field audiences
  • Build briefing packs combining locator maps, indicator maps, and recommendations
  • Present uncertainty using confidence notes, ranges, and data-quality flags
  • Distinguish correlation from causation when explaining mapped programme results
  • Record management responses and follow-up actions from spatial evidence

Participants can plan GIS workstreams that fit M&E cycles, roles and decision deadlines.

  • Define spatial analysis deliverables, users, decisions, data sources, and deadlines
  • Develop a GIS analysis plan aligned with M&E workplans
  • Sequence data preparation, analysis, quality assurance, review, and publication tasks
  • Assign roles using RACI for data custodians, analysts, and approvers
  • Estimate effort, software, data acquisition, and field verification requirements
  • Specify acceptance criteria for maps, indicators, and dashboard outputs
  • Establish change-control procedures for revised boundaries and indicator definitions

Participants can establish repeatable workflows for periodic spatial monitoring and reporting.

  • Build processing models that document inputs, parameters, outputs, and dependencies
  • Create standardized map templates for recurring monthly and quarterly reports
  • Maintain metadata records, code lists, and processing logs for audit trails
  • Version spatial datasets using dated releases and controlled editing permissions
  • Automate routine joins, calculations, and exports with GIS processing tools
  • Schedule quality checks before indicator publication and management review
  • Archive final map products with source data and methodological notes

Participants can build, review and present a complete GIS-supported M&E analysis addressing a defined programme decision.

  • Define a complete M&E spatial question, indicator specification, and decision user
  • Prepare, validate, and integrate monitoring, boundary, population, and contextual datasets
  • Apply appropriate vector, raster, accessibility, or clustering analysis methods
  • Produce decision-ready maps with metadata, uncertainty notes, and protection safeguards
  • Review findings against quality, ethics, and results-framework requirements
  • Present recommendations, limitations, and an implementation plan to stakeholders

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

What you take back to work

  1. Spatial M&E analysis plan template
  2. Geographic indicator specification sheet
  3. GIS data quality and protection checklist
  4. Thematic map layout template
  5. Service coverage and accessibility model
  6. Capstone spatial analysis briefing pack

Who should attend

  • Monitoring and Evaluation Officers — need geographic evidence for indicator tracking and reporting
  • M&E Managers — need defensible coverage, targeting and performance analyses
  • GIS Analysts — need to align technical analysis with programme results frameworks
  • Programme Managers — need location-based evidence for resource allocation and service planning
  • Humanitarian Information Management Officers — need operational maps for response coordination and access analysis
  • Evaluation Specialists — need spatial methods for sampling, comparison areas and interpretation

Skills and tools covered

Spatial indicator designGIS data managementAccessibility analysisThematic cartographySpatial statisticsGeospatial data protection

Tools and standards

QGIS, KoboToolbox, ISO 19115, Getis-Ord Gi*

How the course runs

Training methodology

The course uses short instructor briefings followed by guided analysis of development and humanitarian cases. Participants work with monitoring tables, administrative boundaries, facility locations, population data, hazards and satellite-derived layers. Group exercises examine targeting, accessibility, hotspot patterns and map interpretation. Simulations test decisions using incomplete or sensitive data. Trainers provide structured feedback on maps, indicator logic, assumptions and communication choices. Each participant develops an application plan and assembles a spatial M&E work package that can be adapted after the course.

Requirements and prerequisites

Participants should understand basic monitoring and evaluation concepts, including indicators, baselines, targets, data collection and results frameworks. Experience working with spreadsheets and structured datasets is expected, including sorting, filtering and checking records. Familiarity with programme geography, administrative boundaries or field data collection is useful. Prior GIS experience is not required, and participants do not need programming, remote sensing or advanced statistics knowledge. The course begins with GIS foundations before progressing to spatial analysis, but it moves quickly into applied work.

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

Participants need working knowledge of M&E concepts and confidence using spreadsheets. GIS, programming, remote sensing and advanced statistics experience are not required.

Participants should bring a laptop capable of running GIS software, plus any non-sensitive sample data or reporting questions they want to discuss. Software installation guidance is provided before the course.

It is designed for M&E officers, programme managers, GIS analysts, evaluation specialists and humanitarian information management staff. It is especially relevant where programmes need geographic targeting, access analysis or location-based reporting.

General GIS courses concentrate on software functions and mapping techniques. This course applies those methods specifically to results frameworks, indicators, coverage, accessibility, evaluation, data protection and management decisions.

Participants leave with reusable templates and an analysis plan that can be adapted to a current programme. Methods can support baseline mapping, service coverage reviews, targeting, response planning, evaluation and periodic reporting.

Training days run from 08:30 to 16:30, providing about 6.5 contact hours each day. The first week establishes GIS foundations and applied mapping, while the second week focuses on advanced analysis, quality controls, reporting 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.