GIS for Research Analytics Training Course

Duration 10 days 16 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Research Analyst, Monitoring and Evaluation Specialist 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-122

Before you join: Participants should be comfortable working with spreadsheets or tabular datasets and interpreting basic charts, percentages and summary statistics.

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

Research teams increasingly need defensible spatial evidence rather than maps that only illustrate a report. Questions about service access, disease exposure, land-use change, disaster impacts, market reach, infrastructure gaps and environmental risk require analysts to combine location data with survey, administrative, satellite and field observations. The central challenge is producing findings that are geographically valid, statistically sound, reproducible and understandable to decision-makers.

This course develops the GIS research workflow from research question to analytical output. Participants prepare spatial and tabular data, define coordinate reference systems, assess data quality, design geodatabases, conduct spatial joins and overlays, measure proximity and accessibility, analyse point patterns, interpolate continuous surfaces, and test spatial relationships. They also apply remote-sensing imagery for classification and change detection, select suitable map projections, communicate uncertainty, and document methods for reproducible research.

Teaching combines concise technical briefings with guided analysis of realistic cases drawn from public health, humanitarian response, banking, urban services, agriculture and environmental monitoring. Participants work with GIS software, structured datasets, satellite imagery and research scenarios from the first week. They leave with a documented GIS research analysis package: a research design, data dictionary, analysis workflow, maps, statistical outputs, quality checks and a decision-focused presentation.

The course suits analysts who already work with data and need to add location-based methods to research, monitoring, planning or policy work. It is particularly relevant where findings must withstand internal review, donor scrutiny, regulatory questions or public-sector decision processes.

What you will be able to do

  • Formulate spatial research questions, hypotheses and measurable geographic variables
  • Prepare research-ready vector, raster, survey and administrative spatial datasets
  • Apply coordinate reference systems, geocoding and topology checks correctly
  • Conduct overlay, proximity, accessibility and spatial join analyses
  • Evaluate clustering, spatial autocorrelation and geographically weighted relationships
  • Classify satellite imagery and assess land-cover change using accuracy measures
  • Produce publication-quality thematic maps with documented uncertainty and sources
  • Present a reproducible GIS research analysis package for decision review

Benefits of attending

For you

  • Build defensible spatial evidence for research reports and policy briefs
  • Add spatial statistics and remote-sensing methods to analytical portfolios
  • Diagnose projection, geocoding and data-quality errors before publication
  • Create maps that communicate findings, limitations and uncertainty clearly
  • Present an end-to-end GIS analysis package during technical review

For your organisation

  • Improves the geographic validity of research, monitoring and planning outputs
  • Reduces avoidable errors from unsuitable projections, joins and spatial units
  • Produces documented workflows that colleagues can review and repeat
  • Strengthens targeting decisions for services, investments and field operations
  • Combines survey, administrative and imagery data into usable evidence products

Course modules

16 modules over 10 days

Participants can translate a research problem into a spatial analytical design with measurable variables and defensible methods.

  • Spatial research questions framed through population, place, scale and time
  • Conceptual models linking geographic processes, exposures, outcomes and confounders
  • Unit of analysis selected for people, facilities, parcels or areas
  • Ecological fallacy and modifiable areal unit problem assessed early
  • Hypotheses converted into spatial variables, indicators and expected relationships
  • Analysis plans specify data sources, methods, assumptions and outputs

Participants can select suitable spatial data models and assess source fitness for a research purpose.

  • Vector feature classes represent discrete points, lines and polygons
  • Raster grids represent continuous surfaces, imagery and modelled phenomena
  • Attribute tables distinguish identifiers, measures, categories and coded values
  • Primary, administrative, volunteered and commercial geographic data compared
  • Metadata reviewed for lineage, temporal coverage, resolution and restrictions
  • Data fitness assessed against research questions and decision requirements

Participants can assign, transform and verify coordinate reference systems for accurate spatial analysis.

  • Geographic and projected coordinate systems distinguished using measurement purpose
  • Datum transformations selected when combining datasets from different sources
  • Projection distortion evaluated for area, distance, direction and shape
  • Coordinate reference system assigned only after source verification
  • Georeferencing control points chosen using stable, identifiable ground features
  • Root mean square error interpreted during scanned-map georeferencing

Participants can create an analysis-ready spatial dataset with documented quality checks and corrections.

  • Tabular fields standardised using data types, domains and naming conventions
  • Geocoding addresses matched, reviewed and scored for positional confidence
  • Topology rules identify gaps, overlaps, slivers and invalid boundaries
  • Duplicate records, null values and impossible coordinates systematically resolved
  • Sampling bias, positional accuracy and temporal mismatch documented
  • Quality-control logs record edits, exclusions, assumptions and unresolved issues

Participants can structure project data and document a repeatable GIS research workflow.

  • File geodatabases organise feature classes, tables, domains and relationships
  • Unique identifiers preserve links between survey records and spatial features
  • Data dictionaries define fields, units, coding rules and valid values
  • Processing history captured through structured folders and version naming
  • ISO 19115 metadata elements recorded for reusable research datasets
  • Workflow diagrams show inputs, transformations, outputs and quality controls

Participants can inspect geographic distributions and identify patterns requiring further investigation.

  • Attribute summaries identify missingness, outliers, skewness and category imbalance
  • Choropleth classes compared using equal interval, quantile and natural breaks
  • Rate standardisation separates population exposure from raw event counts
  • Small-number suppression protects confidentiality in mapped research outputs
  • Linked maps, tables and charts support exploratory data inspection
  • Spatial patterns distinguished from artefacts of boundaries and aggregation

Participants can combine multiple geographic datasets to calculate area-based research indicators.

  • Spatial joins attach polygon, point and nearest-feature attributes
  • Intersect analysis identifies features sharing a defined geographic footprint
  • Union, erase and clip operations construct policy-relevant comparison areas
  • Areal weighting estimates values across changed administrative boundaries
  • Zonal statistics summarise raster values within reporting areas
  • Overlay results checked against source geometry and analytical assumptions

Participants can measure proximity and service accessibility using appropriate distance and network methods.

  • Euclidean buffers estimate straight-line exposure and service catchments
  • Network service areas model travel along roads and paths
  • Origin-destination cost matrices compare facilities, demand points and travel times
  • Distance decay functions represent declining interaction with increasing separation
  • Two-step floating catchment area method estimates service accessibility
  • Barrier effects incorporated for rivers, borders, hazards and restricted routes

Participants can assess spatial concentration and clustering of events, assets or observations.

  • Kernel density estimation creates smoothed intensity surfaces from point events
  • Bandwidth selection balances local detail against unstable density estimates
  • Nearest-neighbour index tests observed clustering against spatial randomness
  • Global Moran's I measures overall spatial autocorrelation in area data
  • Getis-Ord Gi* identifies statistically significant hot and cold spots
  • Hotspot results interpreted with multiple-testing and scale limitations

Participants can evaluate spatial dependence and interpret suitable spatial regression outputs.

  • Ordinary least squares establishes baseline relationships between mapped variables
  • Residual maps diagnose spatial dependence and model specification problems
  • Lagrange multiplier tests guide spatial lag or spatial error selection
  • Spatial lag models estimate neighbouring outcome influence explicitly
  • Spatial error models address autocorrelated omitted spatial processes
  • Geographically weighted regression reveals locally varying relationships cautiously

Participants can prepare satellite imagery for research analysis using appropriate spectral and spatial properties.

  • Landsat and Sentinel-2 products compared by resolution and revisit frequency
  • Spectral bands selected for vegetation, water, built-up land and burn scars
  • Digital numbers, reflectance and surface reflectance distinguished correctly
  • Cloud, shadow and haze masking prepared before image analysis
  • Image composites built using date, season and quality criteria
  • Normalized Difference Vegetation Index calculated from red and near-infrared bands

Participants can classify land cover from imagery and assess the reliability of resulting classes.

  • Training samples selected using representative, independent reference locations
  • Supervised classification distinguishes land-cover classes from spectral signatures
  • Random forest classification configured with predictors and validation samples
  • Confusion matrices report producer, user and overall accuracy
  • Kappa limitations considered alongside class-specific accuracy measures
  • Classification errors investigated through imagery, field records and reference data

Participants can quantify mapped change and relate environmental indicators to research questions.

  • Post-classification comparison measures transitions between mapped land-cover dates
  • Image differencing identifies substantial spectral change between acquisition dates
  • Change matrices report gains, losses, persistence and transition pathways
  • Seasonality controlled when comparing vegetation and water indicators
  • Ground reference evidence separates real change from classification error
  • Environmental indicators linked to exposure, livelihoods and service outcomes

Participants can design clear analytical maps and accompanying visuals for technical and executive audiences.

  • Visual hierarchy directs attention to findings, comparison areas and annotations
  • Colour schemes selected using sequential, diverging and qualitative data types
  • Classification choices explained through legends, notes and methodological captions
  • Scale bars, north arrows and coordinate grids used purposefully
  • Small multiples compare places, periods, scenarios and population groups
  • Map narratives distinguish observed patterns, inference and operational implications

Participants can identify ethical, privacy and uncertainty risks in GIS research outputs.

  • Location privacy risks assessed for households, patients and vulnerable groups
  • Spatial masking methods include aggregation, displacement and controlled access
  • Data minimisation limits collection to justified geographic attributes
  • Uncertainty communicated through confidence intervals, masks and explanatory notes
  • Sensitivity analysis tests assumptions about thresholds, weights and boundaries
  • Ethical review records consent, access controls and dissemination restrictions

Participants can build, review and present a complete GIS research analysis addressing a defined decision question.

  • Research question, conceptual model and analytical scope finalised for presentation
  • Source datasets cleaned, documented and integrated within a project geodatabase
  • Spatial methods selected to answer hypotheses and decision requirements
  • Maps, statistical outputs and imagery findings assembled into evidence products
  • Peer review tests reproducibility, validity, ethics and communication quality
  • Executive presentation states findings, limitations, recommendations and next analyses

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

What you take back to work

  1. Spatial research design template
  2. GIS data-quality checklist
  3. ISO 19115 metadata record
  4. Spatial analysis workflow diagram
  5. Thematic map design checklist
  6. Documented GIS research analysis package

Who should attend

  • Research Analyst — needs defensible geographic evidence for studies and reports
  • Monitoring and Evaluation Specialist — needs location-based indicators and service coverage analysis
  • GIS Analyst — needs stronger research design and spatial statistical methods
  • Policy Analyst — needs to interpret geographic patterns for programme decisions
  • Data Analyst — needs spatial methods for survey, operational and administrative data
  • Remote Sensing Officer — needs to connect imagery outputs with research questions

Skills and tools covered

Spatial data managementGeographic research designSpatial statistical analysisRemote sensing analysisThematic cartographyReproducible GIS workflows

Tools and standards

ArcGIS Pro, QGIS, GDAL, ISO 19115

How the course runs

Training methodology

The course uses short instructor briefings followed by guided GIS analysis, case-based interpretation and structured peer review. Participants work with research questions, survey tables, administrative boundaries, points of interest and satellite imagery. Group activities compare method choices, assumptions and map interpretations; simulations test how findings change with different spatial units or distance measures. Each participant develops an application plan for a current work problem. Instructor feedback focuses on analytical validity, data documentation, cartographic clarity and decision relevance.

Requirements and prerequisites

Participants should be comfortable working with spreadsheets or tabular datasets and interpreting basic charts, percentages and summary statistics. Prior experience with a GIS application is helpful, including opening layers, viewing attribute tables and making simple maps. Participants should understand the purpose of research questions, variables and data sources. The course does not require programming, advanced mathematics, prior remote-sensing experience or previous use of ArcGIS Pro. Those without prior GIS exposure should complete introductory GIS learning before attending.

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 working with structured data and understand basic GIS concepts such as layers, attributes and map views. The course develops intermediate research methods rather than teaching first-time users how to operate every GIS interface.

Bring a laptop if attending in person and, where permitted, a non-sensitive example of a research or operational question from your work. Training datasets and software instructions are provided; do not bring restricted personal, patient or confidential client data.

It suits analysts, researchers, monitoring specialists, GIS staff, planners and remote-sensing officers who need to produce location-based evidence. It is designed for professionals working with programme, policy, service-delivery, environmental or market research questions.

Introductory GIS courses focus mainly on software operation and basic map production. This course concentrates on research design, spatial statistics, defensible interpretation, remote-sensing analysis, data quality and reproducible analytical outputs.

Participants can apply the methods to service accessibility, geographic targeting, field coverage, environmental exposure, asset distribution, land-use change and incident patterns. The application plan and capstone structure can be adapted to a current work question.

Each day runs from 08:30 to 16:30, providing about 6.5 contact hours. The first week establishes research design, data preparation and core spatial analysis; the second week covers advanced statistics, remote sensing, communication, governance and the capstone presentation.

Questions about this course?

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