GIS and Remote Sensing for National Planning Training Course

Duration 10 days 17 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends National and regional planners, GIS analysts and technicians 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-106

Before you join: Participants should be comfortable using desktop software, managing files and working with spreadsheets or tabular 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

National planning agencies, ministries, utilities and development programmes require defensible spatial evidence when allocating land, prioritising infrastructure, monitoring environmental change and targeting public services. GIS and remote sensing make it possible to combine satellite imagery, administrative records, field observations and demographic data into planning products that can be tested, mapped and explained to decision-makers. The challenge is not simply producing maps; it is establishing reliable data, selecting appropriate analytical methods and communicating uncertainty and limitations clearly.

This course develops the applied GIS and remote sensing capability needed for national and subnational planning work. Participants create geodatabases, prepare vector and raster data, apply coordinate reference systems, classify satellite imagery, calculate vegetation and land-cover indicators, conduct suitability analysis, model accessibility and assess spatial change. The programme also addresses spatial data quality, metadata, map design, cloud-based image processing and reproducible analytical workflows. Cases reflect land-use planning, transport corridors, urban growth, disaster risk, agricultural monitoring, water resources and public-service coverage.

Teaching combines concise technical briefings, instructor demonstrations, guided software work, planning cases and peer review of analytical outputs. Participants build work products from the first week, progressively adding datasets, analysis methods and presentation standards. They leave with a planning GIS project containing a documented geodatabase, analysis workflow, map series, suitability model and decision briefing suitable for adaptation within their own institution.

The course is suited to planners, GIS specialists, environmental officers, infrastructure analysts, monitoring staff and technical managers who need to produce or commission spatial analysis for public policy and investment decisions.

What you will be able to do

  • Design a planning geodatabase using feature classes, domains, metadata and topology rules
  • Prepare vector, raster and tabular datasets for spatial analysis using documented workflows
  • Apply coordinate reference systems, georeferencing methods and positional accuracy checks
  • Interpret multispectral imagery using spectral signatures, indices and classification methods
  • Build weighted-overlay suitability models for land allocation and infrastructure planning
  • Conduct accessibility, proximity and spatial change analysis for planning decisions
  • Produce decision-ready maps and technical briefs using cartographic and uncertainty standards
  • Present a complete GIS and remote sensing planning analysis with documented assumptions

Benefits of attending

For you

  • Produce planning maps supported by traceable spatial data and analytical assumptions
  • Assess satellite imagery for land cover, vegetation condition and settlement expansion
  • Build suitability and accessibility models for real planning proposals
  • Explain spatial uncertainty and data limitations to technical and non-technical stakeholders
  • Create a portfolio-quality GIS planning project for professional progression

For your organisation

  • Improve evidence quality for land allocation, infrastructure and service-delivery decisions
  • Reduce duplicated mapping effort through structured geodatabases and metadata practices
  • Identify development constraints, environmental risks and underserved populations spatially
  • Strengthen monitoring of urban growth, land-cover change and programme footprints
  • Create repeatable analytical workflows that support audit, review and institutional continuity

Course modules

17 modules over 10 days

Participants can frame a planning question as a spatial evidence problem with defined decisions, users and indicators.

  • Planning decisions translated into spatial questions, indicators and geographic units
  • National spatial data infrastructures and institutional data stewardship responsibilities
  • Policy objectives linked to measurable land, population and service indicators
  • Scale, extent and resolution choices for national planning analyses
  • Decision chains connecting spatial evidence, options, approvals and implementation
  • Ethical handling of sensitive population, land-rights and infrastructure data

Participants can design a structured geodatabase for a multi-source planning analysis.

  • Vector, raster and tabular models matched to planning information needs
  • Feature classes, attribute tables and relationship classes for planning datasets
  • Geodatabase schema design using domains, subtypes and unique identifiers
  • Administrative boundaries, gazetteers and settlement hierarchies as reference layers
  • File geodatabases, GeoPackages and enterprise geodatabase use cases
  • Naming conventions and folder structures supporting reproducible GIS projects

Participants can align datasets accurately using appropriate coordinate reference systems and transformations.

  • Geographic and projected coordinate reference systems distinguished through map purpose
  • Datum transformations selected for national datasets from different sources
  • Universal Transverse Mercator zones and national grid system selection
  • On-screen coordinate checks for detecting projection and alignment errors
  • Georeferencing scanned plans using ground control points and residuals
  • Positional accuracy documented before combining layers for planning analysis

Participants can acquire, clean and assess spatial datasets before analysis.

  • Open data portals assessed for licence, currency, completeness and authority
  • Field, census and administrative records joined through consistent identifiers
  • Attribute cleaning rules for missing values, duplicates and invalid codes
  • Topology rules detect gaps, overlaps, dangles and boundary inconsistencies
  • Data quality dimensions assessed through accuracy, completeness, timeliness and lineage
  • ISO 19115 metadata elements recorded for planning datasets and map products

Participants can use vector geoprocessing to quantify spatial relationships and planning constraints.

  • Buffer zones applied to roads, rivers, protected areas and facilities
  • Overlay operations compare proposed development with regulatory constraint layers
  • Intersect, union and erase tools create policy-relevant planning zones
  • Spatial joins summarise population and assets within administrative areas
  • Dissolve and aggregation methods prepare reporting units for decision-makers
  • Query expressions isolate parcels, settlements and facilities meeting criteria

Participants can prepare and analyse raster datasets for terrain and land-surface planning evidence.

  • Raster cell size selected according to planning scale and source resolution
  • Digital elevation models derive slope, aspect and terrain ruggedness
  • Reclassification converts continuous surfaces into policy-relevant suitability classes
  • Raster calculator combines standardised criteria using explicit mathematical expressions
  • Hydrological tools delineate catchments, flow direction and drainage accumulation
  • NoData values managed to prevent misleading surface-analysis results

Participants can interpret sensor characteristics and select imagery suited to planning objectives.

  • Electromagnetic spectrum regions linked to vegetation, water and built surfaces
  • Spectral signatures explain reflectance differences among common land-cover materials
  • Spatial, spectral, temporal and radiometric resolution compared for imagery selection
  • Landsat and Sentinel missions matched to monitoring and planning requirements
  • Passive and active sensors distinguished through acquisition and interpretation principles
  • Cloud cover, seasonality and acquisition dates assessed before image selection

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

  • Image bands stacked, clipped and resampled for defined study areas
  • True-colour and false-colour composites selected for target feature identification
  • Atmospheric correction concepts considered when comparing multi-date imagery
  • Cloud, shadow and haze masks applied before image classification
  • Image mosaics balanced across scenes using consistent processing parameters
  • Raster statistics and histograms inspected for data-quality anomalies

Participants can produce and evaluate a land-cover classification for planning use.

  • Land-cover classification scheme defined from planning questions and available imagery
  • Training samples selected using representative spectral and geographic variation
  • Supervised classification methods compare maximum likelihood and random forest approaches
  • Unsupervised clustering interpreted and labelled using reference data
  • Confusion matrices calculate producer, user and overall classification accuracy
  • Ground truth, visual interpretation and reference datasets validate classified outputs

Participants can calculate and interpret spectral indices for environmental and settlement planning evidence.

  • Normalized Difference Vegetation Index identifies relative vegetation condition and change
  • Normalized Difference Water Index highlights surface water and moisture patterns
  • Normalized Difference Built-up Index supports settlement expansion assessment
  • Index thresholds tested against imagery, field knowledge and seasonal conditions
  • Time-series charts compare seasonal variability with persistent land-surface changes
  • Indicator limitations documented where mixed pixels distort interpretation

Participants can build a transparent multi-criteria suitability model for a planning decision.

  • Planning objectives converted into constraint, factor and preference criteria
  • Boolean exclusion masks remove legally unsuitable or hazardous locations
  • Standardisation scales convert diverse criteria into comparable suitability scores
  • Analytic Hierarchy Process weights derived from pairwise criterion comparisons
  • Weighted overlay combines terrain, access, population and environmental factors
  • Sensitivity analysis tests how changed weights affect priority locations

Participants can assess access to facilities and identify underserved populations spatially.

  • Network datasets model roads, travel restrictions, speeds and connectivity
  • Service areas estimate populations within defined travel-time thresholds
  • Origin-destination cost matrices compare settlements with candidate facility locations
  • Euclidean distance surfaces distinguish straight-line proximity from network access
  • Catchment analysis identifies overlapping coverage and service-access gaps
  • Accessibility findings disaggregated by administrative area and population group

Participants can identify, quantify and communicate spatial change using multi-date data.

  • Post-classification comparison quantifies transitions between land-cover categories
  • Image differencing identifies major surface changes between acquisition dates
  • Change matrices summarise gains, losses and persistent land-cover classes
  • Urban expansion measured against plans, protected land and infrastructure corridors
  • Hotspot analysis identifies statistically significant clusters of change observations
  • Monitoring indicators linked to baselines, targets and reporting cycles

Participants can produce readable maps and technical messages that support planning decisions.

  • Visual hierarchy directs attention to the planning decision and evidence
  • Classification methods compare equal interval, quantile and natural breaks
  • Colour schemes selected for accessibility, meaning and map reproduction
  • Scale bars, legends, north arrows and sources completed accurately
  • Map layouts combine analytical outputs, context layers and concise annotations
  • Uncertainty statements explain data limitations without obscuring key findings

Participants can establish governance controls for repeatable and accountable planning GIS work.

  • Data governance roles assign ownership, custodianship, access and update responsibilities
  • Metadata records capture source, method, date, limitations and usage conditions
  • Version control practices preserve analysis history and approved data releases
  • Standard operating procedures document processing steps and quality checks
  • Data-sharing agreements address confidentiality, licences and permitted uses
  • Quality assurance checklists support technical review before decision submission

Participants can select appropriate cloud and web GIS approaches for sharing planning evidence.

  • Web map design separates operational layers from public communication layers
  • Cloud processing concepts compare local workflows with Google Earth Engine
  • Tile services and feature services selected according to data-update requirements
  • Interactive dashboards combine indicators, maps and planning status information
  • User permissions protect sensitive infrastructure and population datasets
  • Publication checks verify symbology, scale behaviour and accessible map descriptions

Participants can build, review and present a complete GIS and remote sensing planning analysis for a defined national planning decision.

  • Planning brief defines decision, study area, users and success criteria
  • Geodatabase integrates authoritative boundaries, imagery, indicators and constraint layers
  • Analysis workflow combines classification, accessibility and suitability modelling methods
  • Quality review tests projections, attributes, assumptions and output consistency
  • Map series communicates evidence, priority areas, limitations and recommended actions
  • Technical presentation defends methods, findings and implementation priorities to reviewers

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

What you take back to work

  1. National planning geodatabase schema template
  2. Spatial data quality and metadata checklist
  3. Land-cover classification accuracy assessment template
  4. Multi-criteria suitability model workbook
  5. Accessibility and service-coverage analysis framework
  6. Planning GIS technical briefing template

Who should attend

  • National and regional planners — translate spatial evidence into land-use and investment proposals
  • GIS analysts and technicians — strengthen analytical methods beyond routine map production
  • Urban planners — assess growth patterns, service coverage and development suitability
  • Environmental and natural-resource officers — monitor land cover, ecosystems and environmental constraints
  • Infrastructure and transport analysts — compare corridor options, catchments and accessibility patterns
  • Monitoring and evaluation specialists — integrate location data into programme targeting and reporting

Skills and tools covered

Spatial data managementSatellite image interpretationSuitability modellingAccessibility analysisCartographic communicationPlanning GIS governance

Tools and standards

QGIS, ArcGIS Pro, Google Earth Engine, ISO 19115

How the course runs

Training methodology

The course uses short instructor briefings followed by guided software demonstrations, planning cases and structured group analysis. Participants work with vector layers, satellite imagery, demographic tables and planning constraints to produce progressively more complex outputs. Case discussions test method selection, assumptions and interpretation of results. Peer review focuses on data quality, map readability and decision relevance. Individual application planning helps participants identify datasets, stakeholders, approval steps and analytical priorities for a work-based GIS initiative.

Requirements and prerequisites

Participants should be comfortable using desktop software, managing files and working with spreadsheets or tabular datasets. Prior exposure to maps, planning data, surveying, environmental monitoring or GIS is helpful, and participants should understand basic map concepts such as scale, coordinates and attributes. The course assumes that participants can interpret charts and work with numerical measures. Programming, advanced statistics, prior image-classification experience and specialist surveying qualifications are not required. Participants with limited GIS experience should expect to spend additional time practising the software interface and file-management conventions.

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 should be comfortable with desktop software, spreadsheets and basic map concepts. Previous GIS use is helpful but advanced GIS, programming and remote sensing experience are not required.

Participants should bring a laptop capable of running the agreed GIS software and, where permitted, non-sensitive sample datasets or planning questions from their work. Software installation instructions and required data will be provided before the course.

It is designed for planners, GIS staff, environmental officers, infrastructure analysts and monitoring specialists working with national or subnational planning evidence. Technical managers who commission GIS analysis will also benefit from understanding methods, quality controls and limitations.

The course concentrates on planning decisions such as land allocation, facility coverage, infrastructure corridors, environmental constraints and change monitoring. It combines GIS analysis with satellite-image interpretation, model transparency, data governance and decision communication.

Participants can adapt the geodatabase, quality checklist, suitability model and briefing formats to current planning assignments. The capstone structure provides a method for turning a policy question into a documented spatial analysis and map-based recommendation.

The first five days establish data, GIS, raster and image-processing foundations while participants begin building planning outputs. The second five days focus on modelling, accessibility, change detection, communication, governance and the final planning analysis presentation.

Questions about this course?

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