Land Use and Water Planning Using GIS Training Course

Duration 10 days 19 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Land Use Planner, Water Resources Officer 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-145

Before you join: Participants should be comfortable working with spreadsheets, maps and basic data tables, and should understand common planning terms such as parcels, catchments, land cover and water demand.

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

Land use decisions affect water availability, flood exposure, agricultural productivity, settlement growth and ecosystem condition. Planning teams often hold parcel records, satellite imagery, soil surveys, water-point inventories and hydrological data in separate formats, with inconsistent boundaries and uncertain quality. GIS provides a disciplined way to combine these sources, test competing land and water options, and present defensible recommendations to planning authorities, utilities, communities and project funders.

This course develops the practical GIS and remote-sensing methods used for land use and water planning. Participants prepare spatial data, manage coordinate reference systems, interpret satellite imagery, classify land cover, delineate watersheds, analyse terrain and drainage, assess water demand, map flood and erosion risk, and conduct multi-criteria land suitability analysis. The course also addresses land-use change detection, environmental constraints, ecosystem services, planning scenarios and map-based reporting.

Instructor-led sessions combine concise technical briefings with worked cases from municipal planning, catchment management, irrigation, agricultural development and infrastructure projects. Participants build a planning analysis from the first week, using supplied datasets and then adapting methods to their own operating context. They leave with a complete GIS-based land use and water planning package: documented datasets, analysis models, suitability and risk maps, planning scenarios, and a decision-ready presentation.

The course suits professionals who already work with maps, spatial records, environmental data or planning studies and need to produce credible spatial evidence for land and water decisions. It is particularly relevant where development pressure, seasonal water scarcity, watershed degradation, flood risk or competing land claims require transparent technical analysis.

What you will be able to do

  • Prepare GIS datasets using defined schemas, metadata, quality checks and coordinate systems
  • Interpret satellite imagery for land cover, vegetation condition and surface-water analysis
  • Delineate watersheds and drainage networks from digital elevation model data
  • Build land suitability models using weighted overlay and constraint mapping
  • Assess water availability, demand and allocation pressures using spatial indicators
  • Map flood, erosion and land degradation risk using terrain, land cover and hydrological data
  • Compare land use and water management scenarios through GIS-based decision criteria
  • Present a documented land use and water planning recommendation with maps and evidence

Benefits of attending

For you

  • Produce land suitability maps with transparent criteria and documented weighting
  • Assess watershed conditions from elevation, drainage and land cover data
  • Interpret satellite imagery for planning evidence without relying solely on field surveys
  • Build defensible flood, erosion and water-access risk maps
  • Present spatial recommendations clearly to technical and non-technical decision makers

For your organisation

  • Improves consistency of land and water planning evidence across projects
  • Reduces unsuitable site selection through mapped constraints and suitability criteria
  • Supports more targeted watershed restoration, irrigation and conservation investments
  • Creates documented spatial workflows that can be reviewed and updated internally
  • Strengthens planning submissions with traceable maps, assumptions and decision criteria

Course modules

19 modules over 10 days

Participants can frame a GIS assignment around a defined land and water planning decision.

  • Planning questions translated into spatial decisions, criteria, scales and stakeholders
  • Land administration, watershed governance and permitting responsibilities mapped
  • GIS project charter defining objectives, users, outputs and acceptance criteria
  • Study-area boundaries aligned with catchments, jurisdictions and planning units
  • Decision scales distinguished from source-data resolution and positional accuracy
  • Ethical handling of community boundaries, sensitive sites and personal data

Participants can select and assess spatial datasets for a stated planning purpose.

  • Vector, raster and tabular datasets matched to planning questions
  • Authoritative cadastral, hydrological, soil and administrative data sources assessed
  • Satellite imagery selected by spectral bands, revisit frequency and resolution
  • Data fitness evaluated through lineage, completeness, currency and positional accuracy
  • Field observations structured for later joining with mapped features
  • Licensing, access restrictions and data-sharing agreements recorded before analysis

Participants can organise planning data in a documented and usable geodatabase.

  • Geodatabase schema designed for parcels, land cover, water assets and risks
  • Feature classes and attribute domains standardised for consistent data entry
  • Unique identifiers maintained across survey records, permits and spatial features
  • Relational joins connect water-point inventories with mapped locations
  • Metadata records source, date, scale, limitations and responsible custodian
  • Version control procedures protect approved planning layers from unintended changes

Participants can prepare spatial layers with appropriate projection and alignment controls.

  • Geographic and projected coordinate reference systems compared for planning measurements
  • Projection selection considers area, distance, direction and local mapping standards
  • On-the-fly display distinguished from permanent dataset reprojection procedures
  • Topology rules identify gaps, overlaps, slivers and invalid parcel boundaries
  • Georeferencing aligns scanned plans and historical maps with control points
  • Spatial joins and overlays checked for boundary mismatch and scale effects

Participants can interpret optical imagery for land, vegetation and surface-water conditions.

  • Electromagnetic spectrum concepts linked to vegetation, soil and water signatures
  • Multispectral bands selected for land cover and water-condition interpretation
  • True-colour, false-colour and band-composite imagery compared for feature visibility
  • Cloud, haze and shadow effects identified before image interpretation
  • Normalized Difference Vegetation Index calculated for vegetation condition screening
  • Normalized Difference Water Index applied to surface-water feature extraction

Participants can prepare imagery and classify land cover using documented methods.

  • Image mosaics clipped to study boundaries and planning zones
  • Radiometric corrections considered when comparing imagery from different acquisition dates
  • Training samples selected across representative land-cover categories and spectral variation
  • Supervised classification separates built-up land, cropland, forest and water
  • Confusion matrices calculate overall accuracy, producer accuracy and user accuracy
  • Classification errors reviewed against reference imagery and field observations

Participants can produce land cover maps and quantify changes relevant to planning.

  • Land-cover legend designed around planning decisions and available image resolution
  • Post-classification comparison quantifies conversion between mapped land-cover classes
  • Change matrices identify agricultural expansion, urban growth and vegetation loss
  • Time-series imagery distinguishes seasonal variation from persistent land-use change
  • Urban expansion mapped against floodplains, recharge zones and productive soils
  • Map symbology communicates land-cover change without overstating classification certainty

Participants can derive terrain and watershed layers from elevation data.

  • Digital elevation model quality assessed for resolution, voids and vertical error
  • Sink filling prepares elevation surfaces for hydrological flow modelling
  • Flow direction and flow accumulation derive drainage pathways and channels
  • Pour points positioned to delineate catchments for planning interventions
  • Slope, aspect and curvature calculated for erosion and site-screening analysis
  • Terrain profiles identify feasible corridors, storage sites and drainage constraints

Participants can map water resources, access infrastructure and hydrological constraints.

  • Surface-water features mapped from imagery, surveys and official hydrographic datasets
  • Water points classified by source type, yield, condition and service status
  • Riparian buffers generated using stated regulatory or ecological distance criteria
  • Recharge areas screened using geology, slope, soils and land cover
  • Drainage density calculated to compare runoff concentration across subcatchments
  • Water infrastructure mapped against settlements, farms and service-demand locations

Participants can construct a land suitability model for a specified land use.

  • FAO land evaluation principles relate land qualities to proposed uses
  • Suitability criteria defined for irrigation, settlement, conservation or agriculture
  • Hard constraints exclude protected areas, floodplains and legally restricted land
  • Standardised factor scores convert diverse datasets into comparable suitability scales
  • Weighted overlay combines slope, soils, access, water and land-cover criteria
  • Sensitivity testing examines how alternative weights change suitable-area results

Participants can document and defend spatial decision criteria and weighting choices.

  • Analytical Hierarchy Process compares criterion importance through pairwise judgments
  • Consistency ratios test whether pairwise comparison judgments require revision
  • Stakeholder criteria separated from technical constraints and legal exclusions
  • Trade-off maps reveal conflicts between water protection and development objectives
  • Scenario weights reflect alternative policy priorities and planning assumptions
  • Decision registers record evidence, rationale, owners and unresolved uncertainties

Participants can analyse spatial patterns of water demand, access gaps and allocation pressure.

  • Domestic, agricultural, industrial and environmental water demands spatially differentiated
  • Population and service-area data estimate demand at relevant planning scales
  • Travel-time analysis identifies communities with poor water-point access
  • Irrigation demand mapped using crop patterns, seasonality and command areas
  • Supply-demand balance compares available sources with projected local requirements
  • Allocation zones identify competing users and priority-service constraints

Participants can create risk maps that guide land controls and mitigation priorities.

  • Flood susceptibility combines elevation, slope, drainage proximity and land cover
  • Historical flood extents digitised from imagery, reports and field evidence
  • Erosion screening integrates slope length, soil erodibility, rainfall and cover
  • Land degradation indicators identify bare soil, gully formation and vegetation decline
  • Risk classes validated against known events, inspections and community observations
  • Mitigation zones prioritise retention, buffers, revegetation and development controls

Participants can incorporate groundwater vulnerability and water quality considerations into planning.

  • Aquifer, borehole and spring data organised for groundwater planning analysis
  • Groundwater vulnerability factors map contamination sensitivity near proposed development
  • Wellhead protection zones delineated from hydrogeological evidence and local requirements
  • Water quality results joined to sampling locations and catchment attributes
  • Pollution-source inventories identify sanitation, industry and agricultural pressure points
  • Monitoring networks assessed for spatial coverage, frequency and reporting gaps

Participants can map environmental values and constraints affecting land and water choices.

  • Ecosystem service indicators identify water regulation, habitat and erosion-control functions
  • Wetlands, forests and riparian areas mapped as planning-sensitive features
  • Protected-area boundaries checked against proposed land-use allocation zones
  • Ecological corridors assessed for fragmentation from roads and settlement expansion
  • Environmental constraint maps distinguish exclusion areas from conditional development areas
  • Nature-based measures located using runoff, slope, vegetation and land-tenure evidence

Participants can compare spatial planning alternatives against agreed land and water criteria.

  • Baseline land-use scenario establishes current patterns, pressures and constraints
  • Development scenarios allocate growth areas under stated population and policy assumptions
  • Water-protection scenarios test buffers, recharge zones and abstraction controls
  • Scenario comparison uses area statistics, demand indicators and risk exposure
  • Conflict hotspots identify incompatible proposed uses within shared planning zones
  • Preferred option selection records trade-offs, residual risks and implementation conditions

Participants can produce clear, quality-assured planning maps and technical evidence.

  • Map layouts apply hierarchy, scale bars, north arrows and purposeful legends
  • Colour schemes distinguish suitability, risk, land-cover and water-access information
  • Cartographic generalisation prevents misleading detail at decision-making scales
  • Quality assurance checklist verifies sources, projections, calculations and classifications
  • Methods statements document assumptions, processing steps and known data limitations
  • Planning briefs combine maps, statistics, recommendations and implementation responsibilities

Participants can define a practical operating plan for maintaining planning datasets and decisions.

  • Spatial data maintenance schedules assign updates for priority planning layers
  • Roles defined for data custodians, analysts, reviewers and decision authorities
  • Field verification plans target uncertain classifications and high-consequence locations
  • Monitoring indicators track land conversion, water access, risk and restoration
  • Interoperability requirements specify formats, naming conventions and metadata minimums
  • Implementation roadmaps sequence approvals, budgets, procurement and stakeholder communication

Participants can build, review and present a complete GIS-based land use and water planning recommendation.

  • Project brief defines a contested land use and water planning decision
  • Spatial database assembles validated land, water, terrain and stakeholder datasets
  • Suitability, risk and access analyses produce evidence for alternative scenarios
  • Preferred scenario tested against constraints, uncertainty and implementation requirements
  • Peer review checks analytical logic, map quality and recommendation traceability
  • Decision presentation communicates findings, trade-offs, actions and monitoring indicators

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

What you take back to work

  1. GIS project charter template
  2. Land and water geodatabase schema
  3. Land suitability weighted-overlay model
  4. Watershed and water-access analysis workflow
  5. Flood and erosion risk mapping checklist
  6. Land use and water planning decision package

Who should attend

  • Land Use Planner — needs defensible spatial evidence for zoning and development decisions
  • Water Resources Officer — needs catchment, demand and risk maps for allocation planning
  • GIS Analyst — needs domain methods for land and water planning assignments
  • Environmental Specialist — needs spatial analysis for impact, conservation and restoration studies
  • Agricultural Development Officer — needs suitability and water-access analysis for programme design
  • Infrastructure Planner — needs location screening against drainage, flood and land constraints

Skills and tools covered

Spatial data managementLand suitability analysisWatershed delineationRemote sensing interpretationWater resource mappingPlanning scenario analysis

Tools and standards

QGIS, ArcGIS Pro, Google Earth Engine, FAO Framework for Land Evaluation

How the course runs

Training methodology

The course uses short instructor briefings followed by guided GIS demonstrations, case-based analysis and group review. Participants work with land records, satellite imagery, elevation models, water-point data and planning constraints drawn from realistic municipal, agricultural and catchment cases. Simulations require teams to compare competing development and water-allocation options under stated criteria. Each participant develops an application plan for a current or prospective assignment, receiving structured feedback on data quality, analysis logic, maps and recommendations.

Requirements and prerequisites

Participants should be comfortable working with spreadsheets, maps and basic data tables, and should understand common planning terms such as parcels, catchments, land cover and water demand. Previous exposure to GIS software is useful, including opening layers, viewing attribute tables and making simple maps. Participants should bring a laptop if attending in person and may bring non-sensitive project data for application planning. Programming, advanced statistics, remote-sensing classification experience and prior hydrological modelling are not required.

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 able to work with basic maps, tables and common planning data. Familiarity with opening GIS layers and viewing attributes is useful, but advanced GIS, coding and hydrological modelling experience are not required.

Bring a laptop for classroom delivery and, where permitted, non-sensitive datasets or maps from a current project. The instructor provides case datasets and guidance on preparing project material safely.

The course is designed for planners, GIS analysts, water officers, environmental specialists, agricultural development staff and infrastructure planners. It is most useful for professionals who must support land or water decisions with mapped evidence.

General GIS courses focus mainly on software functions, while this course applies GIS and imagery to land allocation, watershed management, water access, environmental constraints and planning scenarios. Participants work through the decision logic behind planning recommendations, not only map production.

You can use the workflows for site screening, zoning reviews, irrigation planning, catchment restoration, water-point access studies and flood-risk controls. The templates and capstone structure can also support a current planning assignment.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes data, imagery, terrain and watershed methods; the second week develops suitability, risk, scenarios, reporting and the capstone decision package.

Questions about this course?

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