ArcGIS Mapping and Spatial Analysis Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends GIS Analysts, Urban and Regional Planners 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-066

Before you join: Participants should be comfortable working with Windows folders, spreadsheets and tabular data, including filtering records and interpreting columns, codes and dates.

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

Organisations depend on reliable location data to plan services, manage assets, assess risk, monitor land use and communicate operational priorities. Poorly structured spatial data, inconsistent coordinate systems and poorly designed maps can produce incorrect measurements, misleading analysis and weak decisions. GIS practitioners need to turn raw tabular, vector, raster and field data into defensible spatial evidence that managers and technical teams can use.

This intermediate ArcGIS Mapping and Spatial Analysis Training Course develops practical capability in ArcGIS Pro and ArcGIS Desktop workflows. Participants create geodatabases, edit and validate features, manage coordinate systems, join business data to geography, produce thematic maps and run vector and raster analysis. The course covers spatial queries, proximity analysis, overlays, suitability modelling, interpolation, terrain analysis, geocoding, network analysis, image classification and map automation through ModelBuilder.

Teaching combines focused technical briefings, instructor demonstrations, guided case work and group review of GIS outputs. Cases reflect common assignments such as municipal service coverage, environmental site screening, utility asset mapping, disaster response planning and retail catchment analysis. Participants leave with a documented spatial analysis project, including a geodatabase design, analysis workflow, quality checks, published maps and a presentation-ready decision product.

The course suits analysts and specialists who already work with geographic, operational or environmental data and need stronger ArcGIS analysis capability. It is relevant to public agencies, infrastructure operators, banks, NGOs, natural resource teams, logistics functions and corporate planning departments.

What you will be able to do

  • Create file geodatabases, feature classes and attribute domains for controlled spatial data management
  • Apply coordinate systems, transformations and topology rules to maintain positional data quality
  • Produce thematic, reference and operational maps using sound cartographic design principles
  • Execute spatial queries, buffers, overlays and proximity analyses to answer location-based questions
  • Build raster suitability models using reclassification, weighted overlay and map algebra
  • Analyse terrain, imagery and surface data using Spatial Analyst and raster processing methods
  • Automate repeatable geoprocessing workflows with ModelBuilder and documented parameters
  • Present a complete ArcGIS spatial analysis project with methods, findings and limitations

Benefits of attending

For you

  • Produce defensible maps and spatial analyses for reports, planning papers and operational decisions
  • Diagnose projection, attribute and topology errors before they affect analysis results
  • Build reusable ModelBuilder workflows for recurring mapping and screening requests
  • Translate location-based questions into documented GIS methods and measurable outputs
  • Present spatial findings clearly to technical specialists, managers and non-GIS stakeholders

For your organisation

  • More consistent spatial data structures, coordinate management and map production standards
  • Faster response to service coverage, site selection and asset prioritisation requests
  • Reduced analytical error through documented assumptions, validation checks and reproducible workflows
  • Better use of operational, environmental and demographic data in location-based decisions
  • Reusable geoprocessing models that reduce manual work across recurring GIS assignments

Course modules

20 modules over 10 days

Participants can configure an ArcGIS project and organise data for controlled GIS work.

  • ArcGIS Pro interface, panes, ribbons, catalog views and project structure
  • Projects, folders, geodatabases and toolbox connections configured for repeatable work
  • Map, scene, layout and catalog views used for distinct tasks
  • Layer properties, symbology controls and drawing order examined systematically
  • Data paths, relative paths and project packages managed securely
  • ArcMap documents and ArcGIS Pro projects compared for migration planning

Participants can design a file geodatabase that supports accurate editing and analysis.

  • Vector, raster, table, TIN and network datasets distinguished by purpose
  • Feature datasets organised around shared coordinate systems and business themes
  • File geodatabases created with feature classes, fields and aliases
  • Field types, null values and coded value domains specified carefully
  • Subtypes and default values applied to controlled asset classifications
  • Relationship classes connect inspection records, assets and reference tables

Participants can select coordinate systems and align spatial datasets accurately.

  • Geographic and projected coordinate systems distinguished through measurement consequences
  • Datum transformations selected when combining datasets from different reference systems
  • Project tool creates analysis-ready copies in the target coordinate system
  • Define Projection repairs missing coordinate system information without moving features
  • Georeferencing control points align scanned plans and historical maps
  • Residual errors assessed before saving a georeferenced raster dataset

Participants can import, inspect and document spatial data before use.

  • CSV coordinates converted into point features using XY Table To Point
  • Excel tables prepared with consistent identifiers, dates and coded fields
  • Shapefiles, CAD drawings, KML and GeoJSON imported with validation checks
  • Metadata records document source, currency, scale, lineage and usage constraints
  • Geometry Check and Repair Geometry identify invalid feature construction
  • Attribute completeness and duplicate identifiers tested through selection queries

Participants can edit geographic features while enforcing spatial integrity rules.

  • Create Features pane adds points, lines and polygons using templates
  • Snapping settings control coincident boundaries, vertices and network connections
  • Trace, reshape, split and merge tools revise existing feature geometry
  • Topology rules identify gaps, overlaps, dangles and invalid containment
  • Error Inspector reviews topology exceptions and documented correction decisions
  • Editing transactions, backups and versioned copies protect source data

Participants can prepare attributes and connect operational data to map features.

  • Attribute tables filtered, sorted and selected using SQL expressions
  • Calculate Field derives categories, ratios and standardised reporting values
  • Joins connect census, inspection and operational tables through identifiers
  • Relates preserve one-to-many links between assets and transaction records
  • Summary Statistics aggregates records by district, service area or category
  • Pivot tables and frequency counts reveal coding gaps before mapping

Participants can produce clear thematic maps matched to decision requirements.

  • Map purpose, audience and scale determine appropriate thematic map design
  • Graduated colours portray ordered rates, ratios and density measures
  • Proportional symbols communicate counts without disguising value differences
  • Classification methods compare natural breaks, quantiles, equal intervals and standard deviations
  • Labels, annotation and feature weight ranking resolve crowded map content
  • Colour ramps, visual hierarchy and contrast support readable printed maps

Participants can prepare professional map layouts and repeatable map outputs.

  • Layout elements include title, legend, scale bar, north arrow and credits
  • Dynamic text displays dates, page numbers and map-specific attribute values
  • Extent indicators and locator maps establish geographic context for readers
  • Map series generates district sheets from an index layer
  • Export settings control PDF, PNG and SVG output quality
  • Pre-publication checks verify sources, projections, legends and sensitive information

Participants can use attribute and location queries to identify relevant features.

  • Select By Attributes applies SQL expressions to operational and geographic data
  • Select By Location identifies features intersecting, containing or touching targets
  • Definition queries restrict displayed records without altering source datasets
  • Spatial relationships distinguish intersect, within, overlap, crosses and nearest
  • Selection sets exported as controlled subsets for downstream analysis
  • Query assumptions documented with data dates, units and geographic boundaries

Participants can measure proximity and assess geographic coverage using vector methods.

  • Buffer analysis creates fixed, variable and multiple-ring distance zones
  • Dissolve options prevent overlapping buffer polygons from double-counting coverage
  • Near and Generate Near Table calculate nearest-feature distances
  • Spatial Join summarises facilities, incidents or households within areas
  • Thiessen polygons estimate nearest-site service territories from point locations
  • Coverage results checked against barriers, population distribution and access assumptions

Participants can combine spatial criteria to identify areas meeting defined conditions.

  • Clip extracts study-area features while preserving relevant attribute fields
  • Intersect creates combined features from overlapping polygon, line and point layers
  • Union retains all polygon areas and records source membership
  • Erase removes constrained land from candidate development areas
  • Identity transfers target attributes to input features during overlay
  • Overlay outputs reviewed for sliver polygons and area calculation errors

Participants can convert address records into validated geographic point datasets.

  • Address locators and geocoding services match records to reference streets
  • Street, locality and postal fields standardised before batch geocoding
  • Match scores and status codes identify records requiring manual review
  • Interactive rematch procedures correct ambiguous and unmatched address candidates
  • Geocoded points aggregated by district, catchment or administrative boundary
  • Privacy controls suppress precise locations for sensitive client records

Participants can prepare and interpret raster datasets for spatial analysis.

  • Raster cells, bands, resolution, extent and bit depth interpreted correctly
  • Cell size and resampling methods affect analytical precision and output appearance
  • Mosaic To New Raster combines adjacent imagery tiles consistently
  • Extract By Mask limits raster processing to an approved study area
  • Stretch methods and band combinations improve image feature interpretation
  • Raster attribute tables support analysis of categorical land-cover data

Participants can build transparent raster models for multi-criteria site assessment.

  • Reclassify converts continuous values into defined suitability score ranges
  • Euclidean Distance creates distance surfaces from facilities, hazards or roads
  • Raster Calculator combines criteria using explicit map algebra expressions
  • Weighted Overlay applies documented criteria weights and common evaluation scales
  • Boolean operators exclude restricted areas from final candidate locations
  • Sensitivity testing compares outcomes under alternative weighting assumptions

Participants can derive terrain and drainage information from elevation data.

  • Digital elevation models examined for resolution, voids and vertical units
  • Slope and Aspect derive terrain steepness and directional exposure
  • Hillshade supports terrain interpretation without replacing quantitative analysis
  • Contour creates elevation lines at specified intervals and smoothing settings
  • Fill, Flow Direction and Flow Accumulation model drainage pathways
  • Watershed delineation identifies upstream catchments from selected pour points

Participants can classify imagery and assess mapped land-cover change.

  • Training samples represent spectral classes with sufficient geographic variation
  • Supervised classification assigns pixels using defined land-cover signatures
  • Maximum Likelihood classification assessed against independent validation samples
  • Confusion matrices report producer accuracy, user accuracy and overall accuracy
  • Post-classification comparison identifies changes between two classified dates
  • Classification outputs cleaned using majority filters and boundary review

Participants can analyse routes, service areas and facility locations using network datasets.

  • Network datasets represent streets, turn restrictions, speeds and travel costs
  • Route analysis calculates shortest paths using distance or travel time
  • Service Area polygons estimate reachable demand within specified travel thresholds
  • Closest Facility analysis assigns incidents to suitable response locations
  • Location-Allocation models test facility sites against weighted demand points
  • Network results validated against road closures, schedules and local knowledge

Participants can build reusable ModelBuilder workflows for repeatable GIS processes.

  • ModelBuilder links inputs, tools and outputs into visible processing chains
  • Variables, parameters and iterators support reusable batch geoprocessing models
  • Preconditions control tool execution order and prevent invalid intermediate outputs
  • Inline variable substitution creates systematic names for model outputs
  • Model documentation records purpose, inputs, assumptions and output locations
  • Package tools share validated workflows with colleagues and project teams

Participants can review spatial analysis quality and communicate limitations clearly.

  • Analysis plans define questions, units, extent, criteria and decision thresholds
  • Data quality dimensions assess positional accuracy, completeness, consistency and currency
  • Scale mismatch and modifiable areal unit problems identified before interpretation
  • Peer review checks tool settings, assumptions, formulas and output plausibility
  • Methods statements document sources, transformations, exclusions and analytical limitations
  • Decision maps distinguish evidence, uncertainty and recommendations for management audiences

Participants can build, review and present a complete ArcGIS spatial analysis project addressing a defined operational decision.

  • Project brief translated into spatial questions, outputs and acceptance criteria
  • Geodatabase structure prepared for supplied operational and reference datasets
  • Coordinate systems, attributes and geometry validated before analytical processing
  • Vector and raster methods selected against documented decision rules
  • ModelBuilder workflow records repeatable processing steps and output dependencies
  • Maps, findings, limitations and recommendations presented for peer technical review

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

What you take back to work

  1. File geodatabase design template
  2. Spatial analysis planning checklist
  3. Cartographic quality assurance checklist
  4. Multi-criteria suitability model
  5. ModelBuilder geoprocessing workflow
  6. Capstone spatial decision report

Who should attend

  • GIS Analysts — need repeatable ArcGIS workflows for mapping and spatial decision support
  • Urban and Regional Planners — assess development patterns, service access and land-use options
  • Environmental Officers — analyse sites, habitats, hazards and environmental monitoring data
  • Asset and Utility Managers — map networks, inspect coverage and prioritise maintenance locations
  • Data Analysts — add geographic analysis and map communication to operational datasets
  • Programme and Monitoring Officers — map interventions, beneficiaries and geographic performance patterns

Skills and tools covered

Geodatabase designCartographic productionSpatial queryingRaster analysisSuitability modellingModelBuilder automation

Tools and standards

ArcGIS Pro, ArcMap, Spatial Analyst, ModelBuilder

How the course runs

Training methodology

The course uses short instructor briefings followed by ArcGIS demonstrations and structured case work. Participants build data, maps and analysis outputs throughout the programme, receiving feedback on assumptions, data quality and cartographic choices. Group exercises examine realistic questions such as selecting service locations, screening environmental constraints and assessing network access. Simulations require participants to interpret an operational request and define an appropriate GIS workflow. Each participant prepares an application plan for a current workplace mapping or analysis requirement.

Requirements and prerequisites

Participants should be comfortable working with Windows folders, spreadsheets and tabular data, including filtering records and interpreting columns, codes and dates. Prior exposure to ArcGIS, QGIS or another GIS application is useful and participants should understand basic map concepts such as layers, scale and coordinates. This is not a beginner computer course. Programming, database administration, advanced statistics, surveying qualifications and remote sensing expertise are not required. Participants do not need prior experience with Python, SQL or ModelBuilder.

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 understand basic map layers, attribute tables and common file formats. Previous use of ArcGIS or QGIS is useful, but advanced analysis, programming and remote sensing experience are not required.

Participants may bring examples of non-sensitive workplace data, maps or analysis questions for discussion. Training computers and required ArcGIS software are provided for classroom delivery; live online participants receive access instructions before the course.

The course is designed for practitioners who already work with geographic, asset, environmental, planning or operational data. It is particularly useful for analysts who need to produce maps and conduct spatial analysis rather than only view GIS data.

Basic GIS courses focus on concepts, simple map creation and data viewing. This course assumes that foundation and concentrates on geodatabases, quality control, vector analysis, raster modelling, automation and decision-ready outputs.

Participants can apply the methods to service coverage studies, site screening, asset mapping, environmental assessment, incident analysis and location planning. The reusable checklists and ModelBuilder workflow support consistent delivery of recurring assignments.

Each training day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first half builds core data, mapping and vector analysis capability; the second half develops raster, network, automation and capstone project skills.

Questions about this course?

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