Cloud GIS and Online Mapping Training Course

Duration 10 days 18 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends GIS Analysts, GIS 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-GRS-072

Before you join: Participants should be comfortable working with vector spatial data, attribute tables and basic map layers in a desktop GIS or comparable mapping environment.

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

Cloud GIS allows teams to publish, analyse and maintain geographic information without distributing desktop project files or static map exports. The opportunity is faster access to trusted operational maps, dashboards and field data; the risk is publishing inaccurate, poorly governed or insecure information. GIS teams must combine sound spatial data practices with web cartography, cloud service design, permissions management and audience-focused application design.

This course develops the practical skills required to plan, publish and manage online mapping products. Participants work with cloud-hosted feature layers, web maps, tiles, imagery, forms, dashboards and configurable web applications. They apply coordinate reference system controls, data validation, metadata, symbology, scale-dependent display, spatial analysis and web performance techniques. The course also addresses user roles, sharing groups, data classification, service monitoring, OGC web standards and lifecycle management.

Instructor-led sessions combine concise technical briefings with guided case work based on public services, infrastructure, humanitarian operations, environmental monitoring and commercial asset management. Participants progressively assemble a cloud GIS product from source data through publication, analysis and presentation. They leave with a reusable online mapping delivery pack containing a data model, publication plan, web map specification, application design and governance checklist.

The course suits GIS professionals who already create maps or manage spatial data and now need to deliver dependable browser-based mapping services. It is also relevant to analysts, data managers and programme teams responsible for location-based reporting, field operations or public-facing map products.

What you will be able to do

  • Assess cloud GIS architectures, service types and deployment choices for operational mapping requirements
  • Prepare spatial datasets using coordinate reference systems, validation rules and metadata standards
  • Publish hosted feature layers, tile layers and imagery services with appropriate settings
  • Design web maps using scale ranges, symbology, pop-ups and accessible cartographic conventions
  • Configure dashboards and web applications for defined users, decisions and operational workflows
  • Apply spatial analysis tools to answer proximity, suitability, aggregation and change-detection questions
  • Implement sharing, permissions, data classification and lifecycle controls for online GIS content
  • Produce and present a governed cloud GIS application delivery plan and working prototype

Benefits of attending

For you

  • Build credible cloud GIS portfolios beyond static desktop map production
  • Specify web mapping products clearly to technical teams and suppliers
  • Publish operational maps with controlled access, metadata and update procedures
  • Translate spatial analysis results into dashboards and decision-focused applications
  • Prepare for GIS roles involving online services, field systems and geospatial governance

For your organisation

  • Shorten distribution time for approved maps, assets and operational indicators
  • Reduce duplicate files through managed hosted layers and shared authoritative datasets
  • Improve decisions with current location-based dashboards and targeted web applications
  • Lower publication risk through permissions, metadata, classification and review controls
  • Establish repeatable standards for cloud GIS projects, updates and service ownership

Course modules

18 modules over 10 days

Participants can select suitable cloud GIS service patterns for stated mapping needs.

  • Cloud GIS architecture: clients, services, storage, identity and administration
  • SaaS, PaaS and self-managed deployment models for geospatial services
  • Hosted feature layers compared with referenced enterprise data services
  • Web maps, applications, dashboards and APIs within an online GIS stack
  • Service selection based on audience, update frequency, sensitivity and scale
  • Architecture decisions documented through requirements, constraints and acceptance criteria

Participants can prepare spatial datasets that are suitable for reliable web publication.

  • Coordinate reference systems, datum transformations and web mapping projection choices
  • Geometry validation identifies nulls, duplicates, self-intersections and invalid rings
  • Attribute schema design uses domains, aliases, identifiers and coded values
  • Data normalisation separates repeated attributes into maintainable related tables
  • Source lineage records origin, processing steps, currency and responsible owner
  • ISO 19115 metadata elements applied to published spatial datasets

Participants can choose spatial formats and storage approaches for cloud GIS workflows.

  • GeoPackage, GeoJSON, GeoParquet and shapefile limitations for web workflows
  • PostGIS tables support multiuser editing, indexing and spatial SQL queries
  • Raster pyramids, compression and overviews improve imagery delivery performance
  • OGC API Features enables standards-based access to vector data
  • WMS, WMTS and WFS service capabilities compared for client use
  • ETL mapping reconciles field names, types, codes and spatial references

Participants can publish and configure online spatial services for intended users.

  • Hosted feature layer publication sets fields, editing and query capabilities
  • Tile layers accelerate display of stable, high-volume cartographic content
  • Vector tiles separate map styling from source feature geometry
  • Service item pages document purpose, owner, tags, credits and limitations
  • Editing settings control adds, updates, deletes, attachments and editor tracking
  • Generalisation and scale thresholds reduce service payload and visual clutter

Participants can design readable web maps for defined operational and public audiences.

  • Visual hierarchy uses contrast, size, order and opacity intentionally
  • ColourBrewer schemes support sequential, diverging and categorical thematic mapping
  • Scale-dependent rendering prevents inappropriate detail at small map scales
  • Classification methods compare natural breaks, quantiles, equal intervals and standard deviation
  • Symbol design distinguishes status, priority, uncertainty and asset categories
  • Accessible palettes account for colour vision deficiency and contrast requirements

Participants can configure useful web maps with meaningful feature interaction.

  • Web map layer order communicates context, priority and operational relevance
  • Pop-up design presents concise attributes, calculated values and related records
  • Field formatting standardises dates, units, currencies and coded labels
  • Search sources target addresses, assets, parcels and named locations
  • Bookmarks provide repeatable views for areas, incidents and management zones
  • Filters and definition queries create focused views from shared source layers

Participants can configure spatial analyses that support defined operational decisions.

  • Buffer analysis identifies assets, populations or facilities within specified distances
  • Spatial joins aggregate incidents, beneficiaries or inspections by administrative area
  • Overlay methods compare land use, hazards, infrastructure and protected zones
  • Suitability models combine weighted criteria using transparent scoring assumptions
  • Hotspot analysis identifies statistically significant clusters using Getis-Ord Gi*
  • Analysis outputs document parameters, source dates, uncertainty and interpretation limits

Participants can configure dashboards that connect spatial conditions to operational indicators.

  • Dashboard requirements define decisions, users, refresh intervals and alert thresholds
  • Indicators display counts, rates, targets, variance and current status
  • Serial charts reveal trends, seasonality and reporting-period comparisons
  • Selectors filter linked maps, charts and tables through common fields
  • Spatial extent actions coordinate map views with indicator and chart selections
  • Data refresh design distinguishes live feeds, scheduled updates and manual publication

Participants can specify web applications that guide users toward intended tasks.

  • User stories define audience tasks, decisions, constraints and success measures
  • Application patterns compare public information, operations, reporting and field coordination
  • Landing pages explain purpose, data currency, contacts and appropriate use
  • Mobile-first layout prioritises essential actions, controls and map content
  • Form logic uses conditional visibility, defaults, required fields and validation
  • Usability testing records task completion, errors, confusion points and improvements

Participants can design field data workflows that update cloud GIS records reliably.

  • Field forms capture location, observations, photographs, status and timestamps
  • Offline areas package basemaps and layers for disconnected mobile work
  • Global IDs maintain relationships between features, attachments and inspection records
  • Contingent values constrain valid attribute combinations during data capture
  • Sync workflows reconcile field edits, office review and authoritative updates
  • Quality assurance rules flag missing values, impossible dates and location errors

Participants can publish imagery products with suitable performance and interpretation controls.

  • Image services publish orthomosaics, elevation models and multiband raster collections
  • Raster functions calculate NDVI, band combinations, hillshade and classified outputs
  • Mosaic rules control image ordering by date, quality and viewing geometry
  • Time-enabled imagery supports change inspection across repeated acquisitions
  • Resolution, resampling and compression choices affect visual interpretation and bandwidth
  • Imagery metadata records acquisition date, sensor, processing level and cloud cover

Participants can configure temporal map products that communicate change and events.

  • Time-aware layers store start dates, end dates and observation timestamps
  • Temporal filtering isolates relevant reporting periods, incidents and project phases
  • Change detection compares classified rasters, feature versions or repeated observations
  • Event layers map service requests, incidents, inspections and sensor readings
  • Aggregation periods standardise daily, weekly, monthly and quarterly reporting
  • Animation settings communicate progression without obscuring data uncertainty

Participants can apply governance controls to protect and manage online GIS content.

  • Role-based access control assigns viewer, editor, publisher and administrator permissions
  • Sharing groups separate public, partner, internal and restricted content
  • Data classification determines publication suitability, handling controls and retention requirements
  • Least-privilege access limits editing and administration to necessary responsibilities
  • Content ownership plans address staff changes, project closure and account continuity
  • Governance registers record service owner, review date, dependencies and approval status

Participants can diagnose common performance issues and plan service monitoring.

  • Service performance depends on geometry complexity, queries, indexes and concurrent users
  • Spatial indexes accelerate extent queries, proximity searches and overlay operations
  • Pagination, field selection and query limits reduce unnecessary data transfer
  • Caching strategies improve basemap and tile delivery for repeated map views
  • Availability monitoring tracks response time, failures, usage and storage consumption
  • Incident runbooks define triage, escalation, communication and recovery actions

Participants can identify automation opportunities and specify repeatable cloud GIS processes.

  • REST APIs expose items, layers, queries, users and administrative operations
  • Python scripts automate validation, uploads, updates and metadata checks
  • Webhook events trigger notifications from edits, submissions and status changes
  • Scheduled jobs refresh datasets from approved source systems and feeds
  • Configuration templates standardise layer settings, symbology and sharing permissions
  • Automation logs capture execution status, exceptions, timestamps and responsible owner

Participants can plan cloud GIS delivery using measurable requirements and acceptance controls.

  • Discovery workshops identify decisions, audiences, data owners and operational constraints
  • Requirements matrices link user needs to layers, tools, permissions and outputs
  • Data readiness assessments score quality, availability, ownership and update feasibility
  • Acceptance criteria specify map behaviour, performance, accessibility and data accuracy
  • Release plans sequence pilot, review, production launch and post-launch support
  • Product backlogs prioritise fixes, enhancements, technical debt and user requests

Participants can assemble a structured cloud GIS solution design for a realistic case.

  • Case requirements translate service problems into measurable spatial information needs
  • Stakeholder maps identify data custodians, users, approvers and support responsibilities
  • Logical data models define entities, relationships, identifiers and controlled vocabularies
  • Publication workflows map preparation, review, approval, release and retirement stages
  • Application wireframes specify screens, map tools, filters and information hierarchy
  • Risk registers address privacy, quality, availability, misuse and vendor dependency

Participants can build, review and present a complete governed cloud GIS mapping product for a defined operational use case.

  • Product scope defines target users, decisions, datasets, constraints and success measures
  • Authoritative layers prepared with documented schemas, metadata and quality controls
  • Web map configured with purposeful symbology, pop-ups, filters and bookmarks
  • Dashboard or application assembled around priority user tasks and indicators
  • Peer review tests usability, data interpretation, permissions and acceptance criteria
  • Presentation communicates architecture, analysis results, governance controls and implementation roadmap

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

What you take back to work

  1. Cloud GIS solution architecture template
  2. Online spatial data publication checklist
  3. Web map cartographic specification
  4. Dashboard and application requirements model
  5. GIS sharing and governance register
  6. Cloud GIS implementation roadmap

Who should attend

  • GIS Analysts — need to publish desktop GIS outputs as managed web services
  • GIS Managers — need consistent standards for cloud mapping products and teams
  • Spatial Data Managers — need controlled publication, metadata and lifecycle processes
  • Remote Sensing Analysts — need to distribute imagery-derived information through web maps
  • Infrastructure Asset Managers — need location-based operational views of assets and work orders
  • Monitoring and Evaluation Specialists — need mapped indicators and field data for programme reporting

Skills and tools covered

Cloud GIS publishingWeb map designSpatial data managementOnline spatial analysisGIS governanceDashboard configuration

Tools and standards

ArcGIS Online, QGIS, PostGIS, OGC API Features

How the course runs

Training methodology

The course uses short instructor briefings followed by guided configuration, case analysis and peer review. Participants work through realistic mapping scenarios such as asset inspection, flood response, land-use monitoring and service-access reporting. Small groups assess publication choices, design web maps, configure applications and test user journeys against stated decisions. Facilitated simulations address permissions, data incidents and service changes. Each participant records implementation choices in an application plan that can be adapted for an organisational cloud GIS project.

Requirements and prerequisites

Participants should be comfortable working with vector spatial data, attribute tables and basic map layers in a desktop GIS or comparable mapping environment. They should understand points, lines, polygons, common file formats and simple attribute queries. Experience creating static maps is useful. Participants do not need programming experience, cloud administration credentials, web development skills or prior experience with a specific cloud GIS platform. Familiarity with their organisation's data sensitivity rules will help when discussing publication and access decisions.

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 already understand basic GIS concepts, spatial layers, attribute data and simple map production. The course does not assume coding, cloud administration or previous use of a particular online GIS platform.

Bring a laptop capable of running a modern browser and, if permitted, non-sensitive sample data or a current mapping challenge from your work. Training datasets and platform access are provided for course activities.

It is designed for GIS analysts, spatial data managers, remote sensing staff, asset teams and reporting specialists moving from desktop outputs to managed online mapping products. It is not an introductory GIS course.

Desktop GIS training concentrates on local analysis and map production, while remote sensing training focuses on imagery interpretation and processing. This course concentrates on publishing, managing and using spatial information through web services, dashboards and online applications.

Participants can use the templates to plan an asset map, field inspection workflow, programme dashboard, public information map or imagery monitoring service. The course addresses requirements, data preparation, permissions and support arrangements needed for operational deployment.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes cloud GIS foundations and publishes initial products; the second week develops analysis, applications, governance, automation 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.