GIS Applications for Renewable Energy Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Renewable Energy Project Developers, GIS Analysts 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-ETR-051

Before you join: Participants should have basic GIS familiarity, including opening layers, reading attribute tables, selecting features and interpreting maps.

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

Renewable energy developers, utilities and public authorities must identify viable sites, quantify resource potential, avoid environmental and social constraints, plan grid connections and communicate decisions that can withstand scrutiny. GIS turns dispersed terrain, land ownership, resource, infrastructure and regulatory data into location intelligence for solar, wind, storage, transmission and hybrid projects. Poor spatial assumptions can lead to unsuitable land acquisition, underestimated interconnection costs, delayed permitting or community opposition.

This course develops the GIS methods used to screen, rank and assess renewable energy opportunities. Participants work with vector, raster, elevation, land-cover, weather, grid and protected-area datasets; establish reliable coordinate systems and data structures; perform suitability modelling; calculate terrain and access constraints; assess solar and wind resources; map grid proximity; and produce decision-ready maps. The course also addresses data quality, environmental screening, stakeholder mapping, web mapping and the use of GIS outputs in investment and permitting decisions.

Teaching combines concise technical briefings with instructor demonstration, guided case work, group analysis and individual application planning. Participants build a renewable energy project GIS workspace from the first week, progressively adding site-screening criteria, resource layers, infrastructure analysis and constraint mapping. They leave with a completed renewable energy site assessment package, including a suitability model, mapped constraints, documented assumptions and a presentation-ready map series.

The course suits professionals involved in renewable project development, energy planning, environmental assessment, grid planning, land management and climate investment. It is relevant to teams working on utility-scale projects, distributed energy programmes, rural electrification, public-sector energy planning and corporate renewable procurement.

What you will be able to do

  • Build a structured GIS project workspace for renewable energy site assessment
  • Apply coordinate reference systems and spatial data quality controls to energy datasets
  • Perform multi-criteria suitability analysis using weighted overlay and exclusion masks
  • Assess solar, wind, terrain and land-use conditions using raster and vector analysis
  • Map grid connection options, access routes and infrastructure proximity constraints
  • Produce environmental, social and permitting constraint maps for project screening
  • Create decision-ready renewable energy map layouts, dashboards and technical narratives
  • Present a complete GIS-based renewable energy site assessment and recommendation

Benefits of attending

For you

  • Produce credible solar, wind and storage site-screening analyses for project teams
  • Interpret terrain, resource and grid datasets with greater technical confidence
  • Document spatial assumptions that stand up to investment and permitting review
  • Build a portfolio-ready renewable energy GIS assessment package
  • Contribute more effectively to developer, utility and public-sector energy decisions

For your organisation

  • Reduce early-stage development risk through consistent exclusion and suitability screening
  • Shorten site shortlisting cycles with repeatable GIS models and documented criteria
  • Identify grid, access and land constraints before costly field mobilisation
  • Improve environmental and stakeholder risk identification during project origination
  • Provide management and investors with traceable spatial evidence for project prioritisation

Course modules

20 modules over 10 days

Participants can structure a GIS project around renewable energy development decisions.

  • GIS decision questions for renewable energy screening, design and permitting
  • Vector, raster and tabular data roles in energy project analysis
  • Coordinate reference systems, datums and projected units for area calculations
  • Geodatabases, feature classes and attribute domains for controlled project data
  • Data lineage documented through source, date, resolution and licence fields
  • Layer symbology and scale ranges for defensible stakeholder maps

Participants can match GIS outputs to development, permitting and investment decisions.

  • Development-stage decisions from prospecting through construction and operations
  • GIS evidence required for land acquisition and site-control discussions
  • Pre-feasibility screening versus bankable resource and engineering studies
  • Spatial inputs to environmental impact assessment and permitting submissions
  • Investment committee questions answered through mapped project evidence
  • Decision registers linking map outputs, assumptions and accountable owners

Participants can source, inspect and document data suitable for energy site screening.

  • Authoritative sources for boundaries, infrastructure, terrain and protected areas
  • OpenStreetMap features assessed against project-grade infrastructure requirements
  • Raster resolution compared with minimum mapping-unit and siting decisions
  • Positional accuracy, temporal currency and completeness tested before analysis
  • Metadata records capture collection method, processing history and restrictions
  • Data licences reviewed for commercial use, redistribution and publication limits

Participants can prepare consistent spatial datasets for renewable energy analysis.

  • Reprojecting layers into an appropriate local projected coordinate system
  • Clipping national datasets to project areas and study buffers
  • Dissolving administrative boundaries while preserving essential planning attributes
  • Field calculations standardise units, categories and coded constraint values
  • Topology checks identify overlaps, gaps and invalid polygon geometry
  • Geoprocessing models document repeatable inputs, parameters and output locations

Participants can derive terrain measures and identify constructability constraints.

  • Digital elevation models selected by resolution, coverage and vertical accuracy
  • Slope derived from elevation surfaces using percentage and degree outputs
  • Aspect analysis identifies orientation conditions for solar array design
  • Hillshade and contour mapping reveal terrain patterns for stakeholder review
  • Terrain ruggedness indices distinguish developable land from complex topography
  • Cut-and-fill implications interpreted from slope, elevation and site boundaries

Participants can assess land availability and competing land-use constraints.

  • Land-cover classifications reclassified into developable, conditional and excluded categories
  • Parcel boundaries joined with ownership, tenure and land-use attributes
  • Agricultural land categories assessed against policy and food-security considerations
  • Settlement buffers applied using locally appropriate setback assumptions
  • Water bodies, wetlands and floodplains mapped as development constraints
  • Contiguous developable polygons measured against minimum project footprint requirements

Participants can evaluate solar resource, orientation and shading factors for photovoltaic sites.

  • Global horizontal irradiation mapped from validated solar resource datasets
  • Direct normal irradiation interpreted for concentrating solar technology screening
  • PVGIS outputs compared with local weather-station and satellite-derived records
  • Slope and aspect thresholds defined for fixed-tilt photovoltaic arrays
  • Viewshed-based shading analysis identifies terrain and obstruction effects
  • Solar suitability scores combine irradiation, terrain, land and exclusion criteria

Participants can screen wind project areas using resource, terrain and setback criteria.

  • Wind atlas layers interpreted by hub height, resolution and averaging period
  • Mean wind speed distinguished from wind power density metrics
  • Terrain exposure and roughness assessed for preliminary turbine siting
  • Setback buffers applied around homes, roads, aviation and telecommunications assets
  • Turbine layout constraints mapped using rotor diameter and spacing rules
  • Wake-loss limitations recognised before detailed micrositing and energy-yield studies

Participants can apply GIS screening methods to non-solar and non-wind renewable options.

  • Catchment delineation identifies upstream drainage areas for hydropower screening
  • Stream order and flow proxies prioritise potential run-of-river locations
  • Biomass feedstock catchments mapped using land-cover and transport-distance data
  • Seasonal resource profiles compared for solar, wind and storage combinations
  • Hybrid project footprints assessed for co-location opportunities and constraints
  • Technology screening criteria aligned with resource quality and infrastructure access

Participants can assess interconnection proximity and infrastructure access using GIS.

  • Transmission lines, substations and distribution feeders mapped from available records
  • Euclidean distance estimates initial proximity to grid connection assets
  • Least-cost path analysis identifies plausible transmission corridor alternatives
  • Capacity data distinguished from physical proximity in interconnection screening
  • Road-network analysis estimates access distances for construction logistics
  • Infrastructure maps document uncertainty where network data remain restricted

Participants can identify environmental constraints requiring avoidance, mitigation or field verification.

  • Protected areas classified by legal status, designation and management category
  • Critical habitat screening considers species records, corridors and seasonal patterns
  • Buffer zones applied around wetlands, watercourses and sensitive ecosystems
  • Ramsar sites and Key Biodiversity Areas incorporated into exclusion models
  • Cumulative constraint maps distinguish legal exclusions from survey priorities
  • Environmental red flags documented for early developer and lender review

Participants can map social receptors, land rights and stakeholder considerations for site decisions.

  • Population grids identify settlement density near proposed energy infrastructure
  • Community facilities mapped for visual, noise and access impact screening
  • Land tenure records assessed for ownership, customary rights and disputes
  • Indigenous Peoples territories incorporated where authoritative spatial data exist
  • Stakeholder influence-interest matrices linked to geographic project areas
  • Social risk maps distinguish consultation priorities from formal exclusion zones

Participants can build and test a transparent renewable energy suitability model.

  • Decision criteria translated into measurable spatial variables and thresholds
  • Boolean exclusion masks remove legally prohibited and technically unsuitable areas
  • Weighted linear combination ranks candidate locations using standardised scores
  • Analytic Hierarchy Process compares criteria through pairwise weighting judgments
  • Sensitivity analysis tests ranking changes under alternative weight scenarios
  • Suitability classes validated against known sites and expert review

Participants can compare development scenarios and prioritise candidate renewable projects.

  • Scenario layers represent policy, grid, land and environmental assumptions
  • Alternative setback distances tested through parameterised geoprocessing models
  • Candidate sites ranked by area, resource quality and grid distance
  • Portfolio maps compare project clusters against regional demand centres
  • Trade-off matrices record cost, risk, yield and permitting implications
  • Uncertainty ranges communicated without overstating preliminary screening results

Participants can use satellite imagery for land-cover verification and project monitoring.

  • Sentinel-2 imagery selected using acquisition date, cloud cover and resolution
  • False-colour composites distinguish vegetation, water, bare ground and built surfaces
  • Normalized Difference Vegetation Index supports vegetation and land-change interpretation
  • Supervised classification separates land-cover classes using labelled training samples
  • Change detection identifies construction progress and post-development land disturbance
  • Image interpretation findings verified against ground data and higher-resolution imagery

Participants can design field verification plans that address critical GIS uncertainties.

  • Field verification questions prioritised from uncertainty and project-risk registers
  • Mobile data forms capture coordinates, photographs, observations and consent records
  • Sampling locations selected across high-risk and representative map classes
  • Global Navigation Satellite System accuracy recorded with each field observation
  • Ground-truth results update land-cover, access and constraint interpretations
  • Fieldwork safety plans address travel, weather, permits and communications

Participants can produce clear map products for technical, executive and community audiences.

  • Map purpose defines scale, extent, audience and essential analytical message
  • Colour schemes distinguish exclusions, constraints, opportunities and uncertainty classes
  • Layout elements include projection, sources, date, legend and scale information
  • Inset maps establish regional context and project location relationships
  • Map series templates maintain consistent design across site assessment outputs
  • Technical narratives explain methods, limitations, assumptions and decision implications

Participants can prepare GIS outputs for controlled sharing and management review.

  • Web map layers configured with appropriate visibility, scales and pop-up fields
  • Dashboards display candidate sites, constraints and screening performance indicators
  • Role-based access controls protect sensitive land, grid and stakeholder information
  • Feature services published with metadata, refresh schedules and ownership assignments
  • Interactive filters support comparison by technology, region and development stage
  • Data-sharing protocols define approved audiences, exports and update responsibilities

Participants can establish controls for repeatable and auditable renewable energy GIS analysis.

  • Standard operating procedures define data intake, analysis and publication steps
  • Version naming conventions distinguish source data, working files and deliverables
  • Quality assurance checklists test geometry, attributes, projections and calculations
  • Peer review examines assumptions, weighting logic and cartographic interpretation
  • Reproducible workflows retain scripts, models, parameters and intermediate outputs
  • Project archives preserve evidence required for investment, permitting and audit

Participants can build, review and present a complete GIS-based renewable energy site assessment and recommendation.

  • Project brief defines technology, geography, decision criteria and stakeholder requirements
  • Candidate area datasets assembled, documented and prepared for analysis
  • Constraint masks and weighted suitability models produce ranked development zones
  • Resource, terrain, grid and access findings integrated into site recommendations
  • Quality review tests assumptions, limitations, uncertainty and map readability
  • Executive map series and technical briefing present recommended next actions

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

What you take back to work

  1. Renewable energy GIS project workspace template
  2. Multi-criteria site suitability model
  3. Environmental and social constraints checklist
  4. Grid connection screening map template
  5. GIS data quality and metadata register
  6. Renewable energy site assessment presentation pack

Who should attend

  • Renewable Energy Project Developers — need defensible site-screening and project prioritisation evidence
  • GIS Analysts — need renewable energy workflows beyond general mapping tasks
  • Energy Planners — need spatial evidence for generation, storage and transmission plans
  • Environmental Specialists — need to identify permitting and biodiversity constraints early
  • Grid Planning Engineers — need spatial analysis of interconnection and network access options
  • Climate Finance Analysts — need location-based evidence for project due diligence

Skills and tools covered

Renewable site screeningSpatial suitability modellingRaster terrain analysisGrid proximity assessmentEnvironmental constraint mappingDecision map production

Tools and standards

QGIS, ArcGIS Pro, PVGIS, Analytic Hierarchy Process

How the course runs

Training methodology

The course uses short instructor briefings followed by software demonstrations, case-based analysis, group exercises and structured review sessions. Participants work with realistic solar, wind, storage and grid-planning datasets, building their own GIS project workspace throughout the course. Simulations examine competing siting criteria, environmental exclusions and interconnection trade-offs. Facilitated peer review tests assumptions, data quality and map clarity. Each participant also prepares an application plan identifying datasets, decisions and stakeholders relevant to their own work.

Requirements and prerequisites

Participants should have basic GIS familiarity, including opening layers, reading attribute tables, selecting features and interpreting maps. Experience with QGIS, ArcGIS Pro or comparable desktop GIS software is useful. Participants should also understand basic renewable energy terminology such as capacity, generation, resource potential, transmission and interconnection. Prior programming, remote-sensing expertise, advanced statistics, engineering design skills or prior experience building renewable projects are not required. The course explains the energy-specific analytical methods before applying them to project data.

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 already be comfortable opening layers, reviewing attributes and interpreting basic maps. The course teaches the renewable energy analysis methods and does not require programming or advanced remote-sensing experience.

Bring a laptop capable of running desktop GIS software, if attending in person, plus any non-confidential project data or site questions you wish to examine. The trainer provides case datasets and guidance on software setup before the course.

It is designed for GIS analysts, renewable energy developers, energy planners, environmental specialists, grid planners and climate finance professionals. It is especially useful for staff supporting early-stage project screening and portfolio decisions.

General GIS courses teach software functions without focusing on energy development decisions, while renewable energy courses often focus on technology and markets. This course applies GIS methods directly to solar, wind, storage, grid, land and environmental site-selection questions.

Participants can use the templates and workflows to screen candidate areas, document development constraints, compare project scenarios and prepare maps for management or permitting discussions. The methods can be adapted to utility-scale, distributed energy and public-sector planning work.

The first week establishes data, terrain, resource, land and infrastructure analysis workflows. The second week develops constraint mapping, suitability modelling, scenario comparison, communication products and a complete capstone site assessment.

Questions about this course?

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