Drone Photogrammetry Applications Training Course

Duration 5 days 10 modules · 33 contact hours
Level Intermediate Certificate on completion
Who attends GIS Analysts, Surveyors and others
Fee from USD 1,100 KSh 95,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-GRS-083

Before you join: Participants should have basic experience with GIS, mapping, surveying, remote sensing or drone operations.

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

Drone photogrammetry gives survey, engineering, environmental and asset teams a way to turn planned aerial image capture into measurable maps, surfaces and 3D models. The value depends on more than flying a drone: mission geometry, survey control, camera settings, processing choices and independent checks all affect whether a result can support quantities, condition assessments, progress reporting or planning decisions. Poorly designed missions can create attractive images that fail accuracy tests, omit critical features or cannot be defended to a client, regulator or project manager.

This course develops the technical and operational skills required to plan, capture, process, test and communicate drone-derived spatial data. Participants work through ground sampling distance, overlap, ground control points, RTK and PPK positioning, coordinate reference systems, image alignment, dense point clouds, digital surface models, digital terrain models and orthomosaics. The course also addresses accuracy assessment using checkpoints, RMSE calculations and ASPRS Positional Accuracy Standards, alongside practical applications in construction, mining, agriculture, utilities, disaster assessment and environmental monitoring.

Instruction combines short technical briefings with instructor-led demonstrations, case work and team-based planning tasks. Participants interpret project requirements, make mission-design decisions, review processing outputs and assess common quality failures such as weak geometry, doming, poor seamlines and datum errors. They leave with a reusable drone photogrammetry project pack containing a mission specification, control plan, quality-assurance checklist, accuracy-report structure and application plan.

The course is suited to professionals who already work with spatial data, surveying, engineering assets, construction sites or environmental information and need to commission, manage or produce defensible photogrammetric outputs.

What you will be able to do

  • Design drone photogrammetry missions using GSD, overlap, sidelap and flight geometry
  • Prepare operational risk assessments, airspace checks and field deployment controls
  • Plan ground control and checkpoint networks using RTK, PPK and survey principles
  • Process aerial imagery into orthomosaics, point clouds, DSMs and DTMs
  • Calculate horizontal and vertical accuracy using checkpoints and RMSE
  • Apply ASPRS Positional Accuracy Standards to photogrammetric deliverables
  • Produce GIS-ready terrain, volume, inspection and condition-assessment outputs
  • Create a documented photogrammetry project plan with acceptance criteria and reporting requirements

Benefits of attending

For you

  • Ability to specify drone survey requirements with measurable accuracy targets
  • Practical confidence reviewing orthomosaics, terrain models and point-cloud outputs
  • Evidence-based method for identifying unreliable aerial mapping results
  • Reusable workflow for construction, asset inspection and environmental monitoring projects
  • Stronger technical contribution to drone procurement and supplier acceptance decisions

For your organisation

  • Better-defined drone mapping scopes, reducing rework and unusable imagery
  • More defensible quantities, terrain models and condition-assessment outputs
  • Consistent quality assurance across internal teams and external suppliers
  • Improved control of privacy, airspace, safety and spatial-data risks
  • Faster conversion of aerial imagery into decision-ready GIS products

Course modules

10 modules over 5 days

Participants can translate a mapping request into a measurable photogrammetry mission specification.

  • Photogrammetric project briefs linking decisions, features, accuracy and deliverables
  • Ground sampling distance calculated from sensor geometry and required map scale
  • Select nadir, oblique or corridor capture patterns for intended measurements
  • Overlap, sidelap and baseline settings matched to terrain and texture
  • Flight altitude, speed and shutter interval derived from GSD
  • Coverage polygons, exclusion zones and battery reserves documented before deployment
  • Acceptance criteria defined for orthomosaics, surfaces, point clouds and reports

Participants can prepare safe, lawful field operations with documented controls.

  • Airspace checks, NOTAMs and site permissions completed before flight approval
  • Operational risk assessment using likelihood, consequence and control measures
  • Visual line of sight, observer roles and lost-link procedures
  • Weather thresholds set for wind, precipitation, visibility and illumination
  • Privacy, consent and data-minimisation controls for aerial image collection
  • Pre-flight and post-flight checklists supporting repeatable aircraft inspections
  • Battery handling, transport and thermal incident response procedures

Participants can establish survey control and checkpoints for tested photogrammetric outputs.

  • Coordinate reference systems distinguished: geographic, projected, vertical and compound
  • GNSS control surveyed with RTK, PPK and network corrections
  • Ground control point distribution planned around edges, centre and relief
  • Checkpoints separated from control points for independent accuracy testing
  • Target size and contrast matched to flight altitude and GSD
  • Geoid models and vertical datums documented for elevation deliverables
  • Control residuals reviewed before image alignment and final adjustment

Participants can acquire imagery that meets photogrammetric processing and measurement requirements.

  • Camera calibration, focus, exposure and shutter speed configured before launch
  • Manual and automated mission plans compared for complex sites
  • Crosshatch and double-grid flights specified for 3D structures
  • Terrain-following missions maintain target GSD across variable elevations
  • Oblique image rings planned for façades, stockpiles and assets
  • Field metadata records aircraft, sensor, control and weather conditions
  • Image completeness checks identify gaps, blur, glare and poor overlap

Participants can process controlled aerial imagery into usable photogrammetric products.

  • Image geotags, camera models and coordinate systems verified during import
  • Feature matching and bundle adjustment produce aligned camera stations
  • Tie-point filtering removes poorly constrained matches and nonphysical geometry
  • Dense point clouds generated with settings matched to project purpose
  • Digital surface and terrain models distinguished through classification methods
  • Orthorectification corrects relief displacement using calibrated imagery and surface models
  • Processing logs record parameters, software versions and exceptions

Participants can test photogrammetric outputs and document their accuracy and limitations.

  • Residual errors interpreted from bundle adjustment reports and control statistics
  • RMSE calculated separately for horizontal coordinates and vertical elevation
  • Checkpoint errors compared against stated project accuracy requirements
  • ASPRS Positional Accuracy Standards applied to tested map products
  • Systematic error diagnosed through residual patterns, datum mismatches and weak geometry
  • Visual inspection identifies doming, seamlines, ghosting and edge distortion
  • Quality report documents methods, results, limitations and acceptance decision

Participants can prepare drone-derived outputs for GIS analysis and operational decisions.

  • Raster and vector outputs loaded with correct coordinate reference systems
  • Orthomosaic symbology reveals drainage, assets, damage and land-cover patterns
  • Contour generation uses appropriate intervals, smoothing and terrain-model source
  • Cut-and-fill volumes calculated from dated surfaces and defined boundaries
  • Point-cloud classification separates ground, vegetation, buildings and noise
  • Zonal statistics quantify condition indicators within operational management units
  • GIS metadata records lineage, resolution, accuracy and collection dates

Participants can select appropriate photogrammetry methods for common operational applications.

  • Construction progress surveys compare design surfaces, quantities and site conditions
  • Mining stockpile volumes use controlled boundaries, density assumptions and uncertainty
  • Agricultural vigor mapping distinguishes photogrammetric products from multispectral indices
  • Utility corridor inspections combine oblique imagery, asset identifiers and clearance measures
  • Disaster assessment prioritises repeatable capture, rapid processing and evidence records
  • Environmental monitoring maps erosion, invasive species and restoration progress
  • Application selection balances accuracy, turnaround, access constraints and stakeholder decisions

Participants can manage, document and communicate photogrammetry outputs for reliable reuse.

  • File naming conventions connect raw images, control, processing and published outputs
  • Cloud and local storage plans protect imagery, coordinates and project records
  • Metadata schemas capture sensor settings, processing parameters, dates and coordinate systems
  • Data retention schedules address privacy, contractual obligations and audit requirements
  • Web maps and annotated outputs communicate findings without overstating accuracy
  • Technical reports state methods, QA results, limitations and intended use
  • Version control prevents accidental release of superseded mapping products

Participants can assemble a practical delivery plan for a drone photogrammetry project.

  • Requirements traceability links stakeholder questions to measurable photogrammetry deliverables
  • Work breakdown structures allocate field, processing, QA and reporting tasks
  • Production schedules account for weather windows, processing time and review gates
  • Cost estimates separate equipment, labour, software, travel and rework allowances
  • Supplier scope statements define accuracy, formats, metadata and acceptance tests
  • Personal application plans identify a priority use case and first actions
  • Lessons-learned reviews capture changes for subsequent missions and standard procedures

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

What you take back to work

  1. Drone photogrammetry mission specification template
  2. Ground control and checkpoint planning checklist
  3. Field capture and aircraft inspection checklist
  4. Photogrammetric processing workflow model
  5. ASPRS-aligned positional accuracy report template
  6. Drone mapping application and delivery plan

Who should attend

  • GIS Analysts — need reliable drone-derived datasets for mapping and spatial analysis
  • Surveyors — need to integrate aerial control, checkpoints and tested accuracy results
  • Civil Engineers — need terrain models, quantities and construction progress evidence
  • Remote Sensing Specialists — need practical photogrammetric production and quality methods
  • Environmental Officers — need repeatable monitoring outputs for land, habitat and erosion assessments
  • Infrastructure Asset Managers — need aerial imagery and 3D models for inspection and maintenance decisions

Skills and tools covered

Mission planningSurvey control designPhotogrammetric processingAccuracy assessmentGIS analysisSpatial data governance

Tools and standards

Pix4Dmapper, Agisoft Metashape, QGIS, ASPRS Positional Accuracy Standards

How the course runs

Training methodology

The course uses short instructor briefings to establish photogrammetric principles, followed by guided case work using realistic mapping requirements. Participants assess mission designs, select control strategies, interpret processing outputs and test accuracy against stated requirements. Group activities address construction progress, stockpile measurement, utility inspection and environmental monitoring scenarios. Instructor demonstrations show the relationship between field decisions and final outputs. Each participant develops an application plan for a current or planned drone mapping requirement, including deliverables, controls, quality checks and reporting needs.

Requirements and prerequisites

Participants should have basic experience with GIS, mapping, surveying, remote sensing or drone operations. They should be able to read maps, work with coordinate systems at a basic level and use desktop software to manage files and spatial datasets. Familiarity with drone flight planning or photogrammetry software is useful but not essential. The course does not require a pilot licence, prior RTK or PPK experience, programming skills, advanced mathematics or ownership of a drone. It focuses on sound technical decisions, defensible outputs and effective project management.

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 have basic familiarity with GIS, maps, surveying, remote sensing or drone operations. Prior experience with RTK, PPK, photogrammetry software or drone piloting is useful but not required.

Bring a laptop if you wish to work with course files and apply methods to your own project context. You do not need to bring a drone, survey equipment or a software licence.

The course suits GIS analysts, surveyors, engineers, remote sensing specialists, environmental officers and asset managers. It is also relevant to professionals who commission drone mapping from internal teams or external suppliers.

Pilot training concentrates on aircraft operation and flight rules. This course concentrates on producing and evaluating mapping-grade photogrammetric outputs, including survey control, processing, accuracy testing and GIS use.

You can use the methods to plan site surveys, define supplier requirements, review aerial mapping deliverables and report accuracy limitations. The templates support construction progress, stockpile volumes, infrastructure inspections and environmental monitoring work.

The course provides about 32.5 contact hours, delivered from 08:30 to 16:30 each day. Time is organised around ten teaching modules, technical briefings, case analysis, group tasks, instructor demonstrations and application planning.

Questions about this course?

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