
Remote Sensing with QGIS Course
Master the full remote sensing pipeline — from electromagnetic theory to professional map delivery — using QGIS as your primary analysis platform. This course takes you through satellite sensor fundamentals, image preprocessing, land cover classification, and spatial analysis with hands-on, practical workflows. Whether you're entering the geospatial field or expanding an existing skill set, you'll finish ready to tackle real-world mapping projects with confidence.
What you will learn:
Understand electromagnetic spectrum principles and how sensor types affect imagery characteristics.
Configure QGIS projects with correct coordinate reference systems and organized layer structures.
Import and manage vector, raster, tabular, and web service data from multiple sources.
Apply radiometric calibration, atmospheric correction, and geometric orthorectification to satellite imagery.
Build supervised and unsupervised land cover classification workflows and assess their accuracy quantitatively.
Design professional print-ready maps and export deliverables that meet stakeholder reporting standards.
How you study in practice Remote Sensing with QGIS Course
How you practise Remote Sensing with QGIS Course
For companies looking to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Remote Sensing
Foundations of Remote Sensing
Lesson 1 • Remote Sensing Workflow Overview
Maps the end-to-end process from data acquisition to thematic output. Orients students to the full pipeline before diving into individual steps.
Lesson 2 • Electromagnetic Spectrum Basics
Covers wavelength bands, energy interactions with surfaces, and spectral signatures. Establishes the physical basis for interpreting satellite and aerial imagery.
Lesson 3 • Remote Sensing System Components
Examines platforms, sensors, and data transmission pipelines. Connects hardware architecture to the imagery characteristics students will process later.
Lesson 4 • Key Satellite Sensor Families
Surveys optical, radar, and thermal sensor families and their typical applications. Gives students a reference framework for selecting appropriate data sources.
Lesson 5 • Image Acquisition Geometry
Explains viewing angles, swath width, and orbital parameters affecting coverage. Prepares students to evaluate scene suitability for specific mapping tasks.
Chapter 2HideHide detailsSee detailsIntroduction to QGIS Environment
Introduction to QGIS Environment
Lesson 1 • Project Setup and CRS Management
Covers project properties, coordinate reference system assignment, and on-the-fly reprojection. Correct CRS handling prevents spatial misalignment in all subsequent work.
Lesson 2 • Interface Layout and Navigation
Introduces panels, toolbars, map canvas, and status bar functions. Students gain fluency in navigating the interface efficiently during practical exercises.
Lesson 3 • QGIS Installation and Configuration
Guides installation, plugin manager setup, and profile configuration. Ensures a consistent working environment before any analytical tasks begin.
Lesson 4 • Layer Types and Symbology Basics
Distinguishes vector and raster layer types and applies basic symbology rules. Builds visual communication skills essential for map production.
Lesson 5 • QGIS Help and Community Resources
Introduces official documentation, Stack Exchange, and plugin repositories. Equips students to self-resolve issues encountered during independent practice.
Chapter 3HideHide detailsSee detailsCoordinate Systems and Spatial Reference
Coordinate Systems and Spatial Reference
Lesson 1 • Geographic Coordinate Systems
Explains datums, ellipsoids, and latitude-longitude grids. Provides the mathematical foundation for understanding all coordinate reference systems.
Lesson 2 • CRS Assignment and Reprojection in QGIS
Demonstrates assigning CRS to layers and reprojecting vector and raster data. Directly applies CRS theory to practical QGIS data management tasks.
Lesson 3 • Projected Coordinate Systems
Covers map projections, distortion properties, and zone systems. Students select appropriate projections for area, distance, and shape-preserving analyses.
Lesson 4 • Spatial Alignment Verification
Teaches overlay inspection, coordinate comparison, and alignment error diagnosis. Ensures multi-source datasets register correctly before analysis.
Chapter 4HideHide detailsSee detailsImporting and Managing Geospatial Data
Importing and Managing Geospatial Data
Lesson 1 • Raster Data Import and Formats
Explains GeoTIFF, IMG, and cloud-optimized raster import procedures. Prepares students to load satellite imagery and DEMs for remote sensing workflows.
Lesson 2 • Vector Data Import and Formats
Covers Shapefile, GeoJSON, GeoPackage, and KML import workflows. Students handle the most common vector formats encountered in professional GIS environments.
Lesson 3 • Data Organization and Project Hygiene
Establishes folder structures, relative paths, and layer group conventions. Prevents broken links and ensures reproducibility across team environments.
Lesson 4 • Web Services and Live Data Connections
Connects QGIS to WMS, WFS, and WCS services for live data access. Extends data sourcing beyond local files to authoritative online repositories.
Lesson 5 • Tabular and CSV Data Import
Demonstrates importing CSV files with coordinates and joining tables to spatial layers. Enables integration of field survey data and spreadsheet records.
Chapter 5HideHide detailsSee detailsRaster Processing and Image Preprocessing
Raster Processing and Image Preprocessing
Lesson 1 • Radiometric Calibration Concepts
Covers DN-to-radiance and radiance-to-reflectance conversion steps. Ensures imagery is physically meaningful before spectral analysis begins.
Lesson 2 • Geometric Correction and Orthorectification
Demonstrates GCP collection, polynomial warping, and DEM-based orthorectification. Aligns imagery to ground coordinates for accurate overlay with vector data.
Lesson 3 • Atmospheric Correction Methods
Explains dark object subtraction, image-based, and model-driven correction approaches. Removes atmospheric haze to improve spectral accuracy across scenes.
Lesson 4 • Clipping, Mosaicking, and Reprojecting Rasters
Applies clip by extent or mask, merges adjacent scenes, and reprojects outputs. Produces study-area-specific raster datasets ready for classification.
Lesson 5 • Band Math and Spectral Indices
Uses the raster calculator to compute NDVI, NDWI, and custom indices. Transforms raw bands into thematic layers that highlight specific land cover features.
Chapter 6HideHide detailsSee detailsImage Classification and Feature Extraction
Image Classification and Feature Extraction
Lesson 1 • Accuracy Assessment and Validation
Constructs confusion matrices, computes overall accuracy, and calculates kappa. Validates classification quality against independent reference samples.
Lesson 2 • Supervised Classification Workflow
Guides training sample collection, classifier selection, and map production. Produces a labeled land cover raster driven by analyst-defined reference data.
Lesson 3 • Unsupervised Classification Methods
Applies k-means and ISODATA clustering to group spectrally similar pixels. Provides a rapid exploratory view of scene composition before supervised training.
Lesson 4 • Post-Classification Refinement
Applies majority filtering, sieve, and manual editing to reduce classification noise. Improves map quality before final product delivery.
Lesson 5 • Classification Concepts and Schemes
Introduces land cover classification systems, class hierarchies, and scheme selection. Aligns classification design with project objectives before any processing begins.
Chapter 7HideHide detailsSee detailsSpatial Analysis and Geoprocessing in QGIS
Spatial Analysis and Geoprocessing in QGIS
Lesson 1 • Processing Toolbox and Model Builder
Introduces the Processing Toolbox interface and graphical modeler for workflow automation. Reduces manual repetition and ensures reproducible analytical pipelines.
Lesson 2 • Change Detection Analysis
Compares multi-temporal classified maps and raster difference layers to quantify change. Applies classification and geoprocessing skills to a real-world monitoring scenario.
Lesson 3 • Vector Geoprocessing Fundamentals
Covers clip, intersect, union, buffer, and dissolve operations on vector layers. Builds the core spatial manipulation skills needed for overlay analysis.
Lesson 4 • Spatial Queries and Attribute Selection
Uses select by location, select by expression, and field calculator for data subsetting. Enables targeted extraction of features meeting spatial or attribute criteria.
Lesson 5 • Raster Analysis Tools
Applies reclassify, zonal statistics, and terrain analysis tools to raster datasets. Extends raster processing skills into quantitative spatial analysis.
Chapter 8HideHide detailsSee detailsMap Production and Project Delivery
Map Production and Project Delivery
Lesson 1 • Cartographic Design Principles
Applies visual hierarchy, color theory, and typography to map layout design. Ensures maps communicate spatial information clearly to diverse audiences.
Lesson 2 • Data Export and Format Conversion
Exports vector and raster layers to standard delivery formats for client handoff. Ensures data interoperability with GIS platforms outside QGIS.
Lesson 3 • QGIS Print Layout Workflow
Guides map frame setup, item addition, and atlas generation in the Print Layout. Produces multi-page and atlas-driven map series efficiently.
Lesson 4 • Metadata and Documentation Standards
Covers spatial metadata elements, lineage documentation, and data quality reporting. Supports data discoverability and reuse by downstream users.
Lesson 5 • Stakeholder Reporting and Presentation
Structures technical findings into reports and slide decks for non-GIS audiences. Bridges the gap between analytical outputs and decision-maker communication.
Your valid completion certificate
This course is for you:
Environmental scientist: wanting to add satellite data analysis to fieldwork toolkit.
Geography student: ready to move beyond classroom theory into practical GIS software.
Urban planner: seeking geospatial skills to support land use and development decisions.
Career changer: transitioning into geospatial roles from unrelated technical backgrounds.
Forestry or agriculture professional: needing remote sensing tools for vegetation monitoring work.
NGO field officer: aiming to produce credible spatial evidence for reporting and advocacy.
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