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3D GIS Course
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3D GIS Course

Master the full spectrum of 3D GIS — from elevation data acquisition and LiDAR processing to urban city modeling, subsurface analysis, and real-time visualization. This course equips GIS professionals with the technical depth to tackle complex spatial challenges across engineering, planning, and environmental domains. Build production-ready workflows and deliver compelling 3D outputs that drive real decisions.

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What you will learn:

  • Process and classify LiDAR point clouds into ground, vegetation, and structure layers.

  • Build accurate DEMs using interpolation methods suited to diverse terrain types.

  • Construct semantic 3D city models compliant with CityGML open data standards.

  • Perform viewshed, cut-fill, and hydrological analysis using 3D terrain derivatives.

  • Model subsurface geology and underground utility networks with accurate depth attributes.

  • Integrate BIM data, real-time sensor streams, and automation scripts into 3D GIS workflows.

How you study in a practical way 3D GIS Course

How you practice 3D GIS Course

For companies who want to train their team

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Course content

8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Foundations of 3D GIS

  • Lesson 1 • Overview of 3D GIS Software Environments

    Surveys desktop, web, and cloud-based platforms capable of 3D GIS workflows. Students identify the right tool for a given project context.

  • Lesson 2 • Introduction to 3D Spatial Concepts

    Covers the shift from 2D to 3D spatial thinking and fundamental geometry. Anchors the chapter by defining the vocabulary used throughout the course.

  • Lesson 3 • Coordinate Systems and Vertical Datums

    Explains horizontal and vertical reference systems and how they interact in 3D space. Students gain the ability to select appropriate datums for elevation-aware projects.

  • Lesson 4 • 3D Data Types and Structures

    Introduces raster, vector, and point-cloud data structures in three dimensions. Provides the data literacy needed for all subsequent chapters.

Chapter 2See details

Elevation Data Acquisition and Processing

  • Lesson 1 • Data Quality Control and Metadata

    Establishes quality-checking routines and metadata standards for elevation datasets. Ensures data reliability before it enters analytical workflows.

  • Lesson 2 • LiDAR Data Processing

    Covers point cloud classification, filtering, and thinning workflows. Students transform raw LiDAR into ground, vegetation, and structure layers.

  • Lesson 3 • Photogrammetric 3D Reconstruction

    Introduces structure-from-motion workflows for generating 3D models from imagery. Students produce dense point clouds and orthomosaics from overlapping photos.

  • Lesson 4 • DEM Generation and Interpolation

    Teaches interpolation methods for converting point data to continuous surfaces. Students evaluate method suitability based on terrain type and data density.

  • Lesson 5 • Elevation Data Sources

    Surveys satellite, aerial, and ground-based elevation collection methods. Connects data origin to accuracy expectations used in later processing steps.

Chapter 3See details

3D Terrain Analysis and Visualization

  • Lesson 1 • 3D Cartographic Visualization

    Covers draping imagery, applying symbology, and rendering 3D scenes for communication. Students produce publication-quality 3D maps and scene exports.

  • Lesson 2 • Volumetric and Cut-Fill Analysis

    Calculates volume differences between two surfaces for earthwork and change detection. Directly applies terrain analysis skills to engineering and planning tasks.

  • Lesson 3 • Viewshed and Line-of-Sight Analysis

    Calculates visible areas from observer points using 3D terrain data. Students apply viewshed outputs to siting, planning, and communication tower placement.

  • Lesson 4 • Surface Derivatives and Terrain Metrics

    Derives slope, aspect, curvature, and roughness from DEMs. These metrics form the analytical foundation for terrain-based spatial analysis.

  • Lesson 5 • Hydrological Terrain Analysis

    Applies DEM-based flow modeling to delineate watersheds and stream networks. Connects terrain analysis to environmental and infrastructure planning contexts.

Chapter 4See details

3D Vector Data and Feature Modeling

  • Lesson 1 • 3D Spatial Relationships and Queries

    Applies 3D topology and spatial queries to analyze feature relationships in three dimensions. Students identify intersections, containment, and proximity in 3D space.

  • Lesson 2 • Multipatch and Solid Geometry

    Introduces multipatch geometry for representing closed 3D solids and complex surfaces. Students build and validate multipatch features for urban and subsurface modeling.

  • Lesson 3 • Extruding 2D Features to 3D

    Converts flat 2D polygons into volumetric 3D features using attribute-driven extrusion. Enables rapid building and infrastructure modeling from existing 2D datasets.

  • Lesson 4 • 3D Attribute Management

    Covers schema design and attribute workflows specific to 3D feature classes. Students link height, floor count, and material attributes to geometry.

  • Lesson 5 • Creating and Editing 3D Features

    Teaches digitizing and editing workflows for 3D vector geometries. Students assign Z-values manually and from elevation surfaces.

Chapter 5See details

Urban 3D Modeling and CityGML

  • Lesson 1 • Automated Building Model Generation

    Covers automated workflows for generating building models from footprints and LiDAR. Students produce LOD1 and LOD2 models at city scale.

  • Lesson 2 • CityGML Schema and Data Structure

    Explains the CityGML open standard for semantic 3D city data exchange. Students parse and create CityGML files with correct thematic module assignments.

  • Lesson 3 • 3D City Model Visualization and Export

    Renders semantic city models in 3D scenes and exports to interoperable formats. Students deliver city models for web viewers, simulation tools, and stakeholder platforms.

  • Lesson 4 • Levels of Detail in City Modeling

    Defines LOD0 through LOD4 and their appropriate use cases in urban modeling. Students select the correct detail level based on project requirements and data availability.

  • Lesson 5 • Semantic Enrichment of City Models

    Adds thematic attributes such as land use, energy, and material data to 3D city objects. Students link external datasets to CityGML features for analysis-ready models.

Chapter 6See details

Subsurface and Underground 3D GIS

  • Lesson 1 • Geological Layer Modeling

    Builds 3D geological models by interpolating stratigraphic surfaces from borehole data. Students produce layered subsurface models representing soil and rock units.

  • Lesson 2 • Subsurface Visualization Techniques

    Applies transparency, cross-section slicing, and fence diagrams to reveal subsurface structure. Students communicate complex underground geometry to non-specialist audiences.

  • Lesson 3 • Subsurface Spatial Analysis

    Performs depth queries, volume calculations, and proximity analysis on subsurface features. Students apply analytical results to geotechnical and infrastructure planning decisions.

  • Lesson 4 • Subsurface Data Types and Sources

    Surveys borehole logs, geophysical surveys, and utility records as subsurface data inputs. Students assess data quality and suitability for 3D subsurface modeling.

  • Lesson 5 • Underground Utility Network Modeling

    Models buried pipes, cables, and conduits as 3D network features with depth attributes. Students build topologically correct underground utility datasets.

Chapter 7See details

3D Network Analysis and Simulation

  • Lesson 1 • Gravity and Flow Simulation

    Simulates gravity-driven flows such as water runoff and debris movement on 3D terrain. Students validate simulation outputs against observed flow patterns.

  • Lesson 2 • Indoor 3D Routing

    Applies 3D network analysis to indoor environments using floor-aware datasets. Students produce multi-floor navigation routes for buildings and transit hubs.

  • Lesson 3 • 3D Network Dataset Construction

    Builds topologically correct 3D network datasets from street, transit, and indoor data. Students configure elevation-aware connectivity rules for routing analysis.

  • Lesson 4 • Vertical Movement and Accessibility

    Models stairs, ramps, elevators, and slopes as impedance factors in 3D routing. Students compute accessible routes that account for vertical travel costs.

  • Lesson 5 • Service Area and Coverage Analysis

    Calculates 3D service areas for facilities accounting for terrain and vertical barriers. Students apply coverage results to facility siting and emergency response planning.

Chapter 8See details

Advanced 3D GIS Workflows and Integration

  • Lesson 1 • 3D GIS in Cloud and Enterprise Environments

    Deploys 3D GIS services and data stores in cloud and enterprise infrastructure. Students configure sharing, permissions, and performance settings for large 3D datasets.

  • Lesson 2 • BIM and GIS Integration

    Connects Building Information Modeling data to 3D GIS environments for site and urban analysis. Students convert IFC models to GIS features and align coordinate systems.

  • Lesson 3 • Scripting and Automation for 3D GIS

    Automates repetitive 3D GIS tasks using scripting languages and geoprocessing frameworks. Students write scripts that batch-process elevation data, models, and analysis outputs.

  • Lesson 4 • Real-Time 3D Data Streams

    Integrates live sensor feeds, IoT data, and streaming point clouds into 3D GIS scenes. Students configure real-time layers and set update intervals for dynamic visualization.

  • Lesson 5 • Integrated 3D Project Workflow Design

    Synthesizes all course skills into a complete project workflow from data acquisition to delivery. Students document, review, and present a multi-source 3D GIS project.

Certification

Your valid completion certificate

This course is for you:

  • GIS analysts: ready to move beyond flat maps into three dimensions.

  • Urban planners: needing to evaluate building heights and city-scale spatial data.

  • Civil engineers: who want to incorporate terrain and subsurface data into designs.

  • Environmental scientists: looking to add elevation-driven analysis to their toolkit.

  • Drone operators: wanting to turn UAV imagery into professional 3D GIS deliverables.

  • Cartographers: seeking to produce immersive, decision-grade 3D spatial outputs.

What our students say

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