AutoCAD Map 3D for GIS Professionals Training Course

Duration 10 days 16 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends GIS Technician, GIS Analyst 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-069

Before you join: Participants should be comfortable using Windows file management and have basic experience of AutoCAD drawing commands, layers, object selection and properties.

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

AutoCAD Map 3D is used where CAD drawings and geospatial data must work together without losing coordinate integrity, asset attributes or cartographic control. GIS teams often receive survey drawings, utility plans, parcel data, aerial imagery and web services in different formats. They need to identify the correct coordinate reference system, connect data without unnecessary conversion, clean drawing geometry, apply attribute structures and produce outputs that can be checked by engineers, planners, asset managers and GIS administrators.

This course develops practical capability in Autodesk AutoCAD Map 3D for GIS data management, analysis and production mapping. Participants connect SHP, SDF, SQLite, raster, WMS and WFS data through FDO; manage coordinate systems and datum transformations; style layers in Display Manager; digitise and clean features; attach object data; run spatial queries; prepare thematic maps; and exchange data between DWG and GIS formats. The course also addresses schema mapping, topology checks, metadata, quality assurance, multi-user project controls and repeatable workflows for operational mapping.

Teaching combines concise technical briefings with instructor-led demonstrations, realistic mapping cases and structured application work. Cases reflect utility assets, municipal parcels, transport corridors, environmental constraints and facility plans. Participants progressively build a controlled Map 3D project, beginning with connected source data and ending with a quality-checked operational map and exchange-ready dataset. They leave with reusable workflow templates, QA controls and a completed capstone package that can be adapted to their own drawing and GIS environment.

The course suits GIS professionals, CAD technicians and technical staff who already work with spatial data or AutoCAD drawings and need reliable methods for integrating the two.

What you will be able to do

  • Connect spatial datasets through FDO and manage source-specific connection settings
  • Assign coordinate reference systems and select appropriate datum transformations
  • Create rule-based map styles, labels and scale-dependent display rules
  • Build spatial and attribute queries using Boolean logic and spatial predicates
  • Clean CAD geometry and test GIS data using topology and tolerance controls
  • Design object data schemas and map CAD properties to GIS attributes
  • Export quality-checked DWG content to SDF and ESRI Shapefile datasets
  • Produce and present a controlled Map 3D project with documented QA results

Benefits of attending

For you

  • Produce coordinate-controlled operational maps directly from CAD and GIS sources
  • Diagnose projection errors and data displacement before issuing maps
  • Convert DWG content into structured GIS datasets with preserved attributes
  • Apply repeatable geometry cleanup and topology checking procedures
  • Present documented mapping outputs suitable for technical review

For your organisation

  • Reduce rework caused by inconsistent CAD layers, projections and attribute structures
  • Improve exchange of asset, survey and planning data between CAD and GIS teams
  • Produce traceable map outputs with recorded sources, dates and quality checks
  • Standardise DWG-to-GIS conversion procedures for recurring operational requests
  • Support better screening of works against parcels, assets and environmental constraints

Course modules

16 modules over 10 days

Participants can set up a controlled AutoCAD Map 3D workspace for GIS production.

  • Map 3D workspace, Task Pane, command line and drawing settings
  • DWG geometry, object properties, blocks and external reference structures
  • GIS feature classes, attributes, domains and spatial relationship concepts
  • Project folder conventions for source data, drawings, outputs and backups
  • Drawing units, precision settings and coordinate display formats
  • Create a controlled project workspace with relative-path data references

Participants can assign, inspect and troubleshoot coordinate reference systems in Map 3D projects.

  • Assign coordinate systems using Autodesk library codes and EPSG references
  • Distinguish geographic, projected and local coordinate reference systems
  • Transform source layers through approved datum transformation selections
  • Set drawing coordinate systems before connecting geospatial data sources
  • Inspect coordinate metadata, units, extents and axis-order warnings
  • Diagnose displacement caused by unknown projections or incorrect transformations

Participants can connect and manage common GIS, raster and web service data sources.

  • Connect SHP, SDF, SQLite and raster sources through FDO
  • Add WMS and WFS services with layer filtering
  • Configure connection names, credentials and source refresh behaviour
  • Use Data Connect filters to limit loaded feature records
  • Compare direct source connections with imported drawing object workflows
  • Document data lineage, ownership and update frequency for connected layers

Participants can create readable, rule-based map displays from connected spatial data.

  • Display Manager layer groups, draw order and scale ranges
  • Style point, line and polygon features using rule-based themes
  • Apply graduated symbols, unique values and composite style rules
  • Control labels with expressions, placement settings and scale visibility
  • Build reusable layer files for consistent project cartography
  • Inspect rendering performance and simplify overly dense display rules

Participants can build repeatable queries to select, analyse and export relevant spatial records.

  • Construct location, property and spatial queries in Display Manager
  • Use buffer, within, intersects and nearest spatial predicates
  • Combine attribute conditions with spatial selections using Boolean operators
  • Save query definitions for recurring operational map requests
  • Export selected features while preserving required attribute fields
  • Validate query results against source records and map extents

Participants can create editable mapped features and attach structured attribute data to drawing objects.

  • Digitise features with object snaps, tracking and coordinate entry
  • Edit geometry using grips, vertex tools and topology-aware checks
  • Attach object data tables to native AutoCAD drawing objects
  • Create classification definitions for consistent feature categorisation
  • Apply feature labels and annotation without duplicating source attributes
  • Record edit provenance, editor identity and change rationale

Participants can identify and correct common geometry defects before GIS data exchange.

  • Run Drawing Cleanup actions for duplicate objects and undershoots
  • Identify dangles, pseudo-nodes, gaps and polygon overlaps
  • Apply tolerance values without displacing valid surveyed geometry
  • Use topology rules to test coverage connectivity and containment
  • Correct invalid geometry while retaining source identifiers and attributes
  • Produce a data-quality exception list for supervisor review

Participants can structure CAD content for consistent conversion into GIS feature datasets.

  • Design object data tables, field types, defaults and validation rules
  • Create feature classifications with property definitions and display rules
  • Map CAD object properties to GIS attribute schema fields
  • Establish coded value lists for assets, status and ownership
  • Apply naming conventions for layers, fields and feature identifiers
  • Prepare a schema crosswalk between DWG content and GIS datasets

Participants can convert data between DWG and GIS formats while preserving essential spatial and attribute content.

  • Import GIS datasets into drawing objects using controlled attribute mapping
  • Export selected drawing objects to SDF and ESRI Shapefile formats
  • Configure coordinate systems and schema options during data export
  • Use MapImport settings to translate points, lines, polygons and attributes
  • Preserve identifiers, null values and field lengths during conversion
  • Verify exported datasets through reopening, querying and attribute comparison

Participants can manage georeferenced imagery and use it appropriately within Map 3D projects.

  • Attach aerial imagery and scanned plans with coordinate-aware insertion
  • Manage raster display order, transparency, clipping and resolution
  • Reference GeoTIFF imagery without embedding large files in drawings
  • Assess positional fit between imagery, vectors and surveyed control
  • Create image footprints and source metadata for map documentation
  • Set image paths for portable project packages and shared folders

Participants can use Map 3D spatial tools to assess assets, constraints and proposed works.

  • Generate buffers for setbacks, service areas and environmental constraints
  • Overlay selected layers to identify affected assets and parcels
  • Use spatial queries to screen proposed works against restrictions
  • Measure areas, lengths and proximity using defined drawing units
  • Summarise selected asset attributes for maintenance planning decisions
  • Document assumptions, source dates and limitations for analytical outputs

Participants can design legible thematic maps for technical and operational audiences.

  • Build thematic maps using classification methods and attribute expressions
  • Select equal interval, quantile and natural breaks classification methods
  • Apply symbol hierarchy to distinguish primary assets from secondary features
  • Create label expressions for asset codes, dimensions and status
  • Use scale-dependent styling to reduce clutter on operational maps
  • Review colour, lineweight and text choices for print readability

Participants can prepare controlled map layouts for digital issue and printed technical outputs.

  • Configure layouts, viewports, plot scales and coordinate grid settings
  • Create map surrounds with titles, legends, north arrows and scale bars
  • Publish DWF and PDF map outputs with controlled layers
  • Set plot styles, page setups and monochrome print standards
  • Prepare map series layouts for repeatable area-based reporting
  • Check output coordinates, legends, dates and source acknowledgements

Participants can apply practical controls for shared drawings, source data and project handovers.

  • Connect approved enterprise spatial sources using managed data connections
  • Distinguish drawing-based edits from edits made in authoritative GIS databases
  • Apply check-out, naming and version-control procedures for shared drawings
  • Manage external references and data paths within multi-user project folders
  • Use access permissions and read-only sources to prevent unintended changes
  • Prepare handover packages containing drawings, data, metadata and output files

Participants can define QA controls and document repeatable Map 3D production procedures.

  • Define acceptance criteria for geometry, attributes, projection and map output
  • Build a QA checklist covering source, edits, queries and exports
  • Sample records using risk-based checks for high-consequence asset data
  • Reconcile CAD edits with GIS update requests and issue logs
  • Create metadata notes covering lineage, accuracy, currency and restrictions
  • Plan repeatable workflows for routine mapping, inspection and reporting tasks

Participants can build, review and present a complete Map 3D project containing connected data, spatial analysis, mapped outputs and QA documentation.

  • Build a controlled Map 3D project from supplied asset and parcel data
  • Connect source datasets, assign coordinate systems and document lineage
  • Clean geometry, structure attributes and apply agreed feature classifications
  • Analyse proposed works using buffers, overlays and spatial query criteria
  • Produce a plotted operational map and exchange-ready GIS dataset
  • Present QA findings, assumptions, limitations and handover recommendations

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

What you take back to work

  1. Map 3D project folder template
  2. Coordinate reference system decision checklist
  3. CAD-to-GIS schema crosswalk
  4. Geometry cleanup and topology QA checklist
  5. Operational map layout template
  6. Capstone mapping project package

Who should attend

  • GIS Technician — needs controlled methods for combining CAD drawings and GIS layers
  • GIS Analyst — needs Map 3D tools for operational mapping and spatial screening
  • CAD Technician — needs to structure drawings for GIS exchange and maintenance
  • Utility Asset Coordinator — needs accurate asset drawings linked to attribute records
  • Survey and Mapping Officer — needs coordinate-controlled workflows for survey deliverables
  • Infrastructure Planner — needs to assess proposed works against mapped constraints

Skills and tools covered

Spatial data connectionCoordinate system managementCAD-GIS data conversionThematic map productionTopology quality controlSpatial query analysis

Tools and standards

Autodesk AutoCAD Map 3D, Feature Data Objects (FDO), ESRI Shapefile, OGC WMS and WFS

How the course runs

Training methodology

The course uses short instructor briefings followed by guided work in AutoCAD Map 3D. Participants work with realistic spatial datasets including assets, parcels, imagery and proposed works areas. Demonstrations show each method before participants apply it to progressively more demanding mapping tasks. Group reviews focus on coordinate choices, geometry errors, query logic, styling decisions and output quality. Simulated technical reviews build confidence in explaining data lineage, assumptions and QA findings. Participants also prepare an application plan for a current mapping or data-conversion requirement.

Requirements and prerequisites

Participants should be comfortable using Windows file management and have basic experience of AutoCAD drawing commands, layers, object selection and properties. They should understand common GIS concepts such as features, attributes, layers and coordinate systems, gained through work experience or prior GIS training. Experience with spatial data formats such as SHP, DWG or raster imagery is useful. Participants do not need programming, database administration, survey adjustment skills or prior AutoCAD Map 3D experience. Advanced desktop GIS analysis is not assumed.

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 need basic AutoCAD familiarity and working knowledge of GIS features, attributes and coordinate systems. No prior AutoCAD Map 3D experience, programming or database administration is required.

A laptop is not normally required for classroom delivery because the training environment is provided. Participants may bring non-sensitive sample drawings, layer conventions or mapping requirements for discussion with the instructor.

The course is designed for GIS technicians, GIS analysts, CAD technicians, survey staff, utility asset teams and infrastructure planners. It is particularly relevant where DWG drawings must be converted, checked or used alongside GIS datasets.

Standard AutoCAD courses focus primarily on drafting, while desktop GIS courses concentrate on GIS data management and analysis. This course focuses on the working connection between CAD drawing content and geospatial data using AutoCAD Map 3D tools.

Participants can use the methods for asset mapping, survey drawing conversion, parcel mapping, utility coordination, environmental constraint screening and technical map production. The templates and capstone workflow are designed for adaptation to internal procedures.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first part of the course establishes data connection, coordinate, editing and styling skills; later modules address analysis, outputs, QA and the capstone project.

Questions about this course?

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