
Plant 3D Design Course
Master plant 3D design from the ground up — covering piping, equipment, structural steel, and clash detection. This course takes you from software basics to producing professional deliverables used on real industrial projects. Build the technical skills that engineering and design firms demand.
What you'll learn:
You will learn to navigate a professional plant 3D design environment and apply industry-standard workflows across every major discipline. The course covers P&ID interpretation, equipment modelling, piping routing, structural steel, and clash detection. You will produce isometric drawings, material takeoffs, and general arrangement drawings directly from the 3D model. Advanced topics include stress analysis integration, laser scanning, digital twin concepts, and AI-assisted design tools. By the end, you will be equipped to contribute to complex plant design projects with confidence.
How you study in practice Plant 3D Design Course
How you practise Plant 3D Design Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsIntroduction to Plant 3D Design
Introduction to Plant 3D Design
Lesson 1 • Project Structure and File Management
Defines project hierarchy, file types, and data organisation within the software. Proper file management prevents data loss and supports team collaboration.
Lesson 2 • Coordinate Systems and Navigation
Explains 3D coordinate systems, view orientations, and model navigation techniques. Accurate spatial understanding is essential for all modelling tasks ahead.
Lesson 3 • Software Interface and Workspace Setup
Introduces the 3D design application interface, toolbars, and workspace configuration. Students gain confidence navigating the environment before modelling begins.
Lesson 4 • Overview of Plant Design Fundamentals
Covers core plant design terminology, disciplines, and workflow stages. Establishes the conceptual framework used throughout all subsequent chapters.
Chapter 2HideHide detailsSee detailsPiping and Instrumentation Diagrams
Piping and Instrumentation Diagrams
Lesson 1 • Linking P&IDs to the 3D Model
Explains how P&ID data is imported or referenced within the 3D environment to drive model content. This connection ensures design consistency between documents.
Lesson 2 • Reading and Interpreting P&IDs
Guides students through systematic P&ID reading, tracing flow paths, and identifying design intent. Accurate interpretation prevents costly 3D modelling errors.
Lesson 3 • P&ID Symbols and Notation
Teaches standard symbols for equipment, instruments, valves, and lines used on P&IDs. Symbol literacy is the prerequisite for all piping modelling work.
Lesson 4 • Instrumentation and Control Elements
Covers placement and representation of instruments and control devices as 3D objects. Correct instrument placement supports accurate clash detection and spacing checks.
Chapter 3HideHide detailsSee detailsEquipment Modelling and Placement
Equipment Modelling and Placement
Lesson 1 • Modelling Rotating Equipment
Addresses pumps, compressors, and heat exchangers as 3D catalogue or custom objects. Accurate rotating equipment models are critical for piping route planning.
Lesson 2 • Equipment Attributes and Properties
Covers assigning tag numbers, service descriptions, and material properties to equipment objects. Rich attribute data enables accurate material takeoffs and reports.
Lesson 3 • Equipment Specification Data
Explains how to extract dimensions, nozzle schedules, and orientation data from equipment datasheets. Specification-driven modelling ensures accuracy from the start.
Lesson 4 • Equipment Placement and Orientation
Teaches precise placement using coordinates, elevation references, and orientation constraints. Correct placement is the foundation for all downstream piping and structural work.
Lesson 5 • Modelling Vessels and Tanks
Covers parametric creation of pressure vessels, storage tanks, and columns using catalogue tools. Students build reusable equipment models with correct nozzle positions.
Chapter 4HideHide detailsSee detailsPiping Routing and Specification
Piping Routing and Specification
Lesson 1 • Fittings, Valves, and Inline Components
Teaches insertion of elbows, reducers, flanges, valves, and specialty items from the spec catalogue. Correct component selection ensures constructability and code compliance.
Lesson 2 • Piping Specifications and Line Lists
Explains piping class specifications, pressure-temperature ratings, and line list data. Specification selection governs every component placed in the piping model.
Lesson 3 • Pipe Supports and Hangers
Introduces standard support types, spacing guidelines, and anchor point placement in the model. Support modelling is essential for stress analysis and fabrication planning.
Lesson 4 • Branch Connections and Headers
Addresses tee, weldolet, and reinforced branch connections within the piping model. Proper branch modelling prevents structural weakness and supports stress analysis.
Lesson 5 • Pipe Routing Techniques
Covers orthogonal and isometric routing methods, slope requirements, and routing constraints. Students apply systematic routing strategies to minimise clashes and material waste.
Chapter 5HideHide detailsSee detailsStructural Modelling and Steel Design
Structural Modelling and Steel Design
Lesson 1 • Concrete and Civil Elements
Covers modelling of foundations, pits, trenches, and paving within the 3D environment. Civil elements define grade-level constraints for all above-grade design work.
Lesson 2 • Structural Steel Fundamentals
Covers steel section types, member roles, and connection concepts used in plant structures. Understanding structural behaviour informs correct member selection and placement.
Lesson 3 • Modelling Pipe Racks and Sleepers
Teaches creation of pipe rack bents, longitudinal members, and sleeper supports. Pipe racks are the primary routing infrastructure in most plant layouts.
Lesson 4 • Structural and Piping Integration
Explains how structural and piping models are combined and checked for spatial conflicts. Integration at this stage prevents costly rework during detailed design.
Lesson 5 • Equipment Support Structures
Addresses platforms, stairways, ladders, and equipment pads as structural model objects. Accurate support structures ensure safe access and correct equipment elevation.
Chapter 6HideHide detailsSee detailsClash Detection and Model Review
Clash Detection and Model Review
Lesson 1 • Clash Detection Principles
Defines hard, soft, and clearance clashes and explains their impact on constructability. Understanding clash types guides prioritisation and resolution strategies.
Lesson 2 • Model Review and Walkthrough
Introduces virtual walkthrough tools, section cuts, and visual review techniques for design validation. Walkthroughs reveal spatial issues that automated tests may miss.
Lesson 3 • Resolving Clashes and Documenting Changes
Covers resolution strategies, design modification workflows, and change documentation practices. Proper documentation maintains design integrity and audit traceability.
Lesson 4 • Reviewing and Managing Clash Results
Teaches navigation of clash reports, grouping of related issues, and assignment to responsible parties. Structured management prevents clashes from being overlooked or duplicated.
Lesson 5 • Running Clash Detection Tests
Covers configuring and executing clash tests between discipline models within the software. Systematic test setup ensures comprehensive coverage of all potential conflicts.
Chapter 7HideHide detailsSee detailsDrawings, Reports, and Deliverables
Drawings, Reports, and Deliverables
Lesson 1 • Structural and Equipment Drawings
Addresses creation of structural arrangement and equipment layout drawings from model views. Accurate structural drawings support fabrication, procurement, and construction teams.
Lesson 2 • Material Takeoff and Reports
Explains generation of material takeoff reports, valve lists, and equipment lists from model data. Accurate reports drive procurement and cost estimation activities.
Lesson 3 • Drawing Quality Control
Covers drawing checking procedures, standard compliance verification, and revision management. Quality control ensures deliverables meet project and client requirements.
Lesson 4 • Plot Plan and General Arrangement Drawings
Covers extraction and annotation of plot plans and GA drawings from the 3D model. These drawings communicate overall plant layout to all project stakeholders.
Lesson 5 • Piping Isometric Drawings
Teaches automated isometric extraction, bill of materials generation, and isometric annotation. Isometrics are the primary fabrication and construction documents for piping.
Chapter 8HideHide detailsSee detailsAdvanced Modelling and Project Execution
Advanced Modelling and Project Execution
Lesson 1 • Model Handover and As-Built Documentation
Teaches model handover preparation, as-built update procedures, and digital deliverable packaging. A complete handover enables efficient plant operations and future modifications.
Lesson 2 • Design Change Control
Explains change request processing, model update procedures, and impact assessment methods. Controlled change management protects schedule and budget integrity.
Lesson 3 • Multi-Discipline Coordination
Addresses coordination workflows between piping, structural, civil, and electrical disciplines. Structured coordination reduces rework and accelerates design completion.
Lesson 4 • Constructability and Operability Review
Covers constructability analysis, maintenance access verification, and operability checks in the model. These reviews ensure the plant can be built, operated, and maintained safely.
Lesson 5 • Large Model Management
Covers model splitting, reference file strategies, and performance optimisation for large projects. Efficient model management sustains productivity as project complexity grows.
Your valid completion certificate
This course is for you:
Junior piping engineer: wants to move beyond calculations into hands-on 3D modelling work.
CAD drafter: ready to upgrade from 2D drawings to full plant design environments.
Process engineer: needs to read and contribute to 3D models on active projects.
Career changer: has a construction or trades background and is targeting design roles.
Recent engineering graduate: building practical software skills before entering the job market.
Instrumentation technician: wants to understand how field equipment is represented in design models.
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