
Piping Design and Engineering Course
Master every phase of piping design and engineering, from material selection and hydraulic sizing to stress analysis and construction support. This course covers the full technical scope demanded by oil, gas, power, and chemical industries. Build the skills that engineering teams rely on from day one.
What you will learn:
This course covers piping fundamentals, international codes, material selection, and component specification. You will learn to read and produce P&IDs, isometric drawings, and general arrangement drawings. Hydraulic design, wall thickness calculations, and pipe stress analysis are covered in full technical depth. You will also study plant layout, pipe rack design, and equipment piping arrangements. Fabrication, inspection, NDE methods, and commissioning procedures are included to complete your engineering knowledge. Supplementary modules address 3D CAD tools, process safety, integrity management, and project communication skills.
How you study in practice Piping Design and Engineering Course
How you practise Piping Design and Engineering Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Piping Engineering
Foundations of Piping Engineering
Lesson 1 • Piping Components and Their Functions
Surveys fittings, flanges, valves, and supports as system building blocks. Understanding component function is prerequisite to layout and specification work.
Lesson 2 • Core Piping Terminology and Concepts
Defines essential vocabulary: pipe vs. tube, nominal pipe size, schedule, and pressure class. Accurate terminology underpins every design and specification task.
Lesson 3 • Applicable Codes and Standards Framework
Explains the hierarchy of international piping codes, standards bodies, and regulatory requirements. Compliance awareness is compulsory before any design work begins.
Lesson 4 • Piping Materials Fundamentals
Covers carbon steel, stainless steel, alloys, and non-metallic options with selection drivers. Material choice directly affects cost, safety, and service life.
Lesson 5 • Piping Industry Overview and Roles
Introduces the scope of piping engineering across oil, gas, power, and chemical industries. Establishes the professional context for all subsequent technical learning.
Chapter 2HideHide detailsSee detailsPiping Drawings and Documentation
Piping Drawings and Documentation
Lesson 1 • Document Control and Revision Management
Addresses drawing numbering systems, revision clouds, and transmittal procedures. Proper document control prevents costly construction errors.
Lesson 2 • Engineering Drawing Conventions
Covers orthographic projection, line types, scales, and title block requirements. These conventions are the universal language of all piping documentation.
Lesson 3 • Isometric Drawings and Spool Sheets
Covers isometric drawing production, bill of materials, and fabrication spool sheets. Isometrics drive material procurement and shop fabrication.
Lesson 4 • Piping General Arrangement Drawings
Explains plan, elevation, and section views used in general arrangement drawings. GA drawings translate P&ID intent into physical spatial layouts.
Lesson 5 • Process Flow Diagrams and P&IDs
Teaches PFD and P&ID symbology, instrument tagging, and line designation. P&IDs are the primary reference document for all downstream design activities.
Chapter 3HideHide detailsSee detailsPiping Specifications and Material Selection
Piping Specifications and Material Selection
Lesson 1 • Piping Class and Specification Structure
Explains how pipe classes are organised by pressure rating, material, and service. Pipe classes are the primary tool for standardising component selection across a project.
Lesson 2 • Gasket and Fastener Selection
Details gasket types, materials, and bolt load requirements for flanged joints. Proper selection ensures leak-free joints across the full operating range.
Lesson 3 • Material Selection for Process Services
Applies corrosion, temperature, and fluid compatibility criteria to material decisions. Correct selection prevents in-service failures and reduces lifecycle cost.
Lesson 4 • Valve and Specialty Item Specification
Covers valve datasheets, actuator requirements, and specialty item procurement. Valve specifications directly affect process control and safety system performance.
Lesson 5 • Material Take-Off and Requisition
Teaches systematic quantity extraction from drawings and preparation of material requisitions. Accurate take-offs are essential for cost control and procurement scheduling.
Chapter 4HideHide detailsSee detailsPipe Sizing and Hydraulic Design
Pipe Sizing and Hydraulic Design
Lesson 1 • Pump and Compressor System Hydraulics
Analyses system curves, NPSH requirements, and compressor suction conditions. Correct hydraulic design prevents cavitation and ensures reliable rotating equipment operation.
Lesson 2 • Pipe Sizing Criteria and Velocity Limits
Establishes velocity limits for liquids, gases, and two-phase flow to prevent erosion and noise. Sizing criteria balance hydraulic efficiency with mechanical integrity.
Lesson 3 • Pressure Drop Calculation Methods
Covers Darcy-Weisbach, Hazen-Williams, and equivalent length methods for friction loss. Accurate pressure drop prediction ensures adequate flow and avoids over-design.
Lesson 4 • Fluid Flow Fundamentals
Reviews continuity, Bernoulli, and Reynolds number concepts as applied to piping. These principles are the analytical foundation for all hydraulic sizing work.
Lesson 5 • Hydraulic Network Analysis
Introduces loop and branching network analysis for complex distribution systems. Network analysis ensures balanced flow and adequate pressure at all delivery points.
Chapter 5HideHide detailsSee detailsPipe Wall Thickness and Pressure Design
Pipe Wall Thickness and Pressure Design
Lesson 1 • Wall Thickness Calculation Procedure
Applies the standard thickness formula including mill tolerance, corrosion, and thread allowances. Systematic calculation prevents under-design and unnecessary material cost.
Lesson 2 • Pressure Design Principles
Explains hoop stress, design pressure, and allowable stress as the basis for wall thickness. These principles apply universally across all pressure piping code families.
Lesson 3 • Pressure Testing and Leak Testing
Defines hydrostatic, pneumatic, and sensitive leak test requirements and acceptance criteria. Pressure testing is the final verification of pressure boundary integrity before commissioning.
Lesson 4 • Bends, Elbows, and Reducers Under Pressure
Addresses pressure design of curved pipe, mitered bends, and reducers. Component geometry creates stress intensification that must be accounted for in design.
Lesson 5 • Branch Connections and Reinforcement
Covers area replacement method and integrally reinforced fittings for branch design. Unreinforced branches are a common source of pressure boundary failures.
Chapter 6HideHide detailsSee detailsPiping Layout and Plant Design
Piping Layout and Plant Design
Lesson 1 • Valve and Instrument Accessibility
Establishes elevation and reach criteria for manual valves, control valves, and instruments. Inaccessible valves and instruments create operational and safety hazards.
Lesson 2 • 3D Model Development and Review
Guides the progression from preliminary routing to clash-checked 3D model and design review. 3D models are the primary deliverable for construction and procurement.
Lesson 3 • Pipe Rack and Sleeper Design
Addresses pipe rack tier layout, line spacing, and thermal expansion accommodation. Pipe racks carry the majority of plant piping and must be efficiently organised.
Lesson 4 • Equipment Piping Layout Principles
Applies layout rules for pumps, compressors, heat exchangers, and vessels. Equipment-specific layout rules ensure operability, maintenance access, and stress compliance.
Lesson 5 • Plot Plan Development and Equipment Spacing
Covers facility zoning, equipment spacing for fire safety, and access requirements. Plot plan decisions establish constraints for all downstream piping routing work.
Chapter 7HideHide detailsSee detailsPipe Stress Analysis and Flexibility Design
Pipe Stress Analysis and Flexibility Design
Lesson 1 • Flexibility Analysis Methods
Covers simplified span tables, guided cantilever method, and computer-based analysis. Method selection depends on system complexity and code requirements.
Lesson 2 • Pipe Support Design and Placement
Establishes support span limits, anchor and guide placement, and spring hanger selection. Support design controls deflection, vibration, and load transfer to structures.
Lesson 3 • Expansion Loops and Expansion Joints
Designs L-shaped offsets, U-loops, and bellows expansion joints for thermal growth. Proper flexibility design protects equipment nozzles and structural attachments.
Lesson 4 • Nozzle Load Evaluation and Equipment Protection
Evaluates allowable nozzle loads for pumps, vessels, and heat exchangers. Excessive nozzle loads cause misalignment, seal failure, and equipment damage.
Lesson 5 • Loads Acting on Piping Systems
Categorises sustained, occasional, and displacement loads and their code stress limits. Load categorisation determines which stress equations and allowables apply.
Chapter 8HideHide detailsSee detailsPiping Construction, Inspection, and Commissioning
Piping Construction, Inspection, and Commissioning
Lesson 1 • Field Erection and Construction Sequence
Addresses spool erection sequence, field fit-up, and construction interface management. Proper sequencing minimises rework and supports safe construction site operations.
Lesson 2 • Flushing, Cleaning, and Pre-commissioning
Covers hydroflushing, chemical cleaning, and pre-commissioning punch list resolution. System cleanliness is critical to protecting rotating equipment and instrumentation.
Lesson 3 • Weld Inspection and NDE Methods
Explains radiographic, ultrasonic, magnetic particle, and liquid penetrant examination. NDE method selection is driven by material, joint type, and code requirements.
Lesson 4 • Commissioning and Startup Support
Defines the piping engineer's role during system startup, leak checks, and performance verification. Active commissioning support ensures safe and efficient first operation.
Lesson 5 • Pipe Fabrication Methods and Welding
Covers shop and field fabrication, weld joint types, and welding process selection. Fabrication quality directly determines the mechanical integrity of the completed system.
Your valid completion certificate
This course is for you:
Mechanical engineers ready to specialise in industrial piping systems.
Recent engineering graduates entering oil, gas, or chemical plant roles.
Piping designers seeking to deepen their technical engineering knowledge.
Plant maintenance engineers wanting to understand piping integrity and inspection.
Career changers from construction or manufacturing targeting process industry positions.
Instrumentation technicians expanding their scope into piping and layout work.
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