
Piping Engineering Course
Master every stage of piping engineering, from material selection and stress analysis to 3D modeling and pressure testing. This course gives you the technical depth and practical tools that process plant employers demand. Whether you're entering the field or advancing your career, this is the training that closes the gap between theory and real project work.
What your team will master:
You will build a complete foundation in piping engineering, covering industry codes, pipe materials, component selection, and fluid flow principles. You will learn how to size pipes, develop P&IDs, and produce construction-ready isometric and orthographic drawings. The course covers pipe stress analysis, support design, and nozzle load evaluation using industry-standard methods. You will also gain hands-on knowledge of corrosion mechanisms, fitness-for-service assessment, and in-service inspection planning. Advanced topics include dynamic loads, high-pressure systems, multidiscipline coordination, and digital tools such as 3D modeling and laser scanning.
How your team learns in practice Piping Engineering Course
How your team practices Piping Engineering Course
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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 • Role of Piping in Process Plants
Defines piping systems within oil, gas, chemical, and power industries. Connects system purpose to plant safety, efficiency, and regulatory compliance.
Lesson 2 • Units, Terminology, and Documentation
Standardizes engineering units, abbreviations, and document types used throughout the discipline. Prepares students to read and produce technical piping documents accurately.
Lesson 3 • Industry Codes and Standards Overview
Introduces the framework of international piping codes and material standards. Establishes why code compliance governs every design and fabrication decision.
Lesson 4 • Pipe Materials and Properties
Covers metallic and non-metallic pipe materials and their mechanical properties. Enables selection based on fluid type, temperature, and pressure conditions.
Lesson 5 • Piping Components and Fittings
Identifies flanges, elbows, tees, reducers, and valves as standard piping components. Builds component recognition needed for design and specification tasks.
Chapter 2HideHide detailsSee detailsPiping Design Fundamentals
Piping Design Fundamentals
Lesson 1 • Piping Layout and Arrangement
Covers routing principles, clearances, and accessibility requirements for plant piping. Produces layouts that balance operability, maintenance, and structural support needs.
Lesson 2 • Piping and Instrumentation Diagrams
Teaches reading and developing P&IDs as the primary process design document. Connects P&ID symbols to physical components and control logic.
Lesson 3 • Pipe Sizing and Velocity Criteria
Establishes allowable velocity and pressure-drop criteria for liquid and gas services. Translates hydraulic calculations into nominal pipe size selection.
Lesson 4 • Fluid Flow Principles in Pipes
Applies continuity, Bernoulli, and friction-loss equations to pipe flow. Provides the hydraulic basis for all sizing and pressure-drop calculations.
Lesson 5 • Pressure-Temperature Ratings
Explains how pressure classes and temperature derating govern component selection. Links material properties to safe operating envelopes for piping systems.
Chapter 3HideHide detailsSee detailsPipe Stress Analysis Principles
Pipe Stress Analysis Principles
Lesson 1 • Pipe Support Design
Classifies support types and establishes span limits for sustained load control. Connects support selection to stress analysis results and structural interfaces.
Lesson 2 • Nozzle and Equipment Loads
Evaluates forces and moments transmitted from piping to rotating and static equipment nozzles. Applies vendor allowable load criteria to verify acceptable piping configurations.
Lesson 3 • Introduction to Stress Analysis Software
Demonstrates model building, load case setup, and result interpretation in pipe stress software. Prepares students to perform and review computer-aided stress analyses.
Lesson 4 • Stress Categories in Piping
Defines sustained, occasional, and displacement stress categories per code requirements. Establishes the basis for evaluating each load type independently.
Lesson 5 • Thermal Expansion and Flexibility
Quantifies thermal growth and explains how pipe routing absorbs expansion. Guides loop, offset, and expansion joint selection to control thermal stress.
Chapter 4HideHide detailsSee detailsPiping Specifications and Material Selection
Piping Specifications and Material Selection
Lesson 1 • Valve Selection and Specification
Covers gate, globe, ball, butterfly, and check valve selection criteria. Links valve type to isolation, throttling, and non-return service requirements.
Lesson 2 • Piping Material Requisition
Structures material take-off and requisition documents for procurement. Bridges engineering specifications to purchasing and supply chain activities.
Lesson 3 • Gasket and Bolt Specification
Defines gasket types, materials, and bolt grades for flanged joint integrity. Ensures correct sealing under operating and hydrostatic test conditions.
Lesson 4 • Insulation and Tracing Specification
Specifies thermal insulation and heat tracing for process temperature maintenance and personnel protection. Connects insulation thickness to heat-loss calculations.
Lesson 5 • Piping Material Class Concept
Explains how material classes group compatible components for a defined service. Enables engineers to assign correct classes to all lines on a project.
Chapter 5HideHide detailsSee detailsPiping Drawings and 3D Modeling
Piping Drawings and 3D Modeling
Lesson 1 • Piping Isometric Drawings
Develops skills in reading and producing isometric drawings for fabrication and construction. Connects isometrics to material take-off and weld mapping.
Lesson 2 • 3D Plant Modeling Fundamentals
Introduces intelligent 3D modeling environments for plant design and clash detection. Demonstrates how 3D models drive downstream deliverable generation.
Lesson 3 • Orthographic Piping Plans and Sections
Teaches plan, elevation, and section view conventions for piping drawings. Establishes the drawing standards that govern all 2D piping deliverables.
Lesson 4 • Model-Based Material Take-Off
Extracts accurate material quantities directly from 3D models for procurement. Validates take-off accuracy against piping specifications and line lists.
Lesson 5 • Drawing Issue and Revision Control
Establishes workflows for drawing issue, review, and revision in project environments. Ensures all stakeholders work from current and approved drawing revisions.
Chapter 6HideHide detailsSee detailsPressure Testing and Inspection
Pressure Testing and Inspection
Lesson 1 • Inspection and Test Records
Structures inspection and test record systems for regulatory and handover compliance. Ensures traceability from material certification through final acceptance.
Lesson 2 • Non-Destructive Examination Methods
Introduces radiographic, ultrasonic, magnetic particle, and liquid penetrant examination. Links NDE method selection to weld joint category and service severity.
Lesson 3 • Weld Quality and Joint Efficiency
Explains weld joint categories, examination percentages, and joint efficiency factors. Connects examination extent to allowable stress and design margins.
Lesson 4 • Leak Testing Methods
Compares sensitive leak test techniques including bubble, halogen, and helium methods. Selects appropriate methods based on service criticality and detectability requirements.
Lesson 5 • Pressure Test Requirements and Planning
Defines test pressure, medium, and boundary requirements per piping codes. Produces test packages that satisfy code and project safety requirements.
Chapter 7HideHide detailsSee detailsPiping System Integrity and Corrosion
Piping System Integrity and Corrosion
Lesson 1 • Corrosion Mechanisms in Piping
Identifies general, pitting, crevice, erosion, and stress corrosion cracking mechanisms. Links each mechanism to specific fluid environments and material combinations.
Lesson 2 • Corrosion Allowance and Inhibition
Applies corrosion rate data to establish design corrosion allowances and service life. Evaluates chemical inhibition and coating strategies for corrosion control.
Lesson 3 • In-Service Inspection Techniques
Covers online and offline inspection methods for wall thickness and defect monitoring. Builds risk-informed inspection planning skills for operating facilities.
Lesson 4 • Integrity Management Programs
Structures a piping integrity management program integrating inspection, monitoring, and risk data. Aligns program outputs with regulatory reporting and asset management objectives.
Lesson 5 • Fitness-for-Service Assessment
Applies fitness-for-service methodology to evaluate corroded or damaged piping. Determines whether piping can continue operating, requires repair, or must be replaced.
Chapter 8HideHide detailsSee detailsAdvanced Piping Design and Project Execution
Advanced Piping Design and Project Execution
Lesson 1 • Dynamic Loads and Vibration Control
Analyzes slug flow, water hammer, and mechanical vibration as dynamic piping loads. Applies damper, snubber, and restraint solutions to control dynamic response.
Lesson 2 • Piping Engineering Deliverable Schedule
Plans and tracks piping engineering deliverables against project milestones and construction needs. Applies resource loading and critical path awareness to deliverable scheduling.
Lesson 3 • High-Pressure and High-Temperature Systems
Applies advanced code provisions and material selection for extreme service conditions. Addresses creep, fatigue, and special joint requirements in severe service piping.
Lesson 4 • Construction Support and Commissioning
Defines the piping engineer's role during construction, pre-commissioning, and commissioning phases. Resolves field queries, approves deviations, and verifies system readiness.
Lesson 5 • Multidiscipline Interface Management
Coordinates piping design interfaces with civil, structural, mechanical, and electrical disciplines. Resolves conflicts through formal interface registers and design freeze milestones.
Your valid completion certificate
This course is for you:
Junior piping designer: wants structured knowledge to replace trial-and-error habits.
Mechanical engineer: transitioning into process plant or energy sector piping roles.
Plant inspector: seeking design context to strengthen fitness-for-service evaluations.
Instrumentation technician: expanding scope to include piping coordination responsibilities.
Construction supervisor: building technical depth to resolve field engineering queries independently.
Career changer: entering the energy industry from a related technical background.
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