Chemical, Oil & Gas Industry Piping Design

Course Objectives

  • ✔️ Understand the principles and practices of piping design for oil, gas, and chemical industries
  • ✔️ Apply relevant industry codes and standards (e.g., ASME, API, ANSI) to the design of piping systems
  • ✔️ Select appropriate materials for different piping applications in harsh environments
  • ✔️ Develop piping layouts, including flow diagrams and isometrics
  • ✔️ Perform stress analysis of piping systems and design for flexibility and support
  • ✔️ Address corrosion, insulation, and safety considerations in piping systems
  • ✔️ Design for process safety and risk mitigation, including pressure relief systems

Course Outline

  • ✔️ Overview of the oil, gas, and chemical industries: upstream, midstream, downstream
  • ✔️ Role of piping systems in industrial processes
  • ✔️ Types of piping systems (transport, process, utility)
  • ✔️ Key components in piping systems: pipes, valves, pumps, and fittings
  • ✔️ Introduction to major piping standards and codes: ASME B31.3, API 570, ANSI, ISO
  • ✔️ Basic principles of piping design
  • ✔️ Material selection for different piping applications
  • ✔️ Common piping materials: carbon steel, stainless steel, alloys, and non-metals
  • ✔️ Material properties: strength, ductility, and corrosion resistance
  • ✔️ Effects of corrosion and methods of corrosion prevention (coatings, inhibitors, cathodic protection)
  • ✔️ Selecting materials based on pressure, temperature, and fluid type
  • ✔️ Case study: Material selection for a chemical reactor system
  • ✔️ Detailed overview of ASME B31.3 (Process Piping), ASME B31.4 (Pipeline), ASME B31.8 (Gas Transmission), and API standards
  • ✔️ Codes for pipe supports, hangers, and expansion joints
  • ✔️ Pressure testing and inspection requirements
  • ✔️ Specifying piping materials, sizes, and pressure ratings
  • ✔️ Application of ANSI, ASTM, and API codes in the design of piping systems
  • ✔️ Case study: Compliance with ASME B31.3 in an oil refinery
  • ✔️ Piping layout design: factors influencing routing, space constraints, and process requirements
  • ✔️ Designing for easy maintenance and safety
  • ✔️ Flow design: straight runs, elbows, tees, and connections
  • ✔️ Considerations for equipment and piping access
  • ✔️ Designing for thermal expansion and contraction
  • ✔️ Use of P&ID and PFD in piping system layout
  • ✔️ Piping isometric drawings and construction details
  • ✔️ Introduction to piping stress analysis
  • ✔️ Types of stresses: thermal, pressure, and mechanical
  • ✔️ Pipe supports and anchors: types, location, and selection
  • ✔️ Expansion loops, offsets, and guides for thermal expansion
  • ✔️ Stress analysis tools and methods: Manual calculations vs. CAESAR II or similar software
  • ✔️ Application of flexibility in design to reduce stress and fatigue
  • ✔️ Case study: Stress analysis of a high-temperature chemical pipeline
  • ✔️ Importance of pipe supports in ensuring safe operation
  • ✔️ Types of supports: fixed, spring, adjustable, and friction-type
  • ✔️ Design considerations for hangers and bracing systems
  • ✔️ Methods for calculating the number and type of supports required
  • ✔️ Impact of pipe supports on stress and system flexibility
  • ✔️ Case study: Designing a support system for an offshore pipeline
  • ✔️ Fabrication processes for piping systems
  • ✔️ Types of welding: butt welding, socket welding, and flanged connections
  • ✔️ Welding standards and quality control (e.g., NDT, visual inspection, radiographic testing)
  • ✔️ Importance of welding procedures and safety practices
  • ✔️ Material handling and preparation for welding
  • ✔️ Case study: Welding considerations for a chemical plant piping system
  • ✔️ Introduction to process safety management and risk analysis
  • ✔️ Pressure relief and safety systems in piping design
  • ✔️ Designing for overpressure protection: PSVs, PRVs, and rupture discs
  • ✔️ Calculating required relief valve sizes based on flow rate and pressure conditions
  • ✔️ Incorporating safety devices into P&ID and piping layout
  • ✔️ Case study: Pressure relief system for a high-pressure gas pipeline
  • ✔️ Importance of thermal insulation for hot and cold piping systems
  • ✔️ Types of insulation materials and their applications
  • ✔️ Design considerations for fireproofing and passive fire protection in piping systems
  • ✔️ Designing for temperature extremes: hot oil pipelines, steam lines
  • ✔️ Reducing heat loss and energy efficiency in piping systems
  • ✔️ Case study: Insulation design for a steam distribution system
  • ✔️ Special considerations for offshore and subsea pipeline design
  • ✔️ Offshore pipeline materials, corrosion protection, and installation techniques
  • ✔️ Subsea pipeline routing and installation methods
  • ✔️ High-temperature piping systems: material selection and thermal management
  • ✔️ Design for subsea risers, flowlines, and umbilicals
  • ✔️ Case study: Design of a subsea pipeline for an oil production platform
  • ✔️ Maintenance practices for oil, gas, and chemical piping systems
  • ✔️ Routine inspection and testing methods: pressure testing, leak detection, and integrity assessment
  • ✔️ Common piping issues: corrosion, vibration, fatigue, and leakage
  • ✔️ Troubleshooting piping system failures
  • ✔️ Case study: Maintenance and troubleshooting of a refinery pipeline
  • ✔️ Performance optimization and retrofit of piping systems
  • ✔️ Group project: Design a piping system for a chemical process (including material selection, layout, stress analysis, and safety considerations)
  • ✔️ Review of course concepts and practical applications
  • ✔️ Final exam: Piping system design, stress analysis, material selection, and code compliance
  • ✔️ Course wrap-up and feedback