Pideya Learning Academy

Piping System Design and Maintenance Techniques

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
03 Feb - 07 Feb 2025 Live Online 5 Day 2750
17 Mar - 21 Mar 2025 Live Online 5 Day 2750
05 May - 09 May 2025 Live Online 5 Day 2750
19 May - 23 May 2025 Live Online 5 Day 2750
14 Jul - 18 Jul 2025 Live Online 5 Day 2750
01 Sep - 05 Sep 2025 Live Online 5 Day 2750
17 Nov - 21 Nov 2025 Live Online 5 Day 2750
01 Dec - 05 Dec 2025 Live Online 5 Day 2750

Course Overview

The Pideya Learning Academy proudly presents the “Piping System Design and Maintenance Techniques” training program—an in-depth, technically robust course designed to equip engineering professionals with the knowledge needed to design, maintain, and manage high-integrity piping systems in complex industrial environments. With piping systems forming the lifeblood of facilities across oil & gas, chemical processing, energy production, and refining sectors, this training provides participants with an essential understanding of engineering standards, system behavior, and long-term maintenance strategies.
Globally, mechanical integrity issues remain a major concern across processing plants. According to the 2023 report by the American Petroleum Institute (API), over 60% of unplanned shutdowns in refineries and chemical facilities are traced to piping-related mechanical failures. Similarly, findings by the U.S. Chemical Safety Board (CSB) indicate that more than 30% of industrial incidents are due to improper design, corrosion, or inadequate inspection of process piping. These statistics underline the urgent need for industry professionals to attain code literacy and master the tools needed to uphold piping integrity throughout a system’s lifecycle.
In response to this need, Pideya Learning Academy has carefully structured this training to align with globally recognized standards such as ASME B31.3, API 570, and related codes. The course delves into piping system design fundamentals, materials engineering, fabrication techniques, system stress evaluation, code interpretation, and inspection best practices. Participants will develop a strong grasp of how different piping materials behave under varying pressure and temperature conditions, and how to make design decisions that reduce operational risks and extend asset life.
The training is further enriched with technical case reviews that offer insights into real-world failures and their corrective strategies. This empowers participants to avoid similar challenges by applying best practices in system layout, corrosion control, stress management, and life assessment. From understanding the concept of Maximum Allowable Working Pressure (MAWP) to identifying non-compliance risks during inspection and maintenance, attendees will gain a comprehensive skill set to support safe, economical, and code-compliant operations.
Integrated into this training experience are several standout features designed to add exceptional value. Participants will benefit from:
A comprehensive breakdown of ASME B31.3 and its implications in design workflows
Real-world application of material selection, fabrication standards, and testing criteria
Focused instruction on flexibility analysis and stress evaluation of piping systems
Clear interpretation of code clauses—both mandatory and non-mandatory
Insight into pressure testing procedures and industry-compliant certification steps
Methods for evaluating repair versus replacement scenarios under API 570
Techniques for calculating Remaining Life and MAWP for critical piping assets
By the end of the program, participants will not only be fluent in interpreting key code requirements but also confident in applying them to engineering, maintenance, and inspection tasks. The “Piping System Design and Maintenance Techniques” course represents Pideya Learning Academy’s continued commitment to advancing engineering excellence across sectors where piping reliability and safety are mission-critical.
Whether you’re involved in new construction, retrofitting existing systems, or overseeing long-term maintenance, this course offers indispensable knowledge and technical insight to elevate your professional expertise and contribute to safer, more efficient operations.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn:
The structural intent and organizational layout of ASME B31.3 process piping code
Techniques to interpret both explicit and implied requirements in piping standards
Key factors to consider in designing refinery and chemical plant piping systems
Pressure design principles for pipes, fittings, flanges, and special components
Methods to perform flexibility analysis and assess mechanical limits of piping systems
Strategies for optimizing piping layouts for safety and efficiency
Guidelines for selecting suitable materials, fabrication, erection, and testing methods
Code-specific mandatory requirements, service restrictions, and compliance boundaries
Certification procedures for pressure testing and safety verification
The basis of piping inspection and fitness-for-service assessment in line with API 570
How to calculate Remaining Life and determine MAWP of critical piping systems

Personal Benefits

Strong foundational and advanced knowledge of process piping codes
Increased confidence in design decisions and maintenance planning
Ability to interpret and apply industry-recognized standards effectively
Expanded career opportunities in piping design, inspection, and reliability engineering
Enhanced technical credibility and decision-making ability

Organisational Benefits

Improved compliance with international codes and standards
Enhanced safety performance and reduced mechanical integrity failures
Cost-effective design, inspection, and repair decisions across the asset lifecycle
Consistent application of standardized fabrication and inspection procedures
Strengthened organizational reputation through regulatory alignment

Who Should Attend

Engineers involved in piping design, maintenance, and plant construction
Piping and mechanical engineers seeking deeper understanding of code compliance
Fabricators, erectors, and suppliers aiming to align with international standards
Inspectors and examiners responsible for pressure testing and system certification
Maintenance engineers managing pipeline integrity and asset life extension
Supervisors and team leads overseeing piping fabrication and installation projects

Course Outline

Module 1: Fundamentals of Piping Systems and Components
Functional roles of piping in industrial processes Overview of piping construction and classifications Types of piping components: pipes, elbows, tees, reducers, caps Mechanical components: flanges, gaskets, bolting, expansion joints Inline process equipment: valves, pumps, filters, and control devices Rotating equipment: centrifugal and reciprocating pumps, compressors Classification of static and dynamic equipment in piping systems
Module 2: Engineering Design Environment and Documentation Standards
Organizational structure of piping design projects Responsibilities of piping designers and drafters Drawing office tools and documentation workflow CAD systems and digital drafting tools Technical drawing types: PFDs, P&IDs, general arrangements, isometrics Usage of dimensional notations and scale in technical drawings Instrumentation representation and data annotations Compilation of Bills of Materials (BoM) for procurement and construction
Module 3: Design Methodologies in Industrial Piping
Layout design: piping routes, space utilization, and clearance zones Design principles for piping support and hanger systems Thermal insulation methods and cladding options Heat tracing systems for process continuity Vent and drain requirements for maintenance and safety Equipment nozzle orientation and connection strategies
Module 4: Compliance Codes, Standards, and Technical Terminology
Overview of piping codes and regulatory standards Material standards: ASME, ASTM, ISO, DIN Dimensional and tolerance codes for fittings and connections Fastening systems and flange rating classifications Abbreviations used in industrial drawings and technical specifications Chemical and physical identifiers in industrial terminology
Module 5: Pressure Design Charts and Piping Data Interpretation
Reading piping data charts and tabulated specifications Pressure-temperature rating tables for piping components Classification of service ratings for flanges and valves Use of material rating tables and corrosion allowances
Module 6: Piping Sizing, Stress Analysis, and Flexibility
Pipeline sizing principles based on flow characteristics Calculation methods for pipe wall thickness Use of design equations from international codes Stress classification: primary, secondary, and thermal Flexibility analysis: expansion loops and anchors Preliminary flexibility checks using empirical methods Criteria for formal stress analysis
Module 7: Relief Systems and Overpressure Protection
Function of safety and relief valves in piping systems Sizing methodology for pressure safety valves (PSVs) Set pressure, accumulation, and blowdown considerations Discharge piping layout and backpressure analysis
Module 8: Fabrication Technologies and Material Selection
Overview of pipe manufacturing and inspection processes Welding technologies: SMAW, GTAW, GMAW, FCAW Non-welded jointing methods: flanged, threaded, grooved Application and selection of filler materials Fabrication drawings: isometrics, spools, and fabrication schedules Quality assurance: WPS, PQR, and welder qualification Criteria for selecting piping materials based on service conditions
Module 9: Industry Codes for Design and Construction
ASME B31.3: Process Piping Design Criteria API 1104: Pipeline welding and joining regulations ASME B36.10M: Nominal pipe size and wall thickness standards ASME B16.9: Butt-weld fittings dimensional standards ASME B16.5: Flange pressure ratings and compatibility
Module 10: Advanced Piping System Considerations
High-temperature and cryogenic piping requirements Corrosion mechanisms and mitigation strategies Piping systems for hazardous and toxic fluids Dynamic loading: surge, vibration, and seismic effects Integration with pressure vessels and heat exchangers Lifecycle cost considerations and maintainability

Have Any Question?

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