Pideya Learning Academy

Process Equipment Design and Maintenance

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
10 Feb - 14 Feb 2025 Live Online 5 Day 2750
31 Mar - 04 Apr 2025 Live Online 5 Day 2750
12 May - 16 May 2025 Live Online 5 Day 2750
16 Jun - 20 Jun 2025 Live Online 5 Day 2750
21 Jul - 25 Jul 2025 Live Online 5 Day 2750
15 Sep - 19 Sep 2025 Live Online 5 Day 2750
27 Oct - 31 Oct 2025 Live Online 5 Day 2750
24 Nov - 28 Nov 2025 Live Online 5 Day 2750

Course Overview

In today’s highly competitive energy and chemical processing sectors, the ability to effectively design and maintain process equipment is critical to achieving operational excellence, minimizing downtime, and ensuring long-term safety and reliability. The Process Equipment Design and Maintenance training program, developed by Pideya Learning Academy, is an industry-aligned course tailored to provide engineering professionals with in-depth technical knowledge and actionable strategies for designing, selecting, and maintaining core process equipment across oil & gas, petrochemical, and refining industries. This program bridges the gap between theoretical engineering principles and field-oriented design thinking, supporting professionals in delivering efficient and compliant process systems.
As the global demand for energy infrastructure continues to grow, investments in process engineering and equipment modernization are on the rise. According to the International Energy Agency (IEA), global capital expenditure in the oil & gas sector reached over USD 500 billion in 2023, with a significant portion allocated to plant optimization and asset integrity improvements. Similarly, McKinsey & Company notes that process inefficiencies and unplanned downtime cost the global oil & gas industry over USD 60 billion annually. These figures emphasize the urgent need for well-trained professionals who can apply optimized equipment design methodologies, integrate maintenance strategies from the start of the design lifecycle, and ensure regulatory compliance in all phases of project execution.
The training covers a wide spectrum of topics, from the fundamental thermodynamic principles governing process design to advanced equipment specification and evaluation techniques. Participants will gain deep insights into the design and maintenance requirements of pressure vessels, shell and tube heat exchangers, pumps, compressors, separators, columns, and reactors. The course also explores essential support systems such as piping, valves, and instrumentation integration to provide a complete system-level understanding.
To ensure that learners can implement this knowledge effectively, the program introduces key industry codes and standards such as ASME, API, and TEMA, while also emphasizing engineering documentation practices including Process Flow Diagrams (PFDs), Piping and Instrumentation Diagrams (P&IDs), and datasheets. Safety and reliability are embedded throughout the training, with modules focused on equipment lifecycle, failure analysis, and preventive maintenance frameworks that align with modern asset integrity management principles.
Key highlights of the course include:
• Integration of real-life case scenarios to contextualize design decisions and system behavior
• Development of accurate process datasheets and design documentation for critical equipment
• In-depth exposure to thermal and mechanical design considerations for pressure-containing equipment
• Use of rule-of-thumb design formulas and decision-making frameworks for rapid engineering assessments
• Review of engineering standards, design codes, and material selection strategies
• Coverage of common equipment degradation mechanisms and maintenance planning techniques
• Strategies to evaluate equipment lifecycle costs and performance metrics
Through structured modules, expert-led instruction, and engineering-focused content, this Pideya Learning Academy training equips participants with the technical edge to contribute confidently to major design and maintenance projects. Whether involved in new project execution, plant upgrades, or asset troubleshooting, participants will leave with the clarity and confidence to make informed, standards-compliant engineering decisions that enhance operational performance and reduce long-term costs.
This highly relevant course empowers professionals to enhance design quality, extend equipment lifespan, and drive excellence in engineering workflows—making it an essential investment for both individuals and organizations committed to improving their technical capabilities in process equipment design and maintenance.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn to:
Identify and compile fundamental process data required for equipment design
Apply proven process design methods and calculation techniques across various equipment types
Develop, assess, and validate process design specifications for both new installations and revamp projects
Evaluate process equipment based on performance, cost, and reliability considerations
Review contractor design proposals and assist in making technically sound decisions
Incorporate mechanical integrity and safety principles into process designs

Personal Benefits

Gain structured knowledge of end-to-end process equipment design workflows
Learn engineering shortcuts and optimization strategies to accelerate design timelines
Enhance credibility in project design review meetings and technical audits
Improve readiness for roles in design, engineering, operations, or project management
Build a professional edge with specialized design documentation skills

Organisational Benefits

Enhances team capability in designing and assessing process systems for operational efficiency
Reduces external dependency by developing internal design expertise
Improves project cost control through informed equipment sizing and selection
Strengthens safety compliance and risk management through integrated design thinking
Enables better evaluation of vendor and contractor design submissions

Who Should Attend

This course is ideal for:
Process engineers involved in designing or revamping process systems
Mechanical, project, and equipment engineers working in oil & gas, chemical, or petrochemical sectors
Operations and maintenance engineers seeking to understand design principles for better troubleshooting
Technical managers and engineering professionals evaluating vendor design documents and proposals

Course Outline

Module 1: Foundations of Process Engineering Design
Engineering design scope and definitions Functional classification of process systems Constraints in engineering design Categorization of design methodologies Overview of petroleum stream compositions Properties and classifications of hydrocarbons Introduction to continuous process industries Design characterization parameters
Module 2: Hydrocarbon Behavior and Property Evaluation
Physical and thermodynamic properties of hydrocarbons Behavior of defined vs undefined mixtures Petroleum assays and cut point definitions Correlation and estimation methods Critical and pseudo-critical property analysis
Module 3: Process Data Generation and Flow Diagramming
Compilation of process design inputs Development of mass and energy balances Defining design basis and process scope Generating process flow diagrams (PFDs) Process simulation documentation standards Equipment data sheet preparation Accuracy levels and significance criteria
Module 4: Engineering Calculation and Simulation Tools
Empirical calculation methodologies Rigorous thermodynamic modeling techniques Use of commercial process simulators Equipment-specific modeling software Validation and verification of simulation results
Module 5: Process Equipment Design Principles
Categories of chemical process equipment Equipment sizing criteria and methodologies Performance specification sheets Data reconciliation techniques Comparative evaluation of vendor data
Module 6: Process Piping and Hydraulic Analysis
Classification and properties of piping systems Pipe sizing equations and flow parameters Frictional and static pressure loss categories Material compatibility and thermal expansion Analysis of two-phase flow regimes Pressure drop estimation and line sizing
Module 7: Pump System Design and Selection
Types of centrifugal and positive displacement pumps Hydraulic and operational characteristics Design parameters: NPSH, efficiency, flow head Pump sizing calculations and examples Seal design and material selection Specification guidelines and standard compliance Troubleshooting performance issues
Module 8: Compressor Systems and Control
Classification of dynamic and reciprocating compressors Thermodynamic compression cycles Terminology: surge, choke, compression ratio Sizing and selection procedures Anti-surge and recycle control techniques Control panel configuration Seal systems and construction materials
Module 9: Heat Exchangers and Thermal Transfer Equipment
Heat exchanger types: shell-and-tube, plate, finned TEMA standards and mechanical construction Thermal design considerations Fouling factors and performance limitations Reboiler configuration types and roles Air-cooled exchangers: induced vs. forced draft Rating of existing exchangers with calculation methods Plate heat exchanger monitoring and maintenance
Module 10: Fired Process Heaters
Heater categories and applications Burner and combustion system design Flame safety systems and fuel handling Process-fluid heating requirements Control architecture and instrumentation Troubleshooting heater performance issues
Module 11: Process Vessel Engineering
Vertical and horizontal vessel classifications Gas-liquid separation design parameters Internals: distributors, demisters, vane packs Pressure design and mechanical considerations Residence time and surge capacity analysis Common operational issues and corrective actions
Module 12: Fractionation and Separation Columns
Distillation column types and applications Binary and multicomponent separation theory Thermal integration and reboiler systems Tray and packing design principles Process design examples (e.g., stabilizers, splitters) Hydraulic capacity checks and pressure profile Equipment specification data sheets Troubleshooting hydraulic and thermal constraints
Module 13: Reactor System Design
Classification of chemical reactors Fixed-bed and gas-phase reactor considerations Catalyst design and loading techniques Residence time and pressure drop estimations Reactor internals and flow distribution Mechanical design constraints Monitoring and performance analysis
Module 14: Auxiliary Process Equipment
Steam ejector operating principles Vacuum system performance metrics Relief devices and overpressure protection Systematic troubleshooting techniques Redundancy and backup systems
Module 15: Process Safety and Mechanical Integrity
Design codes, standards, and regulatory requirements Process spacing and hazard zoning Selection of construction materials Risk mitigation by design approach Inspection and maintenance planning Corrosion allowance and material degradation
Module 16: Automation and Control Systems
PID control principles Feedback, feedforward, and cascade logic Distributed Control Systems (DCS) architecture Integration with advanced process control (APC) System tuning and performance optimization
Module 17: Materials of Construction and Selection
Criteria for material selection Properties of ferrous and non-ferrous materials Application of polymers and exotic alloys Corrosion mechanisms in process plants Compatibility analysis and degradation mechanisms Standards and codes for pressure equipment materials
Module 18: Hazard Identification and Risk Management
Process hazard analysis techniques Use of HAZOP and What-If reviews Fault tree and event tree analysis Bowtie diagrams and Ishikawa cause mapping Quantitative risk analysis (QRA) Risk ranking matrices and mitigation plans Material Safety Data Sheet (MSDS) interpretation
Module 19: Process Cost Engineering
Cost estimation methods and accuracy ranges Factorial and detailed estimating approaches Equipment cost indexing and escalation Installation cost components Indirect cost allowances Economic evaluation of alternatives
Module 20: Process Design Documentation and Lifecycle
Specification package structure and content Design basis memorandum (DBM) Process datasheets and line lists Integration into FEED and EPC phases Design change control protocols Process design deliverables in project lifecycle Budget allocation and control during design

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