Course Overview
The mechanical reliability of process equipment and piping systems can only be attained if they are designed by knowledgeable engineers and utilised and maintained efficiently. How can organisations address the challenges of process design? What is process equipment design? The most effective equipment is designed based on precise and dependable predictions, as well as proper monitoring and control mechanisms. This training program will provide its participants with an all-inclusive combination of fundamentals, best practices. Delegates will realise real-world tools to enhance the capabilities and develop the performance of design.
What are engineering control measures? These measures will be discovered in Zoe’s “Process Equipment Design and Controls for Operators & Engineers”. This course also focuses on discussing mechanical engineering principles and other engineering techniques including inspection, monitoring, and condition evaluation, which enable mechanical engineers to design and maintain the equipment required by process engineers. This Zoe training course will provide you with an introduction to the fundamentals of process engineering, mechanical engineering, and equipment and materials design.
Why This Course Is Required?
Process equipment reliability and process safety are mission-critical in sectors such as oil and gas, pharmaceuticals, chemicals, and heavy industry where evidence from industry case studies and major incident reviews shows that thoughtful process design, controls integration, and robust maintenance dramatically reduce the risk of operational failures, hazardous releases, and regulatory non-compliance. The complexity of modern process systems requires specialized knowledge in advanced design principles and control integration where upgrades in control systems, pressure relief, condition monitoring, and inherently safer design improve throughput, product quality, and asset integrity while transforming plant performance and safety culture through systematic approach to equipment reliability and operational excellence.
The essential need for comprehensive training in process equipment design and controls is underscored by its critical role in enhanced reliability and plant uptime where proper understanding of modern control systems, predictive analytics, and engineered safety measures is crucial for achieving notable increases in mean time between failures, reduced emergency shutdowns, and fewer catastrophic events. Process equipment professionals must master the principles of regulatory compliance and cost avoidance, understand risk-based pressure relief and inherently safer design approaches, and apply proper engineering and maintenance methodologies to ensure organizations achieve enhanced operational performance, reduced insurance premiums, and competitive advantage through protected assets and improved safety culture.
Research demonstrates that process equipment reliability and process safety are mission-critical in sectors such as oil and gas, pharmaceuticals, chemicals, and heavy industry, with evidence from industry case studies and major incident reviews showing that thoughtful process design, controls integration, and robust maintenance dramatically reduce the risk of operational failures, hazardous releases, and regulatory non-compliance, while upgrades in control systems, pressure relief, condition monitoring, and inherently safer design improve throughput, product quality, and asset integrity.
Course Objectives
Upon completing this Process Equipment Design and Controls for Operators & Engineers training program successfully, participants will be able to:
- Study the different aspects of process design that impact process safety
- Implement a fundamentally safer design for the operation of the entire process plant
- Assess the mechanical reliability of process equipment
- Recognise the hazards related to process fluids in terms of their impact on material degradation
- Abide by the code requirements for sizing relief valves to handle relief streams
- Activate emergency de-pressuring systems (EDP) in case of fire and gas explosions
- Advanced competency in model predictive control (MPC) and advanced process control (APC) systems
- Expertise in hazard and operability studies (HAZOP) and layer of protection analysis (LOPA)
- Enhanced understanding of safety instrumented systems (SIS) and process safety management
- Skills in equipment design optimization and performance monitoring
- Proficiency in regulatory compliance and industry best practices
Master process equipment design excellence and drive operational safety success. Enroll today to become an expert in Process Equipment Design and Controls for Operators & Engineers!
Training Methodology
This collaborative Process Equipment Design and Controls for Operators & Engineers training program will comprise the following training methods:
The training framework includes:
- Expert-led lectures delivered by experienced process engineering professionals covering theoretical foundations
- Interactive seminars and presentations that foster collaborative learning and practical application
- Group discussions and assignments that reinforce process design concepts and safety protocols
- Case studies and functional exercises that simulate real-world equipment design and control scenarios
- Hands-on training with process control systems, safety instrumentation, and design tools
This immersive approach fosters practical skill development and real-world application of process equipment design principles through comprehensive coverage of safety systems, control integration, and advanced engineering methodologies.
Like all our other training programs, this course also follows the ‘Do-Review-Learn-Apply’ model, creating a structured learning journey that transforms process equipment design knowledge into operational excellence through systematic practice and implementation.
Who Should Attend?
This Process Equipment Design and Controls for Operators & Engineers training program would be suitable for:
- Process engineers
- Project engineers and HSE professionals
- Petroleum engineers
- Maintenance & production engineers
- R&D chemists
- Plant chemists
- Technical professionals accountable for maintenance and repair of equipment
- Technical professionals working with risk assessment and integrity analysis
- Specialists involved in inspection and maintenance and repair
- Operations managers and plant supervisors
- Control system engineers and instrumentation specialists
- Safety engineers and process safety professionals
Organisational Benefits
Companies who nominate their employees to participate in this Process Equipment Design and Controls for Operators & Engineers training program can benefit in the following ways:
- Benefit from training your employees on the definition and importance of mechanical information
- Understand in detail, the Hydraulic System guidelines
- Learn and apply standards in equipment identification, equipment design features analysis and equipment performance calculations
- Learn the nuances of safe operation and monitoring of equipment, and their maintenance
- Delegates will be able to apply the gained knowledge through this course and practice skills and that will impact their respective companies
- Maintain better organisational safety records
- Significantly enhanced reliability and plant uptime through companies integrating modern control systems that experience notable increases in mean time between failures
- Better regulatory compliance and cost avoidance through firms that embed risk-based pressure relief and inherently safer design approaches
- Improved operational performance through advanced controls integration and engineered safety measures that reduce emergency shutdowns
- Strengthened competitive positioning through enhanced asset integrity, improved safety culture, and reduced regulatory penalties
Studies show that organizations implementing comprehensive process equipment design training achieve significantly enhanced reliability and plant uptime as companies integrating modern control systems, predictive analytics, and engineered safety measures experience notable increases in mean time between failures, reduced emergency shutdowns, and fewer catastrophic events, better regulatory compliance and cost avoidance as firms that embed risk-based pressure relief and inherently safer design approaches face lower insurance premiums and fewer penalties protecting both people and assets, demonstrating comprehensive process equipment training enables exceptional operational performance and safety excellence.
Empower your organization with process equipment design expertise. Enroll your team today and see the transformation in operational reliability and safety performance!
Personal Benefits
Individuals who participate in this Process Equipment Design and Controls for Operators & Engineers training program can gain from it in the following ways:
- Enhance your career opportunities across worldwide industries of oil and gas, construction, aeronautics, automobile, etc.
- Secure a relevant job anywhere in the world with the right knowledge in Hydraulic Systems
- Get promoted in your current job in the Hydraulic System field
- Acquire the professional skills and knowledge required to accomplish your tasks with optimal competence and accuracy
- Master the knowledge and techniques to see the future of an effective Hydraulic System process
- Discover how to work well with your machines and the risks of not being able to operate them accurately
- Contribute to your organisation strategically with respect to equipment design and controls
- Get an opportunity to work through hands-on exercises in detail
- Will gain the skills needed to facilitate a Hydraulic System study
- Gain the skills to plan, manage, facilitate, and scribe for a Hydraulic System project
- Advanced expertise in process engineering and control systems
- Enhanced career prospects and marketability in oil and gas, chemicals, and process industries
- Improved ability to lead process safety initiatives and manage complex engineering projects
- Greater competency in hazard analysis and risk management techniques
- Increased capability to mentor and develop other process professionals
- Enhanced understanding of emerging process technologies and safety standards
Course Outline
Module 1: Fundamentals of Process Engineering
- Mass and energy balances
- Reactor types
- Process & Engineering Diagrams
- Flammability
- Electrical area classification
- Risk Management and Hazard Studies
- Process design establishing sequence of chemical and physical operations with operating conditions
- Material and energy balance calculations for complete process characterization
- Process flow diagrams (PFD) as schematic representation of overall process and equipment
- Piping and instrumentation diagrams (P&ID) showing detailed piping, instruments, and control systems
Module 2: Overview of Safety in Process Design
- Definition of Safety in Process Design
- The Components of Process Safety
- Risk Identification and Safety Analysis
- Process Hazard Analysis: HAZOP, LOPA, FMEA
- Hazards Associated with Specific Plant Systems
- Elimination of Hazards through Process Design
- Obstruction of Human Error with Process Control and Monitoring Techniques
- Inherently safer design principles for hazard elimination through process modification
- Process hazard analysis methods for systematic risk identification and evaluation
- Safety instrumented systems (SIS) for automated protection and emergency response
- Human error prevention through robust control systems and monitoring techniques
Module 3: Inherently Safer Design
- What is Inherently Safer Design?
- Pre-Design and Design Phases
- Materials of Construction and Optimized Fabrication
- Process Fluids and Chemical Reaction Hazards
- Corrosion, Erosion, and Material Degradation
- Leakage and Loss of Primary Containment
- Dispersion of Hydrocarbon Release
- Flammability of Chemicals
- Material selection considering mechanical properties, chemical resistance, and temperature tolerance
- Process intensification and minimization strategies for hazard reduction
- Corrosion and erosion assessment for material degradation prevention
- Primary containment design for leak prevention and emergency response
Module 4: Crude Oil Processing Equipment Design & Sizing
- Separator’s Technology
- Operating Parameters and Operations Problems
- Elements Of Calculation Standards
- Sizing A 2-Phase And 3-Phase Separator
- Equipment sizing ensuring appropriate handling of required throughput and operating conditions
- Separator design principles for oil, gas, and water separation efficiency
- Operating parameter optimization for separator performance and reliability
- Calculation standards and design codes for pressure vessel sizing
Module 5: Gas Processing Equipment Design & Sizing
- Column’s Technology
- Selection Criteria
- Operating Parameters
- Elements Of Sizing
- Column Troubleshooting
- Distillation and absorption column design with internal optimization
- Equipment sizing balancing capital costs with operating efficiency
- Column troubleshooting for operational problems and performance optimization
- Selection criteria considering process requirements and economic factors
Module 6: Safety of Process Equipment
- Hazard Associated with Process Equipment
- Safety Considerations in Reactor Design
- Design Procedure for Safety of:
- Pressure Vessels
- Storage Tanks
- Reactors
- Heat Exchangers
- Venting of Tanks and Vessels
- Standards and Best Practices
- Piping System Design and Safety
- Design of Piping System Accessories
- Assessment of Material Degradation
- Monitoring, Testing, and Inspection (NDT)
- Pressure vessel design according to ASME codes and safety standards
- Heat exchanger thermal design with mechanical integrity considerations
- Reactor safety design including emergency systems and containment
- Piping system design with proper sizing, materials, and safety accessories
Module 7: Design of Pressure Relief Systems
- Design of Safety Valves
- Operation of Pressure Relief System
- Sizing of Pressure Relief Systems Relief Loads
- Pressure Relief Valves vs. Rupture Discs
- Codes, Standards and Best Practices
- Specifics of Pressure Relief Systems
- Process Plant Disposal Systems
- Disposal Hazards and Environmental Factors
- Pressure relief valve sizing according to API and ASME standards
- Relief system design for various scenarios including fire, blocked outlets, and runaway reactions
- Disposal system design considering environmental factors and safety requirements
- Emergency pressure relief for vessel and piping protection
Module 8: Process Monitoring And Control
- Safety Instrumented Systems
- Process Plant Monitoring and Control Systems
- Emergency De-pressuring Systems (EDP)
- Prevention of Fire and Gas or Dust Explosions
- Safety Deliberations in Equipment Spacing and Plant Layout
- Supervision of Change and Integrity Operation Window
- Plant Equipment Inspection and Maintenance Procedures
- Advanced process control (APC) systems for optimization and safety enhancement
- Safety instrumented systems (SIS) with proper safety integrity levels
- Emergency depressuring systems for fire protection and explosion prevention
- Plant layout design considering safety spacing and emergency access
Real World Examples
The impact of Process Equipment Design and Controls training is evident in leading implementations:
- ExxonMobil Refinery (USA)
Implementation: ExxonMobil implemented comprehensive advanced process control (APC) systems across multiple refining units to achieve enhanced throughput and energy efficiency, utilizing APC optimization that reduced variability in key process parameters while enhancing product quality consistency and enabling operators to run closer to equipment limits safely.
Results: The implementation achieved 2-5% improvements in throughput and energy efficiency through systematic APC optimization and process parameter control, enhanced product quality consistency through reduced process variability and advanced control integration, and generated millions of dollars in annual savings through improved yield and reduced energy consumption, demonstrating how comprehensive process equipment design training enables exceptional refinery performance and operational optimization. - Dow Chemical (USA)
Implementation: Dow deployed comprehensive model predictive control (MPC) technology in their ethylene production facilities to achieve significant improvements in operational efficiency and product quality, implementing advanced controls that handled multivariable interactions and constraints optimization while delivering sustained performance improvements.
Results: The implementation achieved 40% reduction in process variability through systematic MPC technology deployment and advanced control optimization, increased production capacity by 3% through enhanced operational efficiency and process control, and lowered energy costs through systematic multivariable control and constraints optimization, showcasing how systematic process equipment design training enables superior chemical production efficiency and cost optimization. - Huntsman (Chemicals, USA)
Implementation: Huntsman collaborated with Zeton on comprehensive design of a hazardous-duty modular distillation pilot plant, implementing advanced controls, rigorous hazard analysis (HAZOP), and ATEX safety classification from early design stages through technical partnership that resulted in seamless integration to larger outdoor process facility.
Results: The implementation achieved seamless integration to larger outdoor process facility through systematic advanced controls and rigorous HAZOP analysis, established benchmark for modular plant safety and project delivery through comprehensive ATEX safety classification and technical partnership, and demonstrated exceptional hazardous-duty plant design through systematic safety integration and advanced control implementation, demonstrating how comprehensive process equipment design training enables superior chemical plant safety and project excellence.
Be inspired by industry-leading process equipment design achievements. Register now to build the skills your organization needs for process excellence!
