WES

Process Equipment, Application, Design and Operation

Course Outline

Day - 1

I.    Introduction

  • Process Engineering
  • Refining Overview
  • Hydrocarbon Process Examples
  • Typical Refinery Block Diagram
  • Typical Refinery Processes
  • Process Engineering
  • Nature of Design
  • Process Engineering Applications
    • Design
    • Operation
    • New Plant
    • Revamp
  • Process Equipment
  • Resources/Tools
  • Process Work Flow
  • Process Calculations
    • Rigorous
    • Empirical
    • Short-cuts
    • Simulation Software
  • Engineering Flow Diagrams
    • Block Flow Diagram
    • PFD
    • P&ID
    • Process Control Diagram
    • System Distribution Diagram
    • Plot Plan and Elevation Drawings

II.   Hydrocarbon Properties

  • Hydrocarbon Mixtures
  • Hydrocarbon Types
  • Hydrocarbon Characterization
  • Properties and Definitions
  • Property Estimation Methods
  • Laboratory Distillations
  • Pseudo-Components
  • Combustion Properties
  • Properties of Materials
    • Corrosion
    • Hydrogen Induced Attack
    • Corrosion Monitoring and Control Techniques
    • Coatings
    • Electrochemical Techniques
Day - 2

III.  Thermo-VLE General Introduction

  • Vapor-Liquid Equilibrium
  • Equation of State
  • Ideal and Non-Ideal Systems
  • Fugacities & Activity Coefficients
  • Non-Ideal Mixtures of Non-Ideal Gases
  • Bubble Point Calculation
  • Dew Point Calculation
  • Equilibrium Flash Calculation
  • Tools

IV.  Fluid Flow and Heat Transfer

  • Fluid Flow in Piping
    • Fluid Flow Basics
    • Incompressible Flow
    • Compressible Flow
    • Two-Phase Flow
  • Line Sizing Criteria
  • Heat Transfer
    • Conduction
      • Thermal Conductivity
      • Two-Dimensional Steady State
      • Transient
    • Convection
      • Internal Flow
      • Condensation
      • Two-Phase Flow
      • Boiling
  • Radiation
Day - 3

V.  Pumps and Pumping Systems

  • Types of Pumps
    • Reciprocating
    • Rotary
    • Centrifugal
  • Performance Characteristics – Curves, System Hydraulics, Affinity Laws, Capacity, Turndown, Sparing
  • Key Design Parameters – Capacity Factors, Properties, Head, NPSH, Horsepower
  • Calculation Methods and Examples
  • Impellor

VI.  Compressors

  • Compressor Categories and Types
    • Positive Displacement – Reciprocating, Rotary Screw
    • Dynamic – Centrifugal, Axial
  • Compression Process – Adiabatic, Isothermal, Polytropic
  • Compressor Characteristics – Performance, Terminology, System Curves
  • Key Compressor Parameters – Capacity, Gas Properties, Head, Compression Exponent, Temperature Rise, Efficiency, Power Requirements, Affinity Laws
  • Compressor Control
  • Surge
  • Staging
  • Drivers
  • Design Issues
  • Performance
  • Specification
  • Rotary Compressors

VII. Process Vessels

  • Mechanical Design
    • Code Safety Factors
    • Design Pressure and Temperature, MAWP
    • Codes, Laws, Standards and Practices
  • Simple Calculations
  • Types and Functions
    • Drums – Design Considerations, Orientation, L/D Ratio, Connections, Separation, Settling, Liquid Surge, Sizing, Internals
  • Fractionators – Types, Equilibrium Stages, Reflux Ratio, Key Components, Relative Volatility, Minimum Number of Stages
    • Crude Distillation Examples
    • Fractionator Internals
      • Tray Types
      • Tray Selection Criteria
      • Packing
      • Liquid and Vapor Distributors
    • Vacuum Towers
    • Trayed Towers
    • Reboilers
  • Reactors
    • Common Reactor Types: Fixed-Bed, Axial Flow, Radial Flow
    • Design Considerations
    • Catalyst Requirements
    • Pressure Drop Considerations
    • Reactor Internals
    • Fixed-Bed Reactor
Day - 4

VIII. Heat Exchangers

  • Basic Principles of Heat Exchanger Design
    • Factors that Affect Heat Transfer
    • Fouling Factors
    • Weighted MTD Calculations
    • Predicting Heat Exchanger Performance
  • Shell and Tube Heat Exchangers
    • Mechanical Design
    • TEMA Classifications
    • Tubes
    • Other Exchanger Components
    • Factors that Affect Heat Transfer
    • Heat Exchanger Operating Parameters and Problems
    • Energy Conservation Overview and Methods
  • Selection of Heat Exchanger Type
    • Shell and Tube
    • Plate and Frame
    • Spiral
  • Air Coolers
    • Types
    • Main Components
    • Header Options
  • Reviewing Vendor Options
    • Process and Overall Performance
    • Mechanical Details
    • Vibration Analysis
    • Data Sheets
    • Drawings

IX. Fired Heaters and Heat Recovery

  • Types
  • Combustion Basics
  • Efficiency
  • Heat Transfer – Basics
  • Operational Issues – Air Leaks, Burner Problems, Instrumentation, Flooding, Etc.
  • Design and Operation
  • Fired Heater Duties
  • Selection and Design Issues
  • Special Units
Day - 5

X.   Ancillary Equipment

  • Steam Surface Condensers
  • Steam Jet Ejectors
    • Components
    • Advantages and Limitations
  • Pressure Relief
    • Overpressure Causes
    • Relief Load Calculation
    • Pressure Relief Devices
    • ASME Section VIII Requirements

XI. Control Valves

  • Purpose
  • Flow Characteristics – Vortices, Separation
  • Pressure to Flow Relationships
  • Choked Flow Conditions (Critical Flow)
  • Cavitation
  • Flashing
  • Typical Control Valve Applications
  • Flow Resistance Model Diagram
  • Design Requirements
  • Flow Characteristics
  • Design Equations
  • Examples

XII. Cost Estimating

  • Cost Estimating Methods
    • Capacity/Scale Ratio
    • Equipment/Modular Factors
    • Detailed Quotes
  • Estimate Types and Accuracy
  • Equipment Installation Cost Factors
  • Contingency Allowances
  • Cost Escalation

XIII. Process Design Specifications

  • Purpose of Specification Package
  • Types of Specification Packages
  • Specification Package Contents
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