By the end of this course, delegates will be able to:

• Determine the best device to drive and operate an assortment of valves
• Comprehend the inner operation of most commonly utilized valve types
• Decide on the best valve to use, for specific applications
• Determine the most cost effective valve size
• Get control valves to operate optimally in the field, using an assortment of techniques

Valve Principals, Purposes, Types, Control Signals and Flow Conditions

• Valve principles, valve purposes, and control signals used with valves
• Flow conditions in and around valves
• Reynolds numbers
• Cavitation and flashing, and how this influences valve selection
• Associated equipment, pertinent to valves
• Definitions, and principles of operation of the major types of valves

Valve in P&IDs, Leakage, Valve Characteristics and Valve Size Calculations

• Continuation of the definitions, and principles of operation of more major types of valves
• Additional associated equipment, pertinent with valves
• P&ID diagrams associated with valves
• Valve leakage, and valve leakage rate calculation
• Valve inherent characteristics, and their importance once installed
• Performing manual calculations, for valve sizing

Valve Software, Actuators, Positioners, Cavitation & Noise Control & SIS

• Software used to size control valves
• Assorted actuators, and their properties and characteristics
• Valve positioners
• Cavitation and noise control, in and around valves
• Valves, and how they fit into pressure relief and Safety Instrumented Systems (SIS)
• Using digital controllers, with valves

3-term Controllers and Loop-Tuning for Processes Containing Control Valves

• Understanding and implementing the right controller action, for fail-safe valves
• Understanding all of the variables, associated with three-term control
• Open loop tuning, for controllers that act on control valve loops
• Closed loop tuning, for controllers that act on control valve loops
• Trial and error tuning, to optimize control valve performance

Using Valves in Cascade, Ratio, Dead-Time Dominant, Non-Linear and PLC-Controlled Processes

• Setting up a cascade loop, using a single valve and multiple controllers
• Setting up a ratio loop, using a single valve and multiple process variables (PVs)
• Dead time dominant loops, how this affects the valve performance, and how this is corrected
• Using a control valve in a process that exhibits different responses in different zones
• Combining PLCs, for valve control

Mechanical Engineers, General Supervisors, Consulting Engineers, Design Engineers, Foremen, Supervisors, Technicians, Maintenance Personnel, Engineers of all disciplines, Supervisors, Team Leaders and Professionals in Maintenance, Engineering and Production Managers, Maintenance Personnel, Heads of Maintenance and Operation, Chemical Engineers, Equipment Specialists, Technical Engineers, Operation Engineers, Planning Engineers, Process Engineers, Reliability Specialists, Boiler Plant Construction Managers, Consulting Engineers, Design Engineers, Insurance Company Inspectors, Operation, Maintenance, Inspection and Repair Managers, Supervisors and Engineers, Plant Engineers, Senior Boiler Plant Operators, Repairers and Installers, Key instrumentation personnel involved in valve maintenance, Senior management and staff responsible for valve and actuator selection, Mechanical and electrical staff that come into contact with valves, Process control engineers requiring a high plant availability, often affected by valves, Designers, industrial engineers and staff responsible for plant safety, personnel with a vested interest in applications that require or utilize valves