TRAINING.

Overview

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

• Apply effective PID tuning procedures to improve steam plant stability, responsiveness, and efficiency
• Analyze how steam system dynamics, thermodynamics, and plant design affect controllability
• Optimize boiler drum level, master pressure, combustion, and steam process control strategies
• Evaluate the role of deaerators, boiler feed pump systems, and ancillary equipment in overall control performance
• Identify opportunities to monitor boiler efficiency, reduce losses, and support more reliable plant operation

Description

Steam production is a major operating cost in many industrial and manufacturing environments, and small inefficiencies can have a significant impact on plant performance. As steam systems become more integrated and energy-conscious, tighter control can improve efficiency but may also introduce variability in pressure, steam quality, and process stability. Maintaining reliable operation requires more than basic control knowledge; it requires a practical understanding of how steam system design, load changes, equipment behaviour, and tuning decisions interact in real operating conditions.

This course provides a structured approach to improving steam plant control and boiler efficiency through applied control strategies, PID tuning methods, and system-level analysis. You will examine key steam plant components, steam flow and pressure dynamics, boiler ratings, heat transfer principles, combustion control, cross-limiting logic, oxygen trim, furnace draft control, boiler drum level tuning, master pressure control, and boiler efficiency monitoring.

Through practical examples and process-focused discussion, you will develop the knowledge needed to make steam control systems more stable, responsive, robust, and energy-efficient. The course is designed to help you troubleshoot common control challenges, improve tuning decisions, and support more efficient operation of boilers, furnaces, deaerators, boiler feed pump systems, and related steam plant equipment.

Who Should Attend:

This course is designed for:

• Process engineers involved in steam plant operation, optimization, or production efficiency
• Control engineers responsible for steam system performance, reliability, and tuning
• Instrumentation and control personnel who maintain, calibrate, or troubleshoot steam plant control systems
• Facility, utility, and plant engineers responsible for steam generation, distribution, or energy performance
• Consulting engineers involved in steam plant design, controls, energy management, or system optimization
• Technicians and technologists who support the operation, maintenance, and troubleshooting of boilers and steam systems
• Technical professionals seeking a practical understanding of steam plant dynamics, boiler controls, and efficiency monitoring

Please note: You can check other time zones here.

Syllabus

Steam Plant and Boiler Overview

• Essential components and functions of steam plants.
• Overview of boiler types and their applications.
• Key operational parameters and performance metrics.
• Understanding Boiler ratings.

Steam System Dynamics

• Understanding steam flow and pressure dynamics.
• Impact of load changes on steam system stability.
• Heat transfer principles in steam generation.
• Interaction between steam supply and process demand.

Fundamentals of PID tuning for steam systems

• Basics of PID control and tuning parameters.
• Step-by-step procedure for tuning PID controllers.
• Application of feedforward and feedback controls.
• Practical examples of PID tuning in steam systems.

Steam Process Controls

• Open loop and closed loop Steam Heat exchanger systems.
• Jacketed vessel temperature control.
• Instantaneous and semi-instantaneous Steam/water heaters.
• Control type selection.

Boiler ancillary equipment

• Pressurized and Atmospheric Deaerators.
• Layout of Boiler feed pump systems.
• Economizers, Superheaters & Steam Accumulators.
• TDS Blowdown control.

Combustion Control, Cross-Limiting logic and O2 Trim / Furnace Draft Control

• Principles of combustion and air-fuel ratio control.
• Implementation of cross-limiting control logic.
• Oxygen trim control for optimal combustion efficiency.
• Combustion controls for various boiler capacities.

Boiler Drum Level and Master Pressure Control Tuning

• Importance of accurate drum level control.
• Effects of shrink-swell on drum level dynamics.
• Tuning methods for drum level controllers.
• Master pressure control strategies.

Boiler Efficiency Monitoring

• Direct vs Indirect boiler efficiency monitoring.
• Tracking efficiency.
• Analysis of losses.
• Instrumentation & Control requirements.

Instructor

Gerardo Monge, P.Eng.

Gerardo is a highly skilled Mechanical Engineer specializing in Energy Systems, dedicated to advancing sustainable and efficient energy solutions. Strong background in energy sources, fluid mechanics, and system optimization, who has played a vital role in designing, analyzing, and implementing innovative energy technologies.

Holding a B.Sc. degree in Mechanical Engineering from the University of Notre Dame, I have developed expertise in renewable and non-renewable energy systems, HVAC design, energy efficiency improvements, and power generation technologies. During my 30 years at Spirax Sarco Canada, I have been involved in projects ranging from managing energy, plant operations and automation projects to engineering design, application solutions, field installation and commissioning.

At present I am teaching applied energy management which contributes to optimizing energy usage in industrial applications, reducing carbon footprints, and enhancing operational efficiency.