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Institute For Oil & Gas Training
OGI-1302 New

Industrial Steam Boiler Systems and Operational Control Training Course

Duration
5 days
CPD hours
15
Language
English
Next date
26 Oct 2026
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Overview

The Industrial Steam Boiler Systems and Operational Control Training Course from Institute For Oil & Gas Training develops the operational expertise required to manage industrial steam boiler systems, optimise boiler control systems, and maintain stable steam generation across oil and gas facilities. The course addresses the practical skills gap between understanding boiler equipment and applying effective operational control under changing plant loads, fuel conditions, and process demands.

Steam boilers support essential operations throughout the oil and gas industry. Refineries, gas processing plants, petrochemical facilities, upstream processing installations, and industrial utilities rely on dependable steam supplies for heating, stripping, heat exchange, process support, and other critical applications. Boiler performance directly influences production continuity, energy consumption, equipment reliability, and the safe operation of interconnected process systems. Ineffective control of combustion, feedwater supply, steam pressure, and operating parameters creates avoidable operating instability and reduces the effectiveness of plant utilities.

The Industrial Steam Boiler Systems and Operational Control programme equips professionals with a structured understanding of boiler construction, steam generation principles, combustion management, instrumentation, control logic, operating procedures, and performance monitoring. Participants examine how individual boiler components interact with the wider steam distribution network and learn to identify operating deviations before they develop into significant process disruptions.

A central focus is the practical application of boiler control systems in demanding industrial environments. Effective control requires operators and engineers to understand the relationship between fuel input, combustion air, feedwater flow, drum level, steam demand, and pressure regulation. The course examines these relationships from an operational perspective, helping participants interpret instrument readings, assess control responses, and make informed adjustments within approved plant procedures.

Combustion control receives particular attention because fuel and air management influence heat transfer, flame stability, emissions, and overall boiler efficiency. Participants explore the importance of maintaining appropriate air-to-fuel relationships, recognising incomplete combustion, monitoring flue gas conditions, and identifying operating patterns that indicate inefficient performance. The programme also addresses the importance of burner management, protective interlocks, alarms, and shutdown arrangements in maintaining safe operating conditions.

Steam pressure control is another essential area of development. Changes in steam demand, fuel supply, boiler loading, and downstream process requirements affect pressure stability and the responsiveness of the steam system. Participants develop a clearer understanding of pressure regulation, load management, operating limits, and the relationship between boiler output and plant demand. This knowledge supports consistent steam delivery and reduces the likelihood of unnecessary operating disturbances.

The course also addresses boiler efficiency through practical examination of combustion performance, heat losses, blowdown practices, feedwater conditions, insulation, and operating discipline. Rather than treating efficiency as an isolated engineering calculation, the programme connects performance monitoring with everyday operating decisions. Participants learn to interpret trends, recognise avoidable losses, and identify opportunities for improvement without compromising equipment protection or process requirements.

For organisations operating in the oil and gas sector, these capabilities contribute to more dependable utility services and better coordination between operations, maintenance, process engineering, and instrumentation teams. A shared understanding of boiler behaviour improves fault communication, supports more effective troubleshooting, and strengthens the quality of operating decisions during routine production and abnormal conditions.

Delivered by Institute For Oil & Gas Training, this programme combines process engineering principles with industrial operating practices relevant to modern boiler installations. It provides professionals with a practical framework for understanding boiler systems, interpreting operating data, evaluating control performance, and supporting reliable steam generation across complex industrial facilities.

Objectives

  • Explain the operating principles, construction, and principal components of industrial steam boiler systems used in oil and gas facilities.

  • Describe the functions of boiler drums, burners, heat transfer surfaces, economisers, superheaters, feedwater systems, and associated auxiliaries.

  • Interpret the relationship between fuel input, combustion air, feedwater supply, steam generation, and changing process demand.

  • Evaluate boiler control systems and explain the purpose of pressure, drum level, combustion, and feedwater control loops.

  • Apply combustion control principles to the assessment of flame stability, excess air, fuel utilisation, and combustion performance.

  • Interpret steam pressure trends and identify operating conditions associated with unstable pressure regulation.

  • Monitor key operating parameters and recognise deviations that require investigation or corrective action.

  • Assess boiler efficiency using relevant operating information, fuel consumption patterns, heat loss indicators, and combustion data.

  • Explain the importance of water level management, feedwater quality, blowdown control, and deposit prevention.

  • Recognise the functions of alarms, protective interlocks, burner management systems, and boiler shutdown arrangements.

  • Apply a structured approach to identifying boiler operating faults and evaluating their potential causes.

  • Support effective coordination between operations, maintenance, process engineering, and instrumentation teams.

  • Improve the quality of boiler operating records, shift handovers, and performance reporting.

  • Identify opportunities to strengthen operating consistency, equipment reliability, energy performance, and process safety.

Training methodology

Institute For Oil & Gas Training uses an applied, industry-oriented methodology that connects boiler engineering fundamentals with the operating demands of oil and gas facilities. The programme focuses on how professionals assess equipment condition, interpret control system information, respond to changing process conditions, and maintain consistent performance within established operating procedures.

Practical Technical Presentations

Structured technical presentations establish a working understanding of boiler construction, combustion principles, steam generation, heat transfer, feedwater systems, pressure regulation, and boiler auxiliaries. These sessions explain how equipment components interact and how operating decisions affect overall plant performance.

Participants examine the relationship between boiler loading, fuel consumption, steam output, water level, and combustion conditions. This approach supports a systems-based understanding of boiler operation rather than treating individual components as separate pieces of equipment.

Industrial Case Studies

Case studies draw on representative operating situations involving unstable steam pressure, inefficient combustion, fluctuating boiler loads, abnormal drum levels, excessive blowdown, and recurring equipment alarms. Participants examine the available operating information, identify plausible contributing factors, and establish appropriate investigation priorities.

The case studies also demonstrate how apparently minor deviations can affect connected process units. This helps participants understand the operational significance of early fault recognition, accurate reporting, and coordinated responses between control room and field personnel.

Control System and Operating Scenarios

Simulated operating scenarios help participants explore the behaviour of boiler control systems under changing process conditions. Scenarios cover variations in steam demand, combustion air supply, fuel flow, feedwater conditions, and pressure regulation.

Participants assess how control loops respond to disturbances and distinguish between normal automatic adjustments and conditions that require further investigation. The emphasis remains on interpreting system behaviour and following approved operating procedures rather than making unauthorised changes to live equipment.

Group Exercises and Technical Discussions

Group exercises encourage participants from operations, engineering, maintenance, and instrumentation backgrounds to examine common boiler performance problems from different perspectives. Teams review operating symptoms, compare possible causes, and develop practical response plans.

These discussions reinforce the importance of clear handovers, consistent operating records, and effective communication between departments. They also help participants recognise how control system performance, equipment condition, and operating discipline influence one another.

Performance Evaluation and Troubleshooting

Participants work through representative boiler performance scenarios involving combustion deviations, unstable steam pressure, abnormal water levels, and changes in fuel consumption. They practise organising evidence, distinguishing symptoms from likely causes, and identifying the information needed for a reliable diagnosis.

Performance discussions address operating parameters, alarm histories, trend data, maintenance findings, and relevant process conditions. Participants also examine how to record findings and communicate recommendations to the appropriate technical personnel.

Application to Workplace Operations

The methodology connects the programme's technical content to participants' workplace responsibilities. Throughout the course, attention remains on practical decision-making, equipment protection, operating consistency, and opportunities to improve boiler efficiency.

Participants finish with a clearer approach to monitoring boiler performance, recognising abnormal operating conditions, supporting troubleshooting activities, and contributing to continuous improvement initiatives within their organisations.

Organisational impact

Industrial steam boiler performance influences energy costs, process availability, utility reliability, and the operational resilience of oil and gas facilities. Investing in relevant operational training helps organisations establish a stronger technical foundation for monitoring boiler systems and managing performance-related risks.

Improved Boiler Efficiency and Energy Management

A better understanding of combustion control, heat transfer, steam demand, and boiler operating parameters helps personnel identify avoidable energy losses. Participants develop the capability to recognise inefficient operating conditions, interpret performance trends, and recommend improvements through established engineering and operational processes.

Organisations benefit from more informed decisions concerning fuel utilisation, excess air, blowdown practices, feedwater conditions, and heat recovery. These improvements support energy management objectives while maintaining the operating limits and protection requirements of the equipment.

More Stable Steam Supply

Unstable steam pressure affects connected process equipment and can disrupt operations that depend on consistent heating or steam availability. Improved understanding of steam pressure control and boiler loading enables personnel to identify the causes of pressure fluctuations and assess appropriate operational responses.

Better monitoring and coordination between boiler operators and downstream process teams support more predictable steam delivery. This strengthens the reliability of utility systems serving refinery units, gas processing facilities, and other industrial operations.

Stronger Process Safety and Equipment Protection

Boiler operation involves high temperatures, pressurised equipment, combustion hazards, and stored energy. Inadequate operating discipline or failure to recognise abnormal conditions increases the potential for equipment damage and hazardous incidents.

The course strengthens understanding of protective interlocks, alarms, water level monitoring, burner management, and controlled shutdown arrangements. Participants learn to recognise deviations, follow approved response procedures, and escalate conditions that exceed their authority or competence.

These capabilities support the organisation's existing process safety management arrangements, equipment protection strategies, and operational risk controls.

More Effective Troubleshooting

Recurring boiler faults often involve interactions between instrumentation, mechanical equipment, fuel systems, feedwater systems, and control logic. A structured troubleshooting approach helps teams investigate these interactions instead of relying on isolated symptoms or repeated adjustments.

Participants develop better practices for reviewing trends, checking relevant operating information, identifying likely causes, and documenting findings. This supports more focused maintenance investigations and improves communication between control room operators, field technicians, and engineering specialists.

Better Maintenance and Operational Coordination

Understanding boiler operating behaviour helps maintenance teams distinguish between process-related symptoms and possible equipment deterioration. It also supports more useful discussions about burner condition, instrumentation reliability, feedwater equipment, valves, and protective devices.

The resulting improvements in fault reporting and technical coordination strengthen maintenance planning and support more effective prioritisation of equipment issues. Organisations gain a more consistent approach to resolving recurring operating problems and identifying the need for engineering review.

Stronger Operational Performance Monitoring

The course encourages systematic monitoring of steam pressure, drum level, combustion conditions, fuel use, feedwater behaviour, and other relevant operating parameters. Consistent monitoring supports more reliable comparisons between normal operating conditions and developing deviations.

Organisations can use these practices to establish or strengthen performance indicators such as fuel consumption per unit of steam produced, boiler availability, pressure stability, alarm frequency, and recurring boiler-related downtime. Actual improvements are assessed against site-specific baselines and operating conditions.

Improved Knowledge Transfer and Workforce Capability

A shared technical understanding reduces communication gaps between experienced boiler operators and other personnel involved in plant operation and maintenance. It supports consistent operating practices, better shift handovers, and more effective transfer of practical knowledge.

For management, the programme provides a structured development opportunity for personnel responsible for industrial utilities. It contributes to workforce capability planning and supports a more systematic approach to identifying further technical training needs.

Personal impact

The Industrial Steam Boiler Systems and Operational Control Training Course strengthens the practical capabilities of professionals responsible for boiler operation, process engineering, maintenance, and industrial utilities.

Greater Technical Understanding

Participants gain a clearer understanding of boiler construction, steam generation, combustion, feedwater management, pressure regulation, and auxiliary equipment. They learn how these systems interact and how changes in one operating variable influence the wider boiler process.

This systems-based understanding supports more informed discussions with engineers, supervisors, instrumentation specialists, and maintenance personnel.

Improved Control System Interpretation

Participants develop the ability to interpret boiler control system information and understand the purpose of key control loops. They explore how automatic controls respond to changing loads and why stable operation depends on coordinated control of fuel, air, water level, and steam pressure.

This knowledge improves their ability to recognise abnormal trends, distinguish routine control responses from potential faults, and communicate technical concerns accurately.

Stronger Combustion and Efficiency Assessment

The programme improves participants' understanding of combustion control and its relationship with fuel utilisation, flame stability, heat transfer, and boiler efficiency. They become better equipped to recognise indicators of inefficient operation and contribute to performance investigations.

This capability supports practical contributions to energy conservation initiatives and operating improvement projects.

More Confident Operational Decision-Making

Participants strengthen their approach to assessing changing process conditions, reviewing alarms, identifying deviations, and following established response procedures. They learn to base decisions on available operating evidence, equipment limitations, and approved site instructions.

The course also reinforces the importance of escalating unsafe or uncertain conditions rather than exceeding assigned authority.

Enhanced Troubleshooting Skills

Participants acquire a structured method for investigating boiler performance problems. They learn to review operating trends, consider interacting equipment systems, identify information gaps, and develop evidence-based recommendations.

These skills support more productive fault investigations and better cooperation with maintenance and engineering teams.

Career and Professional Development

Industrial steam boiler expertise is relevant to a range of positions across refining, gas processing, petrochemical production, power and utilities, and other process industries. The course strengthens participants' technical development by broadening their understanding of operational control, energy performance, and equipment protection.

The knowledge gained supports continued professional growth for personnel progressing into senior operations, shift supervision, utilities management, maintenance coordination, and process engineering responsibilities. The Certificate of Completion also provides a record of participation in the training programme.

Who should attend

  • Boiler Operators: Strengthen understanding of normal operating conditions, control responses, combustion performance, and boiler monitoring.

  • Control Room Operators: Improve interpretation of pressure trends, drum level indications, alarms, and boiler control system responses.

  • Shift Supervisors: Develop a stronger basis for reviewing boiler performance, coordinating operating teams, and managing abnormal conditions.

  • Utilities and Steam System Engineers: Improve assessment of steam generation, distribution requirements, boiler loading, and overall utility performance.

  • Process Engineers: Understand how boiler operating conditions influence downstream process requirements, production continuity, and heat supply.

  • Mechanical Engineers: Strengthen understanding of boiler equipment behaviour and the operational symptoms associated with mechanical deterioration.

  • Instrumentation and Control Engineers: Develop greater insight into boiler control loops, instrumentation, interlocks, and process control requirements.

  • Maintenance Engineers and Supervisors: Improve coordination between operating symptoms, equipment inspections, fault investigations, and maintenance priorities.

  • Combustion and Burner Specialists: Expand knowledge of combustion control, fuel-air relationships, burner operation, and performance monitoring.

  • Energy Managers: Identify relevant operating factors affecting boiler efficiency, fuel utilisation, and industrial energy performance.

  • Operations Managers: Strengthen oversight of boiler reliability, operating discipline, process safety, and utility performance indicators.

  • Technical and Reliability Managers: Improve understanding of recurring boiler problems, equipment protection, and operational improvement opportunities.

  • Production and Plant Managers: Assess the contribution of boiler performance to production continuity, energy management, and overall facility reliability.

  • Early-Career Engineers and Technical Professionals: Build a practical foundation for roles involving industrial boiler systems, utilities, and process operations.

Course outline

This module establishes the technical foundation for understanding industrial steam boiler systems in oil and gas facilities. Participants examine boiler construction, steam generation, heat transfer, and the functions of major pressure parts and auxiliary equipment.

The module also explores how boiler design, fuel selection, feedwater conditions, and steam demand influence operating performance. Emphasis is placed on recognising the relationship between individual components and the complete steam generation system.

  1. ASME Boiler and Pressure Vessel Code

    • ASME BPVC Section I addresses requirements for the construction of power boilers and associated pressure-retaining components within its scope.

    • The code provides an important engineering reference for understanding boiler design, construction, pressure integrity, and equipment documentation.

    • Participants examine why design limits, equipment identification, and manufacturer documentation matter when establishing appropriate operating practices.

    • Applicable code editions and jurisdictional requirements depend on the installation, equipment classification, and governing regulatory arrangements.

    Learning Outcomes

    • Explain the principal stages of steam generation and heat transfer within an industrial boiler.

    • Identify the functions of boiler drums, burners, waterwalls, superheaters, economisers, and associated auxiliaries.

    • Distinguish between relevant boiler configurations and their operational characteristics.

    • Explain the relationship between boiler loading, fuel input, feedwater supply, and steam production.

    • Recognise the significance of equipment design limits and manufacturer operating instructions.

    • Identify the principal interfaces between the boiler, feedwater system, fuel supply, and steam distribution network.

This module examines the operating principles of combustion systems and their influence on boiler performance. Participants explore fuel supply, combustion air, burner operation, flame stability, excess air, and the indicators used to assess combustion quality.

The focus is on understanding combustion control as an integrated operating function. Participants consider how changes in fuel characteristics, air supply, boiler load, and burner condition affect heat release, fuel utilisation, emissions, and safe operation.

  1. NFPA 85

    • NFPA 85, the Boiler and Combustion Systems Hazards Code, addresses combustion-related hazards and protective requirements for equipment within its scope.

    • Its provisions provide a reference for understanding burner management, combustion safeguards, fuel system protection, and relevant safety interlocks.

    • Participants examine the importance of controlled start-up, flame supervision, protective trips, and appropriate responses to combustion abnormalities.

    • The applicable edition, equipment coverage, and legal status depend on jurisdiction and the installation's design basis.

    Learning Outcomes

    • Explain the relationship between fuel flow, combustion air, heat release, and steam generation.

    • Describe the purpose of combustion control and burner management arrangements.

    • Recognise common indicators of incomplete combustion and inefficient fuel utilisation.

    • Explain the operational significance of excess air and combustion monitoring.

    • Identify the importance of flame detection, fuel isolation, alarms, and protective interlocks.

    • Assess combustion-related operating deviations using available instrument readings and trend information.

    • Explain why burner adjustments and safety system changes must follow approved procedures and authorised technical controls.

This module focuses on the control architecture used to maintain stable industrial boiler operation. Participants examine automatic and manual control, instrument indications, feedback loops, control responses, and the interactions between boiler output and process demand.

Particular attention is given to steam pressure control, drum level management, and coordinated fuel, air, and feedwater control. Participants explore how load changes and disturbances affect system stability and how control room personnel recognise conditions that require further investigation.

  1. IEC 61511

    • IEC 61511 addresses functional safety requirements for safety instrumented systems used in the process industry sector.

    • The standard provides a framework for managing safety instrumented systems throughout relevant lifecycle stages, including specification, design, implementation, operation, and maintenance.

    • Participants examine the distinction between ordinary process control functions and independent safety instrumented functions where applicable.

    • The standard supports understanding of safety requirements, testing, maintenance, and management of changes to safety instrumented systems.

    • Application depends on the installation's safety requirements, design basis, adopted standards, and applicable jurisdiction.

    Learning Outcomes

    • Explain the purpose of pressure, drum level, combustion, and feedwater control loops.

    • Interpret basic instrument readings and trends relevant to boiler operation.

    • Describe how automatic control systems respond to changes in steam demand and boiler loading.

    • Identify common causes of unstable steam pressure and abnormal drum level indications.

    • Explain the importance of control loop coordination and appropriate operating limits.

    • Recognise the roles of alarms, interlocks, and safety instrumented functions in boiler protection.

    • Describe the importance of testing, maintenance, and authorised management of control system changes.

    • Apply a structured approach to reviewing abnormal control responses and escalating suspected faults.

This module addresses the operational factors that influence boiler efficiency and energy consumption. Participants examine combustion performance, heat losses, feedwater conditions, blowdown practices, heat recovery, insulation, and the relationship between steam production and fuel input.

The module connects performance monitoring with practical operational improvement. Participants learn to interpret relevant indicators, recognise avoidable losses, and identify opportunities for better energy management while preserving equipment integrity, product requirements, and safe operating conditions.

  1. ISO 50001

    • ISO 50001 specifies requirements for establishing, implementing, maintaining, and improving an energy management system.

    • The standard supports systematic evaluation of energy use, energy performance indicators, baselines, objectives, and improvement actions.

    • Participants explore how boiler fuel consumption and steam production data contribute to energy performance monitoring.

    • The framework encourages evidence-based assessment of energy improvement opportunities and review of operational performance.

    • Its application to a facility depends on organisational objectives, adopted management systems, and relevant contractual or regulatory requirements.

    Learning Outcomes

    • Explain the main factors affecting industrial boiler efficiency.

    • Identify operational indicators associated with combustion losses and inefficient heat transfer.

    • Describe how excess air, blowdown, feedwater temperature, and heat recovery influence energy performance.

    • Interpret relevant fuel consumption and steam production data to support performance assessment.

    • Explain the value of monitoring operating parameters against suitable performance baselines.

    • Identify opportunities to improve boiler efficiency without compromising equipment protection or process requirements.

    • Recommend appropriate performance investigations using available operating records and instrument data.

    • Contribute to energy management initiatives through improved monitoring, reporting, and operational discipline.

This module brings together boiler operating principles, control system interpretation, combustion management, and performance monitoring to address abnormal conditions and operational risk. Participants examine common problems involving pressure instability, drum level deviations, combustion disturbances, feedwater issues, alarms, and equipment-related performance deterioration.

The module also focuses on safe operating responses, fault investigation, communication, and documentation. Participants consider how operating procedures, protective systems, maintenance arrangements, and process safety management work together to support reliable boiler operation.

  1. OSHA Process Safety Management

    • OSHA Process Safety Management, established under 29 CFR 1910.119, addresses the management of highly hazardous chemicals in covered processes within its United States jurisdiction.

    • Its framework includes process hazard analysis, operating procedures, training, mechanical integrity, management of change, and incident investigation requirements for covered processes.

    • Participants examine how these principles relate to managing process hazards, maintaining equipment safeguards, and controlling changes affecting boiler-related systems where the covered process scope applies.

    • The regulation does not automatically apply to every industrial boiler or oil and gas installation; applicability depends on the process, substances, thresholds, and regulatory criteria.

    • Facilities outside the United States must follow their applicable national legislation and site-specific safety management requirements.

    Learning Outcomes

    • Recognise common abnormal boiler operating conditions and their potential operational consequences.

    • Apply a structured method for reviewing symptoms, operating trends, alarms, and relevant equipment information.

    • Explain appropriate response principles for unstable steam pressure, abnormal drum level, and combustion disturbances.

    • Identify the importance of approved operating procedures, escalation arrangements, and controlled shutdown requirements.

    • Describe how mechanical integrity, inspection, preventive maintenance, and operational monitoring support boiler reliability.

    • Explain the role of process hazard analysis, operating procedures, and management of change where applicable.

    • Improve the quality of fault reporting, shift handovers, and communication between operations and maintenance teams.

    • Identify practical opportunities to reduce recurring boiler problems and strengthen operating consistency.

Certificate

Participants who successfully complete the Industrial Steam Boiler Systems and Operational Control Training Course receive a Certificate of Completion from Institute For Oil & Gas Training.

The certificate recognises completion of the training programme. Participants are required to meet the course attendance requirement established by Institute For Oil & Gas Training to receive their certificate. The certificate does not represent a statutory boiler operator licence or an independent professional certification.

Course dates

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,200

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,200

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,200

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,200

Fees include tuition, course materials and refreshments. Need different dates or a different city? Ask about your preferred date.

Frequently asked questions

What does the Industrial Steam Boiler Systems and Operational Control Training Course cover?

The course covers industrial boiler construction, steam generation, combustion control, boiler control systems, steam pressure control, feedwater management, boiler efficiency, and operational troubleshooting. It also examines alarms, protective interlocks, performance monitoring, and safe operating practices relevant to oil and gas facilities.

Who should attend this industrial steam boiler training course?

The course is suitable for boiler operators, control room operators, shift supervisors, process engineers, mechanical engineers, instrumentation and control engineers, maintenance professionals, utilities engineers, energy managers, and operations managers. It is particularly relevant to professionals responsible for industrial steam generation, boiler performance, equipment reliability, and process safety.

How is the course delivered?

Institute For Oil & Gas Training uses technical presentations, industrial case studies, simulated operating scenarios, group exercises, and troubleshooting discussions. These methods connect boiler engineering principles with practical workplace situations, helping participants develop a structured approach to operating decisions and performance assessment.

How long is the training course?

The total course duration is 15 to 20 hours. The programme is organised into five modules covering boiler fundamentals, combustion control, control systems and pressure regulation, efficiency optimisation, and safety and troubleshooting. Individual module durations are not specified.

Will participants receive a certificate after completing the course?

Yes. Participants who meet the attendance requirement receive a Certificate of Completion from Institute For Oil & Gas Training. The certificate recognises completion of the training programme and does not replace any statutory licence or professional qualification required for specific boiler operating responsibilities.

Next: 26 Oct 2026

4 dates available

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