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Institute For Oil & Gas Training
OGI-1365 New

Refinery Fired Heater Inspection and Maintenance Training Course

Duration
5 days
CPD hours
15
Language
English
Next date
09 Nov 2026
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Overview

The Refinery Fired Heater Inspection and Maintenance Training Course from Institute For Oil & Gas Training develops the technical capabilities required to assess fired heater integrity, identify deterioration mechanisms, and improve maintenance decisions across refinery operations. Focused on the practical application of recognised engineering standards, including API 560, this programme equips inspection, maintenance, reliability, and operations professionals with the knowledge to evaluate heater condition, manage inspection findings, and support safe, reliable, and efficient hydrocarbon processing.

Refinery fired heaters are critical assets in crude distillation, vacuum distillation, catalytic reforming, thermal processing, and other refining operations. They supply the controlled heat required to maintain process conditions and support production targets. Their performance depends on the integrity of radiant and convection section tubes, burners, refractory linings, supports, structural components, and associated combustion systems. Deterioration in any of these areas affects heat transfer, fuel efficiency, equipment availability, and operational safety.

The challenge for refinery organisations extends beyond identifying visible damage. Effective heater inspection requires a structured understanding of operating conditions, inspection techniques, degradation mechanisms, material behaviour, and maintenance priorities. Tube oxidation, creep damage, local overheating, thermal fatigue, corrosion, erosion, refractory deterioration, and burner malfunctions create different risks and demand appropriate inspection and engineering responses. Without a coordinated approach, inspection teams face difficulties in distinguishing routine deterioration from conditions that require immediate intervention or a planned shutdown.

The Refinery Fired Heater Inspection and Maintenance programme addresses these challenges by connecting inspection findings with engineering assessment, risk evaluation, and practical maintenance planning. Participants examine how operating history, process conditions, temperature profiles, combustion performance, and previous inspection records contribute to an informed assessment of heater condition. The course also explores the relationship between mechanical integrity and operational performance, enabling personnel to recognise how seemingly localised defects influence wider refinery reliability.

Particular attention is given to API 560, which addresses the design and mechanical requirements of fired heaters for general refinery service. Participants develop an understanding of the standard's relevance to heater construction, equipment configuration, inspection planning, and maintenance decisions. The course distinguishes design requirements from inspection and fitness-for-service considerations, helping participants understand how different standards support different stages of an asset's lifecycle.

A central element of the programme is tube condition monitoring. Fired heater tubes operate under demanding thermal and mechanical conditions, making reliable assessment essential for managing remaining service life and preventing unexpected failures. Participants explore tube thickness measurements, dimensional assessment, temperature-related damage indicators, non-destructive testing methods, and the interpretation of inspection trends. They also examine the limitations of individual inspection techniques and the importance of combining multiple sources of evidence when evaluating tube integrity.

The programme also strengthens the connection between heater inspection and refinery maintenance. Inspection reports provide greater value when findings are translated into clearly defined corrective actions, maintenance work scopes, resource requirements, and follow-up inspection intervals. Participants learn to prioritise defects according to their significance, distinguish immediate safety concerns from longer-term deterioration, and support maintenance strategies that minimise avoidable disruption.

Institute For Oil & Gas Training delivers this course for professionals responsible for maintaining the integrity, availability, and performance of refinery fired heaters. Through practical engineering scenarios and structured technical exercises, participants build a consistent approach to inspection planning, defect evaluation, maintenance prioritisation, and documentation. The resulting capabilities support better-informed decisions throughout the heater lifecycle, from routine condition monitoring to turnaround preparation and post-maintenance verification.

Objectives

  • Explain the operating principles, construction, and principal components of refinery fired heaters.

  • Interpret the relevance of API 560 to fired heater design, construction, and mechanical integrity requirements.

  • Identify common deterioration mechanisms affecting heater tubes, refractory linings, burners, supports, and associated components.

  • Develop structured heater inspection plans based on equipment condition, operating history, inspection objectives, and identified risks.

  • Select appropriate non-destructive testing techniques according to the component, material, suspected defect, and required inspection information.

  • Interpret tube thickness measurements, dimensional checks, and other condition-monitoring results.

  • Recognise indicators of overheating, creep damage, corrosion, erosion, and thermal fatigue.

  • Evaluate inspection findings alongside operating data and previous inspection records.

  • Establish a consistent approach to defect classification, technical escalation, and maintenance prioritisation.

  • Assess the condition of refractory systems, burner assemblies, and combustion-related components.

  • Support maintenance planning, turnaround preparation, repair scope definition, and post-maintenance inspection.

  • Improve inspection documentation, reporting quality, and communication between technical and operational teams.

  • Contribute to risk-informed maintenance decisions that support equipment availability and process safety.

  • Identify opportunities to improve inspection effectiveness, maintenance efficiency, and long-term fired heater reliability.

Training methodology

The Refinery Fired Heater Inspection and Maintenance Training Course uses an industry-focused delivery approach that combines technical presentations, engineering case studies, inspection scenarios, guided exercises, and collaborative problem-solving. Institute For Oil & Gas Training structures the learning experience around the decisions that inspection, maintenance, reliability, and operations teams make when managing fired heater assets.

Technical Presentations and Engineering Discussions

Structured technical sessions establish the principles of fired heater design, combustion, heat transfer, tube metallurgy, refractory systems, and common deterioration mechanisms. Participants examine the relationship between operating conditions and equipment integrity, with particular emphasis on recognising the indicators of overheating, creep, corrosion, thermal fatigue, and mechanical damage.

Discussions connect engineering principles with refinery operating conditions. Participants consider how variations in process throughput, fuel quality, firing patterns, excess oxygen, tube temperature, and shutdown practices affect inspection requirements and maintenance priorities.

Inspection Case Studies

Case studies present typical fired heater integrity challenges, including localised tube overheating, wall thinning, refractory damage, burner instability, and recurring defects identified during successive inspections. Participants review the available evidence, assess the significance of the findings, and determine the additional information required before recommending corrective action.

These exercises reinforce the importance of evidence-based assessment. Participants distinguish confirmed defects from suspected damage, identify gaps in inspection coverage, and evaluate how inspection results influence decisions about continued operation, repair, replacement, and further engineering assessment.

Non-Destructive Testing and Tube Assessment Exercises

Guided exercises explore the application and limitations of relevant non-destructive testing methods. Participants examine the role of ultrasonic thickness measurement, visual inspection, dimensional checks, and specialised examination techniques selected according to the material, defect mechanism, access conditions, and inspection objective.

Tube condition monitoring exercises focus on comparing inspection measurements, recognising deterioration trends, and understanding the significance of measurement uncertainty. Participants consider how inspection data, operating records, and historical findings contribute to a more reliable assessment of tube condition.

Maintenance Planning and Turnaround Scenarios

Maintenance scenarios require participants to translate inspection findings into actionable work plans. Activities include defect classification, repair prioritisation, preliminary work-scope development, inspection resource planning, and coordination between engineering, operations, and maintenance teams.

Participants also examine the decisions involved in turnaround preparation. They assess how inspection coverage, spare-part availability, repair complexity, access arrangements, and post-maintenance checks influence the quality and efficiency of planned interventions.

Group Exercises and Technical Reporting

Collaborative exercises replicate the coordination required between inspection engineers, reliability specialists, maintenance planners, and operations personnel. Participants review sample inspection findings, agree on priorities, and prepare concise technical recommendations supported by the available evidence.

The methodology emphasises clear reporting, traceable decisions, and practical implementation. By linking technical knowledge with realistic workplace decisions, Institute For Oil & Gas Training helps participants apply course concepts to refinery maintenance programmes and equipment integrity management.

Organisational impact

Effective fired heater inspection and maintenance directly supports refinery asset integrity, operational continuity, and maintenance cost control. The course helps sponsoring organisations establish a more consistent approach to identifying defects, evaluating equipment condition, and translating inspection results into maintenance decisions.

Improved Equipment Reliability

A structured inspection approach improves the identification of deterioration before defects progress into serious equipment failures. By understanding common tube damage mechanisms, refractory deterioration, burner problems, and structural defects, personnel can recommend appropriate interventions based on equipment condition rather than relying exclusively on fixed maintenance intervals.

Organisations benefit from better visibility of asset condition, more consistent inspection coverage, and stronger coordination between reliability engineering and maintenance teams. These improvements support the reduction of avoidable failures and unplanned shutdowns.

Stronger Process Safety and Mechanical Integrity

Fired heaters operate with high temperatures, combustible fuels, and pressurised process fluids. Defects affecting tubes, burners, combustion controls, or associated systems require appropriate technical assessment and timely corrective action.

The course strengthens the ability of personnel to recognise potentially serious conditions, escalate significant findings, and support established mechanical integrity procedures. It also reinforces the importance of inspection quality, documented decisions, and effective communication between inspection and operations teams.

More Effective Maintenance Expenditure

Inspection findings become more valuable when they inform repair priorities and maintenance resource allocation. Participants learn to distinguish defects requiring prompt intervention from those suitable for monitored management under an approved engineering strategy.

This approach supports better maintenance work scopes, improved spare-parts planning, and more informed decisions about repair or replacement. Organisations also gain a stronger basis for reviewing recurring maintenance expenditure and identifying opportunities to prevent repeat defects.

Better Turnaround Preparation

Fired heater inspections frequently influence turnaround scope, equipment access arrangements, repair requirements, and resource planning. Incomplete inspection information can create delays, additional work, and competing demands during planned shutdowns.

The programme helps personnel identify critical inspection requirements, prepare clearer work scopes, and coordinate inspection findings with maintenance planners. Better preparation supports more predictable execution and more effective use of shutdown resources.

Improved Compliance and Technical Documentation

Recognised engineering standards provide an important reference for defining inspection expectations, assessing equipment condition, and documenting engineering decisions. Participants learn to distinguish design requirements, inspection practices, damage-mechanism guidance, and fitness-for-service assessment.

This improves the consistency of technical records and supports internal audits, maintenance reviews, and management oversight. The course does not replace site-specific procedures or formal engineering approval, but strengthens the competence required to apply them appropriately.

More Reliable Tube Condition Monitoring

Consistent tube condition monitoring enables organisations to compare historical measurements, identify deterioration trends, and determine where additional investigation is required. The course reinforces the importance of measurement quality, suitable inspection methods, and the interpretation of results within their technical context.

These capabilities support more informed decisions about tube replacement, further examination, operating restrictions, and future inspection intervals. They also help organisations use inspection data more effectively when reviewing the condition of ageing refinery assets.

Personal impact

Participants develop practical technical capabilities that strengthen their contribution to fired heater integrity management and refinery maintenance programmes.

Stronger Inspection and Assessment Skills

Attendees improve their understanding of heater components, common degradation mechanisms, and inspection requirements. They gain a clearer basis for identifying relevant defects, reviewing inspection reports, and recognising when specialist examination or additional engineering assessment is necessary.

Improved Technical Decision-Making

The programme develops the ability to interpret inspection evidence in conjunction with operating conditions, equipment history, and applicable engineering guidance. Participants become better prepared to support defect prioritisation, maintenance recommendations, and technical escalation.

Greater Confidence in Non-Destructive Testing Applications

Participants gain a stronger understanding of how non-destructive testing methods contribute to heater inspection. They learn to evaluate the suitability and limitations of different techniques rather than treating individual measurements as conclusive evidence of overall equipment integrity.

Enhanced Maintenance Planning Capability

Attendees strengthen their ability to connect inspection results with repair planning, turnaround preparation, and follow-up activities. This helps them communicate maintenance requirements more clearly and contribute to practical decisions concerning work scope, resource allocation, and equipment availability.

Better Cross-Functional Communication

The course improves communication between inspection, operations, maintenance, and reliability personnel. Participants learn to present findings with clearer technical reasoning, distinguish observed evidence from engineering interpretation, and explain why particular corrective actions require priority.

Professional Development

The skills developed through the programme support continued professional growth in inspection engineering, static equipment integrity, refinery maintenance, reliability management, and asset performance. Participants gain practical knowledge relevant to roles that involve fired heater assessment, maintenance coordination, and mechanical integrity responsibilities.

Who should attend

  • Inspection Engineers: Strengthen inspection planning, defect evaluation, and the interpretation of fired heater condition-monitoring results.

  • Mechanical Engineers: Improve understanding of heater components, material degradation, repair requirements, and mechanical integrity considerations.

  • Maintenance Engineers: Connect inspection findings with corrective maintenance strategies, work scopes, and equipment reliability objectives.

  • Reliability Engineers: Use degradation trends and equipment history to support maintenance prioritisation and reliability improvement.

  • Non-Destructive Testing Personnel: Develop a stronger understanding of fired heater inspection requirements and the practical application of relevant examination techniques.

  • Corrosion Engineers and Materials Specialists: Evaluate corrosion, oxidation, and other material degradation mechanisms affecting heater tubes and associated components.

  • Static Equipment Engineers: Strengthen their contribution to inspection programmes and lifecycle management of refinery fired heaters.

  • Refinery Operations Engineers: Understand how operating conditions, combustion performance, and process changes influence equipment integrity.

  • Turnaround and Shutdown Planners: Improve preparation for heater inspections, repair activities, resource requirements, and post-maintenance verification.

  • Maintenance Supervisors and Managers: Improve oversight of inspection priorities, maintenance execution, and equipment integrity risks.

  • Asset Integrity and Inspection Managers: Strengthen inspection governance, technical reporting, and coordination of integrity management activities.

  • Technical and Engineering Managers: Improve oversight of fired heater performance, maintenance expenditure, and risk-informed asset management decisions.

Course outline

This module establishes the technical foundation for refinery fired heater inspection and maintenance. Participants examine the function of fired heaters in refinery processing, the relationship between combustion and heat transfer, and the principal components that influence equipment performance and mechanical integrity.

The module considers radiant and convection sections, process tubes, burners, refractory linings, tube supports, casing, and combustion-related systems. Participants explore how operating conditions and equipment configuration influence inspection requirements, with particular attention to recognising deviations that warrant further investigation.

  1. API 560

    • API 560 is the recognised standard for fired heaters for general refinery service, addressing design and mechanical requirements.

    • It provides a reference for understanding heater construction, component arrangements, and relevant engineering requirements.

    • Participants examine how design information supports inspection preparation and the evaluation of equipment condition.

    • Application of the standard is considered alongside applicable project specifications, manufacturer documentation, and site engineering procedures.

    Learning Outcomes

    • Explain the operating principles and principal components of refinery fired heaters.

    • Describe the functions of radiant and convection sections, burners, tubes, and refractory systems.

    • Identify operating conditions that influence heater integrity and inspection requirements.

    • Interpret relevant design information when preparing for heater inspection.

    • Explain the relationship between combustion performance, heat transfer, and equipment reliability.

This module focuses on developing a structured inspection approach based on equipment history, operating conditions, known deterioration mechanisms, and the consequences of equipment failure. Participants examine how inspection scope and coverage are established for different heater components.

The module addresses overheating, creep, oxidation, corrosion, erosion, thermal fatigue, mechanical damage, refractory deterioration, and support-related problems. Participants consider how visual evidence, operating records, previous inspection findings, and material characteristics contribute to defect identification and technical assessment.

  1. API 573

    • API 573 provides inspection guidance for fired boilers and heaters.

    • It addresses inspection considerations for equipment components and common deterioration concerns.

    • It supports the development of inspection programmes and the review of equipment condition.

    • Participants use its principles to understand inspection requirements while recognising the importance of site-specific procedures and engineering judgement.

    Learning Outcomes

    • Develop inspection plans aligned with equipment condition and operational requirements.

    • Recognise common damage mechanisms affecting heater tubes and associated components.

    • Review historical inspection findings to identify recurring defects and deterioration trends.

    • Identify inspection coverage gaps and requirements for additional examination.

    • Prioritise inspection findings according to their significance and the need for further assessment.

This module examines the methods used to evaluate fired heater tube condition and identify evidence of deterioration. Participants explore how operating temperature, material properties, tube dimensions, pressure conditions, and service history influence tube integrity. Particular attention is given to the assessment of overheating, creep damage, wall thinning, oxidation, and deformation.

The module develops a systematic approach to tube condition monitoring by combining inspection measurements with historical data and operational information. Participants consider measurement limitations, the significance of observed changes, and the need for further engineering evaluation when inspection results indicate potentially serious damage.

  1. API 571

    • API 571 describes damage mechanisms affecting fixed equipment in the refining and petrochemical industries.

    • It provides technical guidance on degradation mechanisms, their causes, susceptible materials, and characteristic damage patterns.

    • Participants examine its relevance to creep, high-temperature oxidation, corrosion, thermal fatigue, and other deterioration mechanisms.

    • The guidance supports damage identification and inspection planning but does not replace component-specific engineering assessment.

    Learning Outcomes

    • Explain the principal mechanisms affecting fired heater tube integrity.

    • Interpret tube thickness measurements and dimensional inspection results.

    • Recognise indicators of overheating, creep, oxidation, and material deterioration.

    • Compare current inspection findings with previous measurements and operating records.

    • Identify situations requiring supplementary inspection, engineering review, or corrective maintenance.

    • Support informed decisions about tube replacement and future condition monitoring.

This module focuses on selecting and interpreting non-destructive testing methods for fired heater inspection. Participants examine the purpose of visual examination, ultrasonic thickness measurement, dimensional assessment, and other suitable examination techniques based on the suspected damage mechanism, component material, accessibility, and inspection objective.

The module also addresses inspection quality, measurement limitations, reporting requirements, and the interpretation of findings. Participants learn to distinguish the information provided by individual examination methods and understand why multiple sources of evidence are frequently necessary to establish a reliable assessment of equipment condition.

  1. ASME Section V

    • ASME Boiler and Pressure Vessel Code Section V establishes requirements and guidance for non-destructive examination methods.

    • It addresses examination techniques, procedures, equipment, and relevant personnel responsibilities within its scope.

    • Participants examine its relevance to the selection and application of appropriate non-destructive examination methods.

    • The applicable code edition, referenced construction requirements, examination procedure, and project specifications determine the requirements for a particular inspection.

    Learning Outcomes

    • Identify appropriate non-destructive testing methods for common fired heater inspection requirements.

    • Explain the applications and limitations of visual examination and ultrasonic thickness measurement.

    • Evaluate the quality and reliability of inspection measurements.

    • Interpret examination findings in the context of suspected damage mechanisms and operating history.

    • Recognise when further testing or specialist assessment is required.

    • Improve the clarity and technical traceability of inspection reports.

This module integrates inspection findings with maintenance strategy, equipment integrity decisions, and turnaround planning. Participants examine how defects are assessed, how corrective actions are prioritised, and how inspection information supports decisions concerning continued operation, repair, replacement, and additional engineering investigation.

The module also considers fitness-for-service assessment, maintenance work-scope development, repair verification, and follow-up monitoring. Participants explore how engineering teams coordinate inspection, operations, maintenance, and reliability activities to improve equipment availability while maintaining appropriate safety and integrity controls.

  1. API 579-1/ASME FFS-1

    • API 579-1/ASME FFS-1 provides recognised methodologies for fitness-for-service assessment of equipment containing flaws or experiencing deterioration.

    • It addresses assessment approaches for applicable damage conditions, including general metal loss, local metal loss, and creep-related damage.

    • Participants examine how fitness-for-service principles support engineering decisions about the suitability of equipment for continued service.

    • Application requires appropriate damage characterisation, reliable inspection data, suitable assessment methods, and competent engineering review.

    • The standard does not automatically establish acceptability for every fired heater component or damage condition. Its applicability must be confirmed for the specific equipment and assessment circumstances.

    Learning Outcomes

    • Translate inspection findings into prioritised maintenance recommendations.

    • Explain the role of fitness-for-service assessment in equipment integrity decisions.

    • Identify conditions requiring repair, replacement, further examination, or formal engineering evaluation.

    • Develop inspection-informed maintenance and turnaround work scopes.

    • Define appropriate post-maintenance examination and verification activities.

    • Improve coordination between inspection, operations, maintenance, and reliability teams.

    • Recommend practical improvements to fired heater maintenance and tube condition-monitoring programmes.

Certificate

Attendees who successfully complete the Refinery Fired Heater Inspection and Maintenance Training Course receive a Certificate of Completion from Institute For Oil & Gas Training.

The certificate recognises completion of the training programme and participation in its technical learning activities. Attendees are required to attend the full course to qualify for the certificate. The certificate confirms course completion and does not constitute a professional licence, statutory authorisation, or certification as a qualified inspector.

Course dates

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,500

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,400

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,400

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,400

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 Refinery Fired Heater Inspection and Maintenance Training Course cover?

The course covers fired heater design principles, inspection planning, common damage mechanisms, tube condition monitoring, non-destructive testing, maintenance optimisation, and turnaround preparation. Participants also examine the application of API 560, API 573, API 571, ASME Section V, and API 579-1/ASME FFS-1 to relevant inspection and integrity management activities.

Who should attend this fired heater inspection training course?

The programme is designed for inspection engineers, mechanical engineers, maintenance engineers, reliability specialists, non-destructive testing personnel, corrosion engineers, asset integrity professionals, refinery operations personnel, and turnaround planners. It also benefits technical supervisors and managers responsible for equipment integrity, maintenance planning, and refinery reliability.

How is the training delivered?

Institute For Oil & Gas Training delivers the programme through technical presentations, engineering case studies, inspection scenarios, guided assessment exercises, and group discussions. The learning approach connects engineering principles with practical decisions concerning defect identification, inspection results, maintenance priorities, and equipment integrity.

How does the course address tube condition monitoring?

The course examines tube thickness measurements, dimensional assessment, deterioration mechanisms, historical inspection comparisons, and the interpretation of operating data. Participants learn how these sources of information support tube integrity assessment and help identify the need for further examination, engineering evaluation, or maintenance intervention.

Will participants receive a certificate after completing the course?

Yes. Attendees who complete the training and meet the full-course attendance requirement receive a Certificate of Completion from Institute For Oil & Gas Training. The certificate confirms participation and completion of the programme; it does not constitute a professional inspection licence or specialist certification.

Next: 09 Nov 2026

4 dates available

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