Skip to content
Institute For Oil & Gas Training
OGI-1395 New

Corrosion Control in Ammonia and Urea Plants Training Course

Duration
5 days
CPD hours
15
Language
English
Next date
16 Nov 2026
View dates & register Download brochure

We use your details only to answer this enquiry. See our privacy policy.

Overview

The Corrosion Control in Ammonia and Urea Plants Training Course by Institute For Oil & Gas Training provides specialised technical knowledge and practical engineering approaches for managing Ammonia and Urea Plant Corrosion across critical process equipment, pressure systems, pipelines and production facilities. The programme addresses the material degradation mechanisms, operating conditions and corrosion challenges that affect ammonia and urea manufacturing assets within the wider oil, gas and petrochemical industries.

Ammonia and urea production facilities operate under demanding process conditions involving elevated temperatures, pressures, corrosive chemicals and complex chemical reactions. These environments place significant demands on equipment materials, fabrication quality, inspection programmes and operational controls. Corrosion affecting synthesis equipment, heat exchangers, reactors, condensers, piping networks, storage vessels and process circulation systems creates substantial challenges for asset integrity and production reliability. Effective corrosion management is therefore essential to maintaining equipment performance, protecting personnel and sustaining uninterrupted plant operations.

The technical characteristics of ammonia and urea production create distinct corrosion risks that require specialised engineering attention. Ammonia synthesis systems operate in high-pressure environments involving hydrogen and nitrogen, with equipment exposed to conditions that require careful consideration of material strength, hydrogen-related degradation and high-temperature damage mechanisms. Urea production introduces additional challenges through the interaction of ammonia, carbon dioxide, ammonium carbamate and other process constituents. These conditions influence material selection, corrosion resistance and the long-term reliability of critical equipment.

Understanding ammonia plant materials is a fundamental requirement for effective corrosion prevention. Carbon steel, stainless steel, alloy steels and specialised corrosion-resistant materials perform different functions throughout ammonia and urea production facilities. Their suitability depends on operating temperature, pressure, chemical composition, process conditions, fabrication procedures and equipment design. Incorrect material selection, unsuitable welding practices, inadequate passivation or ineffective operating controls can accelerate degradation and increase the likelihood of equipment failure.

The course examines the relationship between process chemistry, equipment materials and corrosion mechanisms. Participants explore hydrogen attack, high-temperature degradation, general corrosion, localised corrosion, erosion-corrosion, stress corrosion cracking and corrosion associated with ammonium carbamate environments. Particular attention is given to urea corrosion, including the conditions that influence the performance of corrosion-resistant materials and the importance of appropriate manufacturing, welding, passivation and operating practices.

A further priority is identifying the relationship between process equipment degradation and operational performance. Corrosion damage frequently develops in locations where inspection access is limited, process conditions fluctuate or equipment experiences repeated operational stresses. Understanding damage mechanisms, recognising early warning indicators and evaluating inspection findings enable engineering teams to make informed decisions before degradation affects equipment functionality.

Institute For Oil & Gas Training delivers this programme to address the practical skills gap between general corrosion knowledge and the specialised requirements of ammonia and urea production facilities. Participants develop an integrated understanding of corrosion assessment, materials engineering, inspection planning, equipment condition monitoring and corrosion mitigation. The course also considers the relationship between process engineering, maintenance management, inspection departments and plant operations.

The programme places particular emphasis on translating corrosion engineering principles into practical asset integrity decisions. Participants examine how corrosion threats are identified, evaluated and prioritised, how inspection findings support maintenance planning and how engineering controls reduce exposure to recurring degradation mechanisms. The approach connects technical understanding with operational responsibilities across the plant lifecycle.

Through structured technical discussions, engineering case studies and realistic plant scenarios, the Corrosion Control in Ammonia and Urea Plants Training Course strengthens the ability of professionals to recognise corrosion threats and establish effective management strategies. It supports organisations seeking to improve equipment reliability, reduce unplanned shutdowns, maintain production continuity and protect the long-term value of ammonia and urea manufacturing assets.

Objectives

  • Explain the fundamental principles of corrosion in ammonia and urea production facilities.

  • Identify the principal corrosion mechanisms affecting ammonia synthesis and urea manufacturing equipment.

  • Evaluate the influence of process chemistry, operating temperature and pressure on corrosion behaviour.

  • Understand the properties and applications of common ammonia plant materials.

  • Assess material suitability for different process environments and equipment applications.

  • Recognise hydrogen-related degradation and high-temperature damage mechanisms in ammonia production systems.

  • Explain the causes and characteristics of urea corrosion and ammonium carbamate-related degradation.

  • Identify the effects of welding quality, fabrication procedures and passivation on corrosion resistance.

  • Evaluate corrosion threats affecting pressure vessels, piping systems, heat exchangers, reactors and condensers.

  • Interpret corrosion inspection findings, thickness measurements and equipment condition reports.

  • Understand the application of non-destructive testing in corrosion assessment.

  • Establish appropriate corrosion monitoring and inspection priorities.

  • Apply risk-based principles to the management of process equipment degradation.

  • Evaluate corrosion prevention techniques and engineering control measures.

  • Develop practical corrosion mitigation strategies for ammonia and urea production facilities.

  • Strengthen coordination between process engineering, inspection, maintenance and operations departments.

  • Support equipment reliability, production continuity and long-term asset integrity.

Training methodology

The Corrosion Control in Ammonia and Urea Plants Training Course adopts a practical, engineering-focused delivery methodology that connects corrosion science with the operating requirements of ammonia and urea production facilities. Institute For Oil & Gas Training combines technical presentations, industrial case studies, equipment degradation scenarios, inspection exercises and collaborative discussions to develop a comprehensive understanding of corrosion prevention and control.

The methodology begins with the relationship between process chemistry and corrosion behaviour. Participants examine the operating environments found in ammonia synthesis and urea production systems, identifying how chemical composition, temperature, pressure and process conditions influence equipment degradation. This foundation helps participants distinguish between corrosion mechanisms associated with ammonia production and those encountered in urea manufacturing.

Technical case studies provide opportunities to examine corrosion problems involving pressure vessels, reactors, heat exchangers, piping systems, condensers and other critical process equipment. Participants review typical damage locations, operating conditions, material characteristics and inspection findings to understand how degradation develops and how engineering teams establish appropriate corrective measures.

The programme incorporates material selection exercises covering carbon steel, stainless steel, alloy materials and specialised corrosion-resistant materials. Participants consider the relationship between material properties, process compatibility, fabrication quality and operating conditions. These exercises strengthen the ability to assess material suitability and recognise the importance of controlling welding, heat treatment and passivation requirements.

Inspection and condition assessment activities focus on identifying damage mechanisms and interpreting equipment condition information. Participants examine inspection reports, corrosion monitoring data, thickness measurements and non-destructive testing findings. They explore how inspection results support corrosion rate assessment, remaining-life considerations, maintenance priorities and equipment integrity decisions.

Real-world operational scenarios address situations involving unexpected corrosion, deterioration of protective systems, process deviations and recurring equipment failures. Participants evaluate the technical implications of these conditions and discuss appropriate responses involving operations, maintenance, inspection and engineering personnel.

Group exercises encourage participants to approach corrosion challenges from different professional perspectives. Process engineers, materials specialists, inspection personnel and maintenance professionals examine how coordinated decisions improve corrosion management. Discussions also address the importance of accurate operating records, inspection documentation, equipment history and communication between technical departments.

The training methodology concludes by connecting corrosion prevention with long-term asset integrity management. Participants examine how inspection strategies, risk-based prioritisation, materials management, operating controls and maintenance programmes contribute to sustainable corrosion mitigation. This practical approach enables attendees to apply course knowledge to the technical and operational requirements of their organisations.

Organisational impact

Effective management of ammonia and urea plant corrosion directly influences equipment availability, production reliability, operational safety and maintenance expenditure. The Corrosion Control in Ammonia and Urea Plants Training Course helps sponsoring organisations strengthen their corrosion management practices, improve equipment reliability and make more informed asset integrity decisions.

Improved Equipment Reliability

A stronger understanding of corrosion mechanisms enables engineering and maintenance teams to identify equipment vulnerabilities and address degradation before it develops into serious operational problems. Organisations improve their technical oversight of reactors, pressure vessels, heat exchangers, piping networks, condensers and other essential process equipment. This supports reliable plant operation and reduces exposure to unexpected equipment failures.

Reduced Unplanned Shutdowns

Corrosion-related equipment failures interrupt production, increase maintenance requirements and affect manufacturing schedules. Improved inspection planning, condition monitoring and corrosion mitigation enable organisations to identify emerging threats and prioritise corrective actions. These capabilities support effective maintenance planning and reduce the likelihood of avoidable production interruptions.

More Effective Maintenance Planning

The programme strengthens the ability of technical teams to interpret inspection findings and incorporate equipment condition information into maintenance decisions. Organisations benefit from better coordination between inspection, maintenance and engineering functions. Maintenance activities become more closely aligned with identified degradation mechanisms, equipment criticality and operational requirements.

Improved Materials Management

Understanding ammonia plant materials and their suitability for specific process environments supports better engineering decisions during equipment procurement, fabrication, repair and replacement. Organisations develop greater awareness of material compatibility, welding requirements, fabrication quality and corrosion-resistant design considerations. This reduces the risk of unsuitable material applications and recurring equipment degradation.

Stronger Operational Safety

Corrosion can compromise pressure boundaries, equipment containment and the mechanical integrity of process systems. Improved recognition of corrosion threats strengthens the organisation's ability to identify equipment deterioration and implement appropriate engineering controls. This contributes to safer operating conditions and more effective management of process equipment integrity.

Better Inspection and Integrity Management

The course supports the development of structured inspection programmes based on equipment condition, identified damage mechanisms and operational risk. Organisations improve their ability to interpret inspection reports, prioritise critical equipment and establish appropriate monitoring activities. This strengthens the connection between inspection findings and practical maintenance decisions.

Improved Corrosion Mitigation

A systematic approach to corrosion mitigation enables organisations to address the underlying causes of degradation rather than relying exclusively on corrective maintenance. Better control of operating conditions, materials selection, fabrication quality, passivation and inspection activities supports sustainable corrosion management and improves long-term equipment performance.

Greater Production Efficiency

Reliable equipment supports stable process operation and more effective utilisation of production assets. By improving corrosion awareness and technical decision-making, organisations strengthen their ability to maintain production performance, manage maintenance resources and reduce disruptions associated with equipment deterioration.

Stronger Cross-Departmental Coordination

Effective corrosion management requires collaboration between process engineering, mechanical engineering, materials specialists, inspection personnel, maintenance teams and plant operations. The programme establishes a shared technical understanding that improves communication, supports coordinated engineering decisions and strengthens organisational accountability for asset integrity.

Personal impact

Participants completing the Corrosion Control in Ammonia and Urea Plants Training Course develop specialised knowledge that strengthens their professional contribution to industrial corrosion management and asset integrity.

They gain a clearer understanding of the relationship between ammonia and urea process chemistry, equipment materials and corrosion mechanisms. This enables them to recognise degradation patterns and assess corrosion-related concerns within the operating environments of fertiliser and petrochemical production facilities.

The programme strengthens participants' ability to evaluate material performance and understand the factors governing material selection. They develop greater awareness of carbon steel, stainless steel and specialised corrosion-resistant alloys, including the importance of process compatibility, welding quality, fabrication practices and passivation.

Participants improve their technical understanding of hydrogen-related damage, high-temperature degradation, localised corrosion and ammonium carbamate-related corrosion. This knowledge supports more informed discussions with materials engineers, inspection specialists, process engineers and equipment manufacturers.

The course also develops practical capabilities in corrosion inspection and condition assessment. Participants gain experience interpreting inspection findings, understanding thickness measurements, reviewing corrosion monitoring information and identifying areas requiring further investigation. They become better equipped to contribute to inspection planning and equipment integrity reviews.

Another important benefit is improved decision-making in maintenance and operational environments. Participants develop a structured approach to identifying corrosion threats, evaluating equipment condition and prioritising appropriate corrective actions. They also gain a stronger understanding of risk-based inspection principles and their contribution to equipment reliability.

For professionals responsible for engineering and maintenance management, the programme strengthens the ability to evaluate corrosion-related maintenance requirements, communicate technical risks and support effective resource allocation. Inspection and quality personnel gain a broader understanding of the process conditions influencing equipment degradation, improving their contribution to inspection and fabrication activities.

The course also enhances professional confidence when discussing corrosion problems, reviewing engineering recommendations and coordinating technical activities across departments. Participants leave with practical knowledge that supports their responsibilities in corrosion engineering, materials selection, equipment inspection, maintenance planning and asset integrity management.

Who should attend

  • Corrosion Engineers: Professionals responsible for identifying corrosion mechanisms, evaluating degradation and developing corrosion mitigation strategies.

  • Materials Engineers: Specialists involved in selecting, evaluating and managing materials for ammonia and urea process environments.

  • Mechanical Engineers: Engineers responsible for the mechanical integrity, reliability and performance of process equipment.

  • Inspection Engineers: Professionals responsible for developing inspection programmes and evaluating equipment condition.

  • Plant Integrity Engineers: Specialists managing equipment degradation, integrity assessments and long-term asset reliability.

  • Maintenance Managers: Managers responsible for planning maintenance activities and controlling corrosion-related equipment deterioration.

  • Maintenance Engineers: Engineers involved in equipment maintenance, repair, replacement and reliability improvement.

  • Plant Managers: Senior professionals overseeing production performance, equipment availability and plant operational integrity.

  • Production and Process Engineers: Professionals responsible for process performance and operating conditions that influence corrosion behaviour.

  • Reliability Engineers: Specialists working to improve equipment performance and reduce failures associated with degradation.

  • Quality Assurance and Quality Control Professionals: Personnel responsible for fabrication quality, welding inspection, material verification and repair quality.

  • Welding Engineers and Supervisors: Professionals involved in welding procedures, fabrication activities and corrosion-sensitive equipment repairs.

  • Non-Destructive Testing Specialists: Personnel involved in detecting, assessing and monitoring equipment deterioration.

  • Technical Superintendents and Engineering Managers: Senior technical professionals responsible for engineering standards, equipment integrity and maintenance strategy.

  • Project Engineers: Professionals involved in the design, procurement, construction and commissioning of ammonia and urea facilities.

  • Asset Integrity Managers: Managers responsible for maintaining equipment condition, inspection effectiveness and long-term asset performance.

  • Operations and Maintenance Supervisors: Supervisors coordinating plant activities and responding to equipment condition and corrosion-related issues.

Course outline

This module establishes the technical foundation for understanding corrosion in ammonia and urea manufacturing facilities. Participants examine the relationship between process chemistry, operating conditions, equipment design and material performance. The module distinguishes the corrosion challenges associated with ammonia synthesis from those encountered in urea production and introduces the principal degradation mechanisms affecting critical plant equipment.

Attention is given to general corrosion, localised corrosion, erosion-corrosion, stress corrosion cracking and hydrogen-related degradation. Participants explore how temperature, pressure, chemical composition, fluid velocity and process contamination influence corrosion behaviour and equipment reliability.

  1. API 571

    • Provides guidance on damage mechanisms affecting fixed equipment in process industries.

    • Describes corrosion and degradation mechanisms relevant to pressure vessels, piping and other process equipment.

    • Supports the identification of potential damage mechanisms through consideration of materials and operating environments.

    • Helps engineering and inspection professionals understand damage characteristics and their implications for equipment integrity.

    • Provides a technical reference for developing appropriate inspection and corrosion management strategies.

    Learning Outcomes

    • Explain the fundamental principles of corrosion in industrial process environments.

    • Differentiate between corrosion mechanisms encountered in ammonia and urea production.

    • Identify the influence of process chemistry and operating conditions on material degradation.

    • Recognise general corrosion, localised corrosion, erosion-corrosion and stress corrosion cracking.

    • Explain the relationship between equipment design, material properties and corrosion resistance.

    • Identify common equipment locations exposed to corrosion threats.

    • Understand the importance of systematic damage mechanism identification.

This module examines the materials engineering requirements of ammonia production facilities, with particular attention to equipment operating under high-pressure and elevated-temperature conditions. Participants explore the characteristics and applications of carbon steel, stainless steel and alloy steels used in ammonia synthesis systems, piping networks, pressure vessels and associated process equipment.

The module focuses on hydrogen-related degradation, including high-temperature hydrogen attack and its implications for equipment integrity. Participants examine the influence of material composition, operating temperature, hydrogen partial pressure and equipment condition on degradation. The module also considers material selection, fabrication quality, welding practices and the importance of appropriate engineering controls throughout the equipment lifecycle.

  1. API 941

    • Provides guidance on steels for hydrogen service at elevated temperatures and pressures.

    • Addresses high-temperature hydrogen attack and its effects on steel materials.

    • Presents the Nelson curves for evaluating material suitability in hydrogen-containing environments.

    • Supports engineering assessment of carbon and alloy steels exposed to high-temperature hydrogen service.

    • Helps technical teams evaluate material selection and equipment integrity considerations.

    Learning Outcomes

    • Identify common materials used in ammonia production facilities.

    • Explain the material requirements of high-pressure ammonia synthesis equipment.

    • Understand the mechanisms and consequences of high-temperature hydrogen attack.

    • Recognise operating conditions that influence hydrogen-related degradation.

    • Interpret the engineering significance of API 941 and its Nelson curves.

    • Evaluate material suitability for relevant hydrogen service conditions.

    • Understand the importance of welding quality and fabrication control.

    • Identify material-related considerations during equipment repair and replacement.

    • Support engineering discussions concerning ammonia plant materials and equipment reliability.

This module focuses on the distinctive corrosion challenges associated with urea manufacturing. Participants examine the chemical environments created by ammonia, carbon dioxide and ammonium carbamate throughout the urea synthesis and recovery processes. The module explains how process composition, temperature, pressure, material condition and operating practices influence corrosion behaviour in synthesis equipment and associated process systems.

Particular attention is given to urea corrosion, corrosion-resistant stainless steels and specialised materials used in urea production equipment. Participants examine the importance of material selection, welding procedures, fabrication quality, passivation and process control. The module also considers the consequences of unsuitable materials, surface contamination and inadequate maintenance practices for long-term equipment integrity.

  1. ASME Section VIII

    • Establishes construction requirements for pressure vessels within its applicable scope.

    • Addresses design, materials, fabrication, examination and testing requirements.

    • Supports engineering control of pressure-containing equipment used in industrial process facilities.

    • Provides requirements relevant to pressure vessel integrity and construction quality.

    • Helps technical teams understand the relationship between equipment design and mechanical integrity.

    Learning Outcomes

    • Explain the principal corrosion challenges associated with urea production.

    • Identify the influence of ammonium carbamate environments on material degradation.

    • Understand the corrosion resistance requirements of urea synthesis equipment.

    • Recognise the importance of selecting appropriate stainless steels and specialised alloys.

    • Explain how welding quality and fabrication practices influence corrosion performance.

    • Understand the role of passivation in maintaining corrosion-resistant surfaces.

    • Identify factors that contribute to localised corrosion and premature equipment deterioration.

    • Evaluate the relationship between material suitability and process operating conditions.

    • Identify practical measures for improving corrosion resistance in urea manufacturing systems.

This module develops the technical understanding required to identify, monitor and assess corrosion affecting critical ammonia and urea plant equipment. Participants examine inspection requirements for pressure vessels, process piping, heat exchangers, reactors, condensers and other pressure-containing systems. The module connects identified damage mechanisms with appropriate inspection techniques and equipment condition assessment methods.

Participants explore visual inspection, ultrasonic thickness measurement, radiographic examination and other relevant non-destructive testing approaches. Attention is given to corrosion monitoring, inspection records, thickness trends, corrosion rate calculations and the interpretation of inspection findings. The module also considers how inspection results support equipment condition assessments, maintenance planning and decisions concerning continued operation.

  1. API 510

    • Establishes inspection, repair, alteration and rerating requirements for pressure vessels within its scope.

    • Supports the management of pressure vessel integrity throughout operational service.

    • Addresses inspection planning and evaluation of equipment condition.

    • Provides guidance relevant to corrosion assessment and pressure vessel maintenance.

    • Supports decisions concerning repairs, alterations and continued equipment operation.

    Learning Outcomes

    • Identify inspection requirements for critical ammonia and urea plant equipment.

    • Select appropriate inspection approaches for different corrosion mechanisms.

    • Understand the application of ultrasonic thickness measurement and non-destructive testing.

    • Interpret inspection reports and equipment condition information.

    • Understand corrosion rate calculations and thickness monitoring trends.

    • Recognise the importance of inspection history and equipment records.

    • Identify areas requiring further investigation or corrective maintenance.

    • Understand the contribution of API 510 to pressure vessel inspection management.

    • Relate inspection findings to equipment integrity and operational priorities.

This module brings together the engineering and operational principles required to establish effective corrosion management strategies in ammonia and urea production facilities. Participants examine how materials selection, process control, inspection planning, maintenance practices and equipment monitoring contribute to long-term corrosion prevention. The module considers the relationship between corrosion mitigation and overall asset integrity management.

The focus extends to risk-based inspection, equipment criticality, maintenance prioritisation and the development of practical corrosion management plans. Participants examine methods for controlling recurring degradation, improving inspection effectiveness and coordinating corrosion-related decisions across engineering, maintenance and operations departments. The module concludes by considering how organisations integrate corrosion prevention into equipment lifecycle management and continuous operational improvement.

  1. API 580

    • Establishes the framework and fundamental principles of risk-based inspection.

    • Supports inspection planning based on the assessment of equipment failure risk.

    • Considers the probability and consequences of equipment failure.

    • Helps organisations prioritise inspection resources according to identified risks.

    • Supports more systematic management of pressure equipment integrity and inspection programmes.

    Learning Outcomes

    • Develop a structured approach to corrosion mitigation in ammonia and urea facilities.

    • Identify appropriate engineering and operational corrosion prevention measures.

    • Apply risk-based inspection principles to equipment condition management.

    • Understand equipment criticality and its influence on inspection priorities.

    • Evaluate the relationship between corrosion monitoring and maintenance planning.

    • Establish practical approaches to managing recurring process equipment degradation.

    • Understand the role of API 580 in risk-based inspection programmes.

    • Improve coordination between process engineering, inspection and maintenance departments.

    • Support the development of effective corrosion management plans.

    • Integrate corrosion prevention with long-term asset integrity objectives.

Certificate

Upon successful completion of the Corrosion Control in Ammonia and Urea Plants Training Course, attendees will receive a Certificate of Completion from Institute For Oil & Gas Training.

The certificate recognises participation in the programme and completion of its technical training requirements. Attendees must satisfy the required attendance requirement and participate in the scheduled course activities to qualify for the Certificate of Completion.

Course dates

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,100

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,100

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,100

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £4,100

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

Frequently asked questions

What is the main focus of the Corrosion Control in Ammonia and Urea Plants Training Course?

The course focuses on identifying, assessing and controlling corrosion in ammonia and urea manufacturing facilities. It covers corrosion mechanisms, ammonia plant materials, hydrogen-related degradation, urea corrosion, inspection techniques, equipment condition assessment and corrosion mitigation strategies. Participants develop practical knowledge for improving equipment reliability and supporting long-term asset integrity.

Why is corrosion management important in ammonia and urea plants?

Corrosion management is essential because ammonia and urea manufacturing facilities operate under demanding chemical, temperature and pressure conditions. Equipment degradation can compromise pressure boundaries, reduce operational reliability and increase maintenance requirements. Effective corrosion management helps organisations protect critical equipment, reduce unplanned shutdowns, improve inspection planning and maintain production continuity.

What corrosion mechanisms are covered in this training course?

The programme examines general corrosion, localised corrosion, erosion-corrosion, stress corrosion cracking, high-temperature degradation and hydrogen-related damage. It also addresses corrosion associated with ammonium carbamate environments in urea production. Participants explore the factors influencing these mechanisms and the engineering measures used to manage them.

Who should attend the Corrosion Control in Ammonia and Urea Plants Training Course?

The course is suitable for corrosion engineers, materials engineers, mechanical engineers, inspection engineers, maintenance managers, reliability engineers, process engineers, plant integrity professionals and operations supervisors. It is also relevant to project engineers, quality professionals and technical managers involved in the design, operation, inspection and maintenance of ammonia and urea manufacturing facilities.

How will participants benefit from this training course?

Participants develop specialised knowledge of corrosion mechanisms, material selection, equipment inspection and corrosion prevention in ammonia and urea production environments. They improve their ability to identify degradation threats, interpret inspection findings, understand equipment integrity requirements and contribute to effective maintenance and corrosion management strategies. Attendees receive a Certificate of Completion from Institute For Oil & Gas Training after satisfying the course attendance requirement.

Next: 16 Nov 2026

4 dates available

Register Now

Related training courses

Get the training calendar in your inbox

New courses, dates and industry insight. No more than twice a month.