Oil & Gas Production Chemistry and Chemical Treatment is a specialist professional training course offered by Institute For Oil & Gas Training for organisations seeking stronger control over production chemistry, oilfield chemicals, and chemical treatment across upstream oil and gas operations. The course addresses the operational challenges associated with fluid stability, scale formation, corrosion, emulsion management, deposit control, and production flow assurance, equipping industry professionals with practical methods to improve production reliability and asset performance.
Production systems operate under changing pressure, temperature, fluid composition, water cut, and flow conditions. These variables influence the behaviour of produced fluids and determine the effectiveness of chemical treatment programmes. Uncontrolled chemical interactions contribute to mineral deposition, corrosion, persistent emulsions, foaming, solids accumulation, and restrictions in production equipment. These problems affect production rates, equipment availability, maintenance requirements, and the reliability of processing facilities.
Effective production chemistry provides the technical foundation for understanding these challenges and selecting appropriate chemical management strategies. It connects laboratory analysis, field sampling, fluid characterisation, chemical selection, injection practices, performance monitoring, and operational troubleshooting. For operators, production engineers, process engineers, and chemical specialists, this knowledge supports better decisions throughout the production lifecycle.
The Oil & Gas Production Chemistry and Chemical Treatment Training Course examines how chemical behaviour influences the movement and processing of hydrocarbons from the wellhead to separation, treatment, storage, and export systems. Participants explore the relationship between reservoir fluids, produced water, dissolved gases, operating conditions, and treatment chemicals. The course also develops an understanding of how chemical programmes interact with mechanical equipment, process design, operating procedures, and asset integrity requirements.
A central focus is the prevention and management of production chemistry problems before they become persistent operational issues. Participants examine scale prevention strategies, corrosion control, demulsifier selection, water treatment, hydrate management, wax deposition, and other chemical challenges affecting production systems. They learn to interpret operational symptoms, investigate underlying causes, and evaluate treatment performance using field observations, laboratory results, and process data.
Chemical treatment decisions require more than selecting a product based on a supplier recommendation. Effective programmes depend on identifying the problem correctly, establishing treatment objectives, understanding chemical compatibility, selecting suitable injection points, and verifying performance under representative operating conditions. Poor chemical selection or uncontrolled dosage introduces additional risks, including chemical incompatibility, increased operating expenditure, separation difficulties, and unnecessary environmental management burdens.
This course gives participants a structured approach to evaluating these decisions. It examines the role of laboratory testing in supporting field applications, the importance of representative sampling, and the value of monitoring chemical consumption against operational performance. Participants also consider how changing production conditions affect treatment requirements and why chemical programmes need regular technical review.
Production flow assurance forms another important component of the course. Stable production depends on controlling physical and chemical processes that restrict fluid movement through wells, flowlines, pipelines, and processing facilities. Participants examine how wax, scale, hydrates, asphaltenes, solids, and multiphase flow conditions contribute to production restrictions. They also explore practical approaches for identifying developing problems and coordinating chemical treatment with operational and maintenance activities.
Institute For Oil & Gas Training delivers this programme for professionals responsible for maintaining production efficiency, managing chemical consumption, supporting process operations, and protecting production assets. The content connects technical principles with field applications so participants can apply the knowledge to operating facilities, production support functions, and chemical management programmes.
The course is particularly relevant to organisations managing mature fields, high-water-cut production, complex fluid compositions, offshore facilities, and production networks with demanding operating conditions. It supports a consistent approach to production chemistry across technical departments, helping teams improve troubleshooting, communicate treatment requirements, and evaluate the operational consequences of chemical management decisions.
By the end of the programme, participants will understand how to assess production chemistry challenges, select suitable chemical treatment approaches, monitor treatment effectiveness, and integrate chemical management into wider production flow assurance and asset reliability objectives.
Explain the principles of production chemistry and their influence on hydrocarbon production, processing, and transportation.
Identify common chemical and fluid-related challenges affecting wells, flowlines, pipelines, separators, and production facilities.
Assess the influence of fluid composition, pressure, temperature, water cut, and operating conditions on production chemistry.
Evaluate oilfield chemicals according to treatment objectives, fluid characteristics, chemical compatibility, and operating requirements.
Apply practical approaches to scale prevention and mineral deposition management in production systems.
Recognise corrosion mechanisms and evaluate chemical treatment strategies that support equipment integrity.
Explain the causes of emulsion formation, foaming, and separation difficulties and identify appropriate treatment considerations.
Assess wax, asphaltene, hydrate, and solids-related risks affecting production flow assurance.
Understand the role of laboratory analysis, compatibility testing, and representative sampling in chemical programme development.
Evaluate chemical injection locations, dosage practices, and monitoring requirements.
Interpret production data and field observations to investigate chemical treatment problems.
Establish practical indicators for measuring treatment effectiveness and chemical consumption.
Identify opportunities to improve chemical procurement, handling, storage, and application practices.
Integrate production chemistry management with process safety, environmental controls, and asset integrity objectives.
Develop a systematic approach to troubleshooting, documenting, and improving chemical treatment programmes.
Institute For Oil & Gas Training uses an industry-focused delivery methodology that combines technical explanations, practical case studies, structured group exercises, and production troubleshooting scenarios. The approach connects production chemistry principles with the decisions that professionals make in operating wells, flowlines, separation systems, water treatment facilities, and hydrocarbon processing plants.
The methodology focuses on practical application rather than theoretical instruction alone. Participants examine common chemical problems, evaluate available operational evidence, and consider the consequences of alternative treatment decisions. Exercises encourage them to connect chemical behaviour with production performance, equipment condition, treatment expenditure, and operational reliability.
Participants examine representative oil and gas production scenarios involving scale deposition, corrosion, emulsion instability, wax formation, hydrate risks, and chemical incompatibility. Each case study establishes the operating context, identifies the symptoms, and explores the evidence required to determine the underlying problem.
Discussions cover the relationship between fluid composition, operating conditions, chemical selection, and observed production performance. Participants evaluate how sampling results, laboratory findings, pressure changes, temperature variations, and process observations contribute to a reliable diagnosis.
Structured exercises examine the factors that influence oilfield chemicals selection. Participants compare treatment objectives, fluid properties, chemical compatibility, operating conditions, and injection requirements. They assess the suitability of different approaches against the nature of the production problem.
The exercises also address the importance of validating chemical performance. Participants consider how laboratory screening, field trials, dosage optimisation, and operational monitoring contribute to treatment decisions. This approach reinforces the principle that a chemical programme must demonstrate operational value under relevant conditions.
Scenario-based exercises place participants in situations involving deteriorating separation performance, increasing pressure drop, rising chemical consumption, recurring deposits, and unstable produced-water quality. They review the available evidence, establish possible causes, and identify the checks required before implementing corrective action.
These simulations encourage systematic troubleshooting rather than reactive chemical dosing. Participants learn to distinguish between symptoms and root causes, consider mechanical and process-related contributors, and identify when additional laboratory analysis or specialist support is required.
Participants work through production chemistry challenges from the perspectives of operations, process engineering, production engineering, laboratory services, maintenance, and chemical suppliers. Group discussions demonstrate how responsibilities overlap and why treatment programmes require coordinated technical input.
Exercises also cover communication between field teams and technical departments. Participants consider how to document chemical changes, communicate abnormal results, report treatment performance, and establish clear responsibilities for reviewing chemical programmes.
The course connects learning outcomes with practical workplace applications. Participants examine the information required to assess treatment effectiveness, including chemical consumption, production trends, separation performance, water quality, equipment condition, and evidence of deposition or corrosion.
They also consider how to establish performance indicators and review them consistently. This supports better evaluation of treatment expenditure, identification of recurring problems, and continuous improvement of production chemistry practices.
Organisations sponsoring employees on this course gain a stronger technical foundation for managing chemical-related production problems, controlling treatment expenditure, and improving the reliability of operating assets. The benefits arise from better diagnosis, more disciplined chemical selection, effective performance monitoring, and improved coordination between production and support teams.
Recurring scale deposition, unstable emulsions, solids accumulation, and other chemistry-related problems interrupt production and increase the demand for corrective maintenance. Better understanding of these mechanisms helps teams identify developing issues and evaluate appropriate preventive measures.
A structured approach to production chemistry supports earlier identification of abnormal operating trends and more consistent troubleshooting. Organisations gain a clearer basis for prioritising treatment interventions and reducing avoidable production interruptions associated with chemical deposits and fluid instability.
Chemical expenditure represents an important operating cost across many production facilities. Unnecessary dosing, unsuitable products, poor injection practices, and insufficient performance verification increase expenditure without establishing corresponding operational benefits.
The course develops the ability to evaluate chemical treatment programmes against defined objectives. Organisations can use this knowledge to review consumption trends, compare treatment performance, challenge unsupported dosage increases, and identify opportunities for optimisation.
Mineral deposits and corrosion affect production equipment, flowlines, pipelines, and processing facilities. Their consequences include restricted flow, equipment deterioration, increased inspection requirements, and additional maintenance activities.
Participants learn to recognise the factors influencing scale formation and corrosion and understand the role of appropriate chemical programmes. This supports more informed preventive maintenance planning and stronger integration between production chemistry, inspection, and asset integrity functions.
Flow assurance problems affect the movement of hydrocarbons through wells, gathering systems, and processing networks. Wax, hydrates, asphaltenes, scale, and solids create different challenges that require appropriate identification and management.
The course helps organisations establish a more consistent method for evaluating these risks. Production teams gain a clearer understanding of the relationship between fluid behaviour, operating conditions, chemical treatment, and production restrictions. This supports more effective operational planning and reduces dependence on reactive responses alone.
Production problems often involve several interacting causes. A decline in separator performance, for example, can result from changes in fluid composition, emulsion stability, chemical compatibility, operating conditions, or equipment performance.
A systematic diagnostic approach enables teams to investigate these possibilities before changing treatment programmes. This improves the quality of technical decisions, reduces unnecessary interventions, and encourages evidence-based corrective action.
Chemical management requires appropriate controls for storage, transfer, injection, handling, and disposal. Inadequate procedures expose personnel and facilities to chemical hazards and increase the likelihood of spills, incompatible mixtures, and unsafe operating conditions.
The course reinforces the importance of understanding chemical hazards, following approved site procedures, reviewing safety information, and coordinating chemical changes with operational controls. These practices support responsible chemical management and contribute to safer production operations.
Production chemicals and produced-water treatment programmes require careful management to protect process performance and environmental controls. Inappropriate chemical selection or excessive dosing can complicate separation and water treatment operations.
Participants examine the relationship between chemical application, produced-water quality, treatment performance, and environmental management. Organisations can apply this understanding when reviewing treatment plans, investigating abnormal results, and coordinating operational changes with environmental specialists.
Production chemistry decisions frequently involve production engineers, process engineers, laboratory personnel, operations teams, maintenance specialists, procurement staff, and chemical suppliers. Inconsistent communication creates delays and weakens the quality of treatment decisions.
The course establishes a common technical basis for discussing chemical problems and evaluating treatment options. This supports clearer reporting, more consistent documentation, and better coordination between departments responsible for production performance and asset reliability.
Organisations need reliable indicators to assess whether chemical programmes achieve their intended results. Relevant measures include chemical consumption per unit of production, frequency of recurring deposits, treatment-related operating interruptions, separation performance, produced-water quality, and maintenance requirements associated with chemistry problems.
The course helps participants understand how to select indicators appropriate to individual treatment objectives. These measures provide a practical basis for establishing baselines, monitoring changes, and reviewing programme effectiveness without assuming that a single indicator is suitable for every facility.
The Oil & Gas Production Chemistry and Chemical Treatment Training Course strengthens the technical and operational capabilities of professionals responsible for production performance and chemical management. Participants develop a clearer understanding of how chemical behaviour affects production systems and how to apply this knowledge to workplace decisions.
Participants build a practical understanding of production chemistry, including fluid properties, chemical interactions, mineral deposition, corrosion, emulsions, and flow assurance. They learn to connect these principles with operating conditions and the behaviour of production equipment.
This knowledge supports more confident discussions with laboratory teams, process specialists, chemical suppliers, and operations personnel.
Participants develop a structured approach to investigating chemical treatment problems. They learn to identify symptoms, review available evidence, evaluate possible causes, and determine which additional tests or operational checks are necessary.
These skills improve their ability to contribute to troubleshooting activities and recommend corrective actions supported by technical evidence.
The programme strengthens understanding of the factors that influence chemical selection, including fluid compatibility, treatment objectives, injection requirements, operating conditions, and performance verification.
Participants gain a clearer basis for questioning unsuitable recommendations, evaluating treatment proposals, and contributing to technical reviews of chemical programmes.
Participants learn to assess the relationship between chemical treatment, production rates, equipment performance, maintenance requirements, and operating expenditure. This broader perspective helps them evaluate the consequences of treatment changes rather than focusing exclusively on immediate symptoms.
The course improves participants' ability to communicate production chemistry issues in clear operational terms. They learn to organise observations, interpret relevant data, document treatment changes, and explain technical findings to colleagues in different departments.
Production chemistry knowledge is relevant to professionals working in upstream operations, process engineering, production optimisation, chemical management, flow assurance, and asset integrity. The skills developed through the programme support broader responsibilities involving technical evaluation, operational troubleshooting, and treatment programme improvement.
Participants also gain a more structured understanding of how production chemistry contributes to wider business objectives, including reliability, cost control, process safety, and environmental management.
Production Engineers: To improve the evaluation of chemical problems affecting well performance, production stability, and operating efficiency.
Process Engineers: To understand how chemical interactions influence separation, treatment processes, and production facility performance.
Production Chemists: To strengthen chemical programme design, fluid analysis, treatment selection, and field performance assessment.
Chemical Engineers: To connect chemical treatment principles with production equipment, process conditions, and operational requirements.
Flow Assurance Engineers: To improve their understanding of scale, wax, hydrate, and other deposition risks affecting hydrocarbon transportation.
Operations Managers and Superintendents: To improve oversight of chemical consumption, production reliability, treatment performance, and operational risk.
Field Production Supervisors: To recognise chemistry-related production problems and coordinate appropriate field responses.
Well Operations Engineers: To understand the chemical challenges associated with well production, fluid compatibility, and deposit prevention.
Laboratory and Production Chemists: To improve the practical application of sampling, laboratory analysis, and compatibility testing in production environments.
Corrosion and Materials Engineers: To strengthen understanding of chemical corrosion control and the interaction between treatment programmes and asset integrity.
Water Treatment Specialists: To evaluate the influence of chemical treatment on produced-water quality, separation performance, and water handling systems.
Maintenance and Reliability Engineers: To understand the contribution of deposits, corrosion, and chemical incompatibility to equipment deterioration and maintenance demand.
Technical Services Engineers: To support production troubleshooting, chemical programme reviews, and operational performance improvement.
Chemical Procurement and Supply Specialists: To understand the technical considerations influencing chemical specifications, supplier evaluation, and treatment product selection.
HSE Professionals: To strengthen their understanding of chemical handling, operational controls, and the safety considerations associated with production treatment programmes.
Asset and Production Managers: To improve oversight of production chemistry risks, treatment expenditure, asset reliability, and cross-functional performance.
Experienced Oil and Gas Professionals Moving into Production Chemistry: To develop the technical foundation required to contribute to chemical management and production optimisation activities.
This module establishes the technical foundations of production chemistry and explains how fluid composition and operating conditions influence oil and gas production. Participants examine the behaviour of crude oil, produced water, dissolved gases, suspended solids, and associated chemical species throughout production and processing systems.
The module also explores how changes in pressure, temperature, salinity, water cut, and fluid composition influence chemical stability and the formation of deposits. Participants develop a structured understanding of the relationship between production chemistry, equipment performance, and operating reliability.
Establishes requirements for an environmental management system and supports systematic control of environmental aspects associated with operational activities.
Provides a framework for identifying and managing environmental risks associated with production operations and chemical use.
Supports the integration of environmental objectives into operational planning and continual improvement.
Helps organisations establish processes for evaluating environmental performance and maintaining appropriate operational controls.
Explain the fundamental principles of production chemistry in upstream oil and gas operations.
Identify the main physical and chemical characteristics of crude oil, produced water, and associated gases.
Describe how temperature, pressure, salinity, and fluid composition influence chemical behaviour.
Recognise common production chemistry problems and distinguish their principal characteristics.
Explain the relationship between fluid behaviour, processing performance, and production flow assurance.
Identify the importance of representative sampling and reliable laboratory data when evaluating production fluids.
Describe how environmental management considerations influence chemical selection and operational practices.
Scale formation is a major production chemistry challenge in systems handling formation water, injection water, and produced fluids. Changes in pressure, temperature, water composition, and the mixing of incompatible waters influence mineral saturation and precipitation. Deposits restrict flow, reduce equipment efficiency, and increase maintenance requirements.
This module examines the mechanisms responsible for scale formation and the factors that determine deposition risk. Participants explore practical approaches to scale prevention, including water compatibility assessment, chemical inhibition, monitoring, and the evaluation of treatment performance. The module also considers how chemical programmes integrate with operating conditions and asset integrity priorities.
Addresses the control of corrosion under insulation in applicable industrial equipment and piping systems.
Supports the identification and management of corrosion risks in insulated assets, including those affected by operating and environmental conditions.
Provides relevant considerations for coordinating chemical corrosion control with wider asset integrity practices.
Complements production chemistry management where deposit accumulation and equipment condition require coordinated investigation.
Explain the principal mechanisms responsible for mineral scale formation.
Identify operating conditions and water chemistry characteristics that influence scale deposition.
Assess the importance of produced-water analysis and compatibility testing.
Explain how scale inhibitors support preventive chemical treatment programmes.
Evaluate the factors influencing inhibitor selection, injection location, and treatment performance.
Recognise signs of scale-related production restrictions and identify appropriate investigative measures.
Establish practical monitoring considerations for reviewing scale prevention effectiveness.
Explain the relationship between deposition control, maintenance planning, and equipment reliability.
Corrosion control is an essential component of production chemistry management because produced fluids often contain water, dissolved gases, salts, and other substances that contribute to material degradation. Operating conditions, fluid composition, water chemistry, and equipment design influence corrosion behaviour and the effectiveness of preventive measures.
This module examines the role of corrosion inhibitors and other chemical treatments in protecting production equipment and associated piping systems. Participants explore the importance of chemical compatibility, treatment selection, injection practices, monitoring, and coordination with inspection programmes. The module also considers how chemical treatment supports wider corrosion management without replacing appropriate materials selection, inspection, or engineering controls.
Addresses materials selection and corrosion control for oil and gas production systems.
Provides guidance for evaluating material performance in relevant production environments.
Supports the assessment of corrosion mechanisms and the selection of suitable corrosion control measures.
Helps integrate chemical treatment considerations with materials engineering and asset integrity management.
Identify common corrosion mechanisms affecting oil and gas production equipment.
Explain how produced-water characteristics and dissolved gases influence corrosion risks.
Describe the operating principles of chemical corrosion inhibitors.
Evaluate the factors influencing inhibitor selection and compatibility with production fluids.
Explain the importance of injection strategy, dosage control, and treatment monitoring.
Recognise the limitations of chemical treatment as part of an overall corrosion management programme.
Interpret basic operational and inspection indicators when investigating possible corrosion problems.
Coordinate chemical control considerations with materials selection, inspection, and maintenance activities.
Effective separation of oil, gas, and produced water depends on the characteristics of the fluids entering processing facilities and the operating conditions within the separation system. Stable emulsions, foaming, solids, and unsuitable chemical interactions interfere with separation efficiency and create challenges for downstream water treatment and hydrocarbon handling.
This module examines the causes of emulsion formation and the role of demulsifiers, water treatment chemicals, and other production chemicals in maintaining process stability. Participants assess the influence of chemical selection, dosage, mixing, temperature, residence time, and fluid properties on treatment results. They also consider the importance of monitoring separation performance and investigating changes in produced-water quality.
Provides a framework for identifying and managing environmental aspects associated with operational processes.
Supports the evaluation of environmental risks arising from chemical use and produced-water handling.
Encourages operational controls that help prevent or reduce adverse environmental impacts.
Promotes performance monitoring and continual improvement in environmental management practices.
Explain the mechanisms responsible for emulsion formation and stability.
Identify factors affecting oil-water separation and produced-water treatment.
Describe the functions of demulsifiers, water clarifiers, and other relevant treatment chemicals.
Evaluate chemical compatibility and operating conditions when investigating separation problems.
Explain how chemical dosage and injection practices influence treatment performance.
Identify operational indicators associated with poor separation, foaming, and unstable water quality.
Assess the importance of produced-water monitoring when reviewing chemical treatment programmes.
Integrate chemical management considerations with process performance and environmental controls.
Production flow assurance requires the reliable movement of hydrocarbons through wells, flowlines, pipelines, and processing facilities. Wax deposition, asphaltene instability, hydrate formation, mineral scale, and suspended solids create different risks depending on fluid composition and operating conditions. Effective management requires accurate problem identification, appropriate preventive measures, and continuous evaluation of system performance.
This module focuses on chemical strategies for managing flow assurance challenges and improving treatment programme effectiveness. Participants examine the principles behind wax inhibitors, dispersants, hydrate inhibitors, and other relevant chemical solutions. They also consider how laboratory testing, field monitoring, chemical consumption analysis, and operational data contribute to treatment optimisation and more reliable production.
Establishes requirements and guidance for pipeline transportation systems in the petroleum and natural gas industries.
Addresses the design, construction, testing, operation, maintenance, and integrity management of relevant pipeline systems.
Supports the consideration of operational hazards and pipeline reliability throughout the system lifecycle.
Provides an engineering framework relevant to coordinating flow assurance and chemical treatment with pipeline operation and integrity management.
Explain the principal flow assurance challenges affecting oil and gas production systems.
Identify the conditions that contribute to wax deposition, asphaltene instability, and hydrate formation.
Describe the functions of chemical inhibitors and other treatments used in flow assurance management.
Evaluate the relationship between fluid properties, operating conditions, and deposition risks.
Explain how laboratory testing and field trials support chemical programme development.
Assess chemical consumption and operational indicators when reviewing treatment effectiveness.
Identify opportunities to improve injection practices, treatment monitoring, and chemical cost control.
Develop a structured approach to investigating recurring flow assurance problems.
Explain how chemical treatment programmes support pipeline reliability and production continuity.
Attendees who successfully complete the Oil & Gas Production Chemistry and Chemical Treatment Training Course receive a Certificate of Completion from Institute For Oil & Gas Training.
The certificate recognises participation in the professional training programme and completion of its learning requirements. Attendees must satisfy the course attendance requirement established by Institute For Oil & Gas Training to qualify for the certificate. The certificate confirms course completion and does not represent a professional licence or an independently accredited technical qualification.
Fees include tuition, course materials and refreshments. Need different dates or a different city? Ask about your preferred date.
The course examines the chemical processes that influence oil and gas production, including scale formation, corrosion, emulsion stability, produced-water treatment, and production flow assurance. It develops practical skills in chemical selection, treatment evaluation, troubleshooting, and performance monitoring.
The course is designed for production engineers, process engineers, production chemists, chemical engineers, flow assurance specialists, operations supervisors, corrosion engineers, water treatment professionals, and other personnel involved in production operations and chemical management.
Institute For Oil & Gas Training uses an industry-focused approach incorporating technical discussions, case studies, group exercises, and production troubleshooting scenarios. Participants explore practical applications of production chemistry and evaluate chemical treatment decisions against operational requirements.
Participants develop skills in identifying production chemistry problems, understanding chemical compatibility, evaluating scale prevention strategies, assessing corrosion control methods, improving separation performance, and monitoring chemical treatment effectiveness. They also learn how chemical management supports production flow assurance and operational reliability.
Yes. Attendees who complete the course and satisfy the attendance requirement established by Institute For Oil & Gas Training receive a Certificate of Completion. The certificate confirms completion of the training programme and does not constitute a professional licence or independently accredited technical qualification.
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