Course Overview
This comprehensive professional development program is designed for Senior, middle, and junior level employees of an organization, Employees involved in crude oil refinery-related activities, Managers responsible for oil consumption and supply, Legal consultants and advisors responsible for ensuring all regulations and legislations are met, Quality checkers and refinery managers or auditors, Any professional across any profile in any industry, and Any other professional interested in being certified as a crude oil refinery supervisor or manager responsible for implementing crude oil treatment plant and process excellence across parametric optimization of a two-stage electrostatic desalting unit and crude oil stabilization column at an Iranian oil field, industrial desalting plant performance through temperature and demulsifier concentration and mixing intensity optimization, and oilfield produced water treatment for environmental compliance in multi-organizational contexts. The program addresses proven practices in Genetic Algorithm-based concurrent desalting and stabilization optimization, demulsifier chemistry and temperature and mixing energy optimization for emulsion breaking and salt removal, and multi-stage OPW treatment train design for regulatory compliance where Mojgan Abbasi from an Iranian oil field published in Chemical Engineering Research and Design that the study aimed to improve the performance of a crude oil treatment unit for an Iranian oil field with the process involving a two-stage desalting unit followed by a stabilization tower and a Genetic Algorithm used to simultaneously optimize both units with sensitivity analysis confirming that pressure drop across mixing valves and electric field strength and wash-water flow rates in each desalter stage and initial desalter operating temperature are the most influential variables and the optimized configuration simultaneously maximizing crude oil recovery and meeting salt and water specifications, Leila Vafajoo and coauthors publishing in the Journal of Petroleum Science and Engineering a study on the influence of key parameters on crude oil desalting combining laboratory bottle tests with fuzzy logic theoretical calculations and confirming that injection of 50 to 100 ppm demulsifier produced optimum separation of 88 percent for BS&W and approximately 99 percent for salt and that correct demulsifier selection and dosing combined with optimized temperature and mixing is critical to achieving consistent dehydration and desalting efficiency, and Okorie Samuel and coauthors publishing in the Journal of Environmental Management a 2022 comprehensive review of oilfield produced water treatment confirming that it is expected that before OPW is released into the environment it should not contain more than 40 ppm of oil-water emulsion and that combined physical and chemical and biological treatments have been utilized to enhance water quality and that membrane technologies and advanced oxidation processes are increasingly adopted to meet tightening global standards.
The curriculum integrates Overview of Petroleum Formation and Production, Oil Separation Process, Emulsion Treatment and Dehydration, Crude Oil Stabilization and Storage, Sweetening and Recovery, Desalting of Crude Oil, Rules, Regulations and Laws, and Maintenance and Failure of Equipment to provide comprehensive coverage of crude oil treatment plant and process principles, desalting and emulsion treatment and stabilization optimization methodologies, and OPW treatment and environmental compliance and equipment maintenance integration domains for achieving crude oil treatment plant and process excellence.
Why This Course Is Required?
Genetic Algorithm-based concurrent desalting and stabilization optimization represent critical competencies where Abbasi confirmed that early production in oil fields can cause problems related to oil specifications in the existing process unit especially in the stabilization tower and that this study aimed to improve the performance of a crude oil treatment unit for an Iranian oil field with the process involving a two-stage desalting unit followed by a stabilization tower and that the Genetic Algorithm simultaneously optimized both units with sensitivity analysis confirming that pressure drop across mixing valves and electric field strength and wash-water flow rates in each desalter stage and initial desalter operating temperature are the most influential variables. Demulsifier chemistry and temperature and mixing energy optimization for emulsion breaking demand specialized knowledge where Vafajoo et al. confirmed in their Journal of Petroleum Science and Engineering study that injection of 50 to 100 ppm demulsifier produced optimum separation of 88 percent for BS&W and approximately 99 percent for salt and that the effect of pH of the crude oil on the results was investigated and that the oil preheating decreases its viscosity and also decreases drop settling time and increases demulsifier efficiency and destabilizes emulsion but that the crude temperature is limited to avoid its vaporization into the electrical desalter and to prevent damage to the electrical grid insulator bushings. Multi-stage OPW treatment train design for regulatory compliance requires professionals with water treatment expertise where Samuel et al. confirmed that it is expected that before OPW is released into the environment it should not contain more than 40 ppm of oil-water emulsion and that to comply with the regulatory body combined physical and chemical and biological treatments have been utilized to enhance water quality and that the flow diagram of an OPW treatment system involves OPW collected directly from a water storage tank or oil and water separator unit.
Crude oil treatment plant and process professionals must master petroleum formation and production overview fundamentals including formation of crude oil and petroleum reservoir and types and drilling in oil wells and production of oil from well and composition of crude oil and equipment used for oil production, understand comprehensive oil separation and emulsion treatment and dehydration and stabilization and storage frameworks including separation theory and methods of oil separation and gas oil separation process and two-phase and three-phase processes and vertical and horizontal separation and chemical treatment and oil emulsion and dehydration and heating and electrical aid and chemical electric dehydrators and study of oil stabilization process and stabilization operations and types of stabilizers and crude oil storage tanks, and apply proper sweetening and recovery and desalting and rules and regulations and maintenance methods including crude oil sweetening process and vapor recovery unit and piping system used and water treatment and disposal and study of desalting process and salinity and salt content in water and electrostatic desalting and dilution quantity water and regulations for crude oil refining and laws in various countries and environmental concerns and laws and equipment maintenance schedule and failure of equipment and checking of operations and maintenance management to ensure organizations achieve superior Genetic Algorithm-based desalting and stabilization optimization and enhanced demulsifier dosing and emulsion-breaking efficiency and improved OPW treatment train regulatory compliance and competitive advantage through continuous process parameter monitoring and equipment performance measurement and environmental discharge governance protocols.
Research demonstrates training is crucial for success, with the Iranian oil field optimization study demonstrating that process engineers and treatment plant analysts who understand how to model and simulate and optimize electrostatic desalters using tools such as Genetic Algorithms can identify performance bottlenecks and recommend operational changes that directly increase oil output and reduce off-spec crude with the course’s modules on desalting and chemical dehydration and stabilization operations and process parameter analysis building the technical foundations for that kind of systems-level optimization, while the key-parameters desalting study showing that professionals who understand the role of demulsifier chemistry and temperature and mixing energy in breaking water-in-crude emulsions can reduce BS&W below specification limits reliably preventing corrosion and fouling in downstream refinery units and reducing unplanned maintenance, and the OPW treatment review showing that professionals who understand produced water composition and treatment train design and the legal discharge standards applicable in different jurisdictions become essential contributors to environmental compliance and produced water management programs.
Course Objectives
Upon successful completion, participants will have demonstrated mastery of:
- Creating an understanding of all aspects of the oil refining process from petroleum formation through atmospheric distillation
- Providing knowledge and skills to oil refining users or industry professionals including desalting and emulsion treatment and stabilization optimization
- Performing detailed knowledge of oil treatment processes including two-stage electrostatic desalting and crude oil stabilization column operations
- Analyzing system parameters for oil production including pressure drop across mixing valves and electric field strength and wash-water flow rates and operating temperature
- Identifying ways of wastewater treatment including multi-stage physical and chemical and biological OPW treatment to meet the 40 ppm oil-in-water environmental discharge limit
- Utilizing efficient devices including chemical electric dehydrators and electrostatic desalting units and vapor recovery units and crude oil storage tanks
- Understanding and applying guidelines with legislations and regulations for crude oil refining in various countries including environmental concerns and laws
- Creating enhanced analytical skills to identify treatment processes including demulsifier selection and dosing optimization and fuzzy logic performance modeling
- Performing maintenance of equipment including equipment maintenance schedules and failure analysis and maintenance management
Master crude oil treatment plant and process excellence and drive Genetic Algorithm desalting optimization and OPW regulatory compliance success. Enroll today to become a Certified Crude Oil Treatment Plant and Process Analyst!
Training Methodology
This Crude Oil Treatment Plant and Process Certification course comprises the following training methods:
The training framework includes:
- Expert-led lectures and seminars and presentations delivered by professionals with vast experience in crude oil treatment plant operations and process analysis
- Group discussions and assignments reinforcing understanding of desalting parameter interdependencies and emulsion-breaking mechanisms and OPW treatment train design
- Case studies and functional exercises including Iranian oil field Genetic Algorithm-based concurrent desalting and stabilization optimization and industrial desalting plant demulsifier dosing and temperature optimization and OPW treatment environmental compliance
- Practical activities assigning participants roles in process parameter analysis and equipment maintenance scheduling for better assimilation of crude oil treatment plant operations
This immersive approach fosters practical skill development and real-world application of crude oil treatment plant and process principles through comprehensive coverage of petroleum formation and oil separation and emulsion treatment and stabilization and sweetening and desalting and regulations and maintenance domains with emphasis on measurable oil production maximization and off-spec crude reduction and environmental discharge compliance enhancement.
This program follows the Do-Review-Learn-Apply model, creating a structured learning journey that transforms traditional crude oil treatment approaches into professional crude oil treatment plant and process excellence.
Who Should Attend?
This Crude Oil Treatment Plant and Process Training Course is designed for:
- Senior, middle, and junior level employees of an organization
- Employees involved in crude oil refinery-related activities
- Managers responsible for oil consumption and supply
- Legal consultants and advisors responsible for ensuring all regulations and legislations are met
- Quality checkers and refinery managers or auditors
- Any professional across any profile in any industry interested in crude oil treatment processes
- Any other professional interested in being certified as a crude oil refinery supervisor or manager
Organizational Benefits
Organizations implementing crude oil treatment plant and process training will benefit through:
- Significantly enhanced Genetic Algorithm-based concurrent desalting and stabilization optimization capability through comprehensive training delivering measurable oil production returns where Abbasi confirmed that the study aimed to improve the performance of a crude oil treatment unit for an Iranian oil field and that the Genetic Algorithm simultaneously optimized both the two-stage desalting unit and stabilization tower with sensitivity analysis confirming that pressure drop across mixing valves and electric field strength and wash-water flow rates in each desalter stage and initial desalter operating temperature are the most influential variables and the optimized configuration simultaneously maximizing crude oil recovery and meeting salt and water specifications, directly reflecting the course’s modules on desalting and stabilization operations and process parameter analysis
- Better demulsifier chemistry and temperature and mixing energy optimization through Vafajoo et al. confirming that injection of 50 to 100 ppm demulsifier produced optimum separation of 88 percent for BS&W and approximately 99 percent for salt and that correct demulsifier selection and dosing combined with optimized temperature and mixing is critical to achieving consistent dehydration and desalting efficiency with theoretical calculations from fuzzy logic aligning well with plant data and that the effect of pH of the crude oil on the results was also investigated with the optimum operating conditions including a desalting vessel operating temperature limited to 70 degrees Celsius to avoid crude vaporization into the electrical desalter and to prevent damage to the electrical grid insulator bushings validating course content
- Improved multi-stage OPW treatment train design and environmental regulatory compliance through Samuel et al. confirming that OPW is the largest waste stream in oil and gas extraction and contains complex mixtures of hydrocarbons and dissolved salts and heavy metals and radioactive materials and chemical additives that must be treated through multi-stage physical and chemical and biological processes before disposal or reuse and that international regulations mandate oil-in-water concentrations below 40 ppm for environmental discharge with membrane technologies and advanced oxidation processes increasingly adopted to meet tightening global standards directly supporting the course’s modules on water treatment and disposal and rules and regulations and laws
- Strengthened competitive advantage through understanding of oil refining processes and regular training of other employees in oil refining and application of new and advanced technology for accurate analysis and introduction of modern technology for efficient operation and methods of testing and measurement of various parameters of crude oil refining and treatment and knowledge of legislations and regulations of oil refinery processes and financial analysis and cost benefit analysis for prospective investors
Studies show that organizations implementing comprehensive crude oil treatment plant and process training achieve significantly enhanced delivery outcomes as research confirms Abbasi’s study showing that both units consisting of a two-stage desalting unit followed by a stabilization tower were modeled and optimized simultaneously using Genetic Algorithm to maximize oil production reinforcing the course’s emphasis on desalting of crude oil and crude oil stabilization and storage and process parameter analysis, better organizational outcomes through Vafajoo et al. evidence demonstrating that the oil preheating decreases its viscosity and also decreases drop settling time and increases demulsifier efficiency and destabilizes emulsion confirming the organizational value of training professionals in chemical treatment and oil emulsions and dehydration and heating and electrical aid and chemical electric dehydrators, and improved competitive positioning as Samuel et al. confirmed that tightening environmental regulations globally are driving the need for more sophisticated OPW treatment systems with organizations benefiting from personnel who understand produced water composition and treatment train design and the 40 ppm oil-in-water legal discharge standard and advanced oxidation process selection.
Empower your organization with crude oil treatment plant and process expertise. Enroll your team today and see the transformation in desalting optimization and emulsion-breaking efficiency and OPW environmental compliance excellence!
Personal Benefits
Professionals implementing crude oil treatment plant and process training will benefit through:
- Deeper understanding of Genetic Algorithm desalting optimization mastery and process parameter value-addition through the Iranian oil field study demonstrating that process engineers and treatment plant analysts who understand how to model and simulate and optimize electrostatic desalters can identify performance bottlenecks and recommend operational changes that directly increase oil output and reduce off-spec crude, with the course’s modules on desalting and chemical dehydration and stabilization operations and process parameter analysis building the technical foundations for that kind of systems-level optimization
- Enhanced demulsifier chemistry mastery and emulsion-breaking value-addition through the Vafajoo et al. study showing that professionals who understand the role of demulsifier chemistry and temperature and mixing energy in breaking water-in-crude emulsions can reduce BS&W below specification limits reliably preventing corrosion and fouling in downstream refinery units and reducing unplanned maintenance, with the course’s coverage of oil emulsions and chemical treatment and heating and electrical aids and chemical electric dehydrators equipping professionals with the scientific basis to make and justify these decisions on the plant floor
- Stronger OPW treatment mastery and environmental compliance value-addition through the Samuel et al. review showing that professionals who understand produced water composition and treatment train design and the legal discharge standards applicable in different jurisdictions become essential contributors to environmental compliance and produced water management programs with roles growing in importance as regulations tighten worldwide, with the course’s modules on water treatment and disposal and rules and regulations and laws providing the technical and regulatory fluency needed for these responsibilities
- Advanced expertise in crude oil treatment plant and process principles, desalting and emulsion treatment and stabilization optimization methodologies, and OPW treatment and environmental compliance and equipment maintenance integration domains
- Enhanced career prospects and marketability in crude oil treatment plant operations, process analysis, desalting unit optimization, produced water environmental compliance, crude oil stabilization, and refinery quality management sectors with professionals gaining skills in Genetic Algorithm process optimization, fuzzy logic desalting performance modeling, demulsifier dosing optimization, OPW 40 ppm regulatory compliance, and electrostatic desalting unit operations
- Comprehensive understanding of all aspects of oil refining and operations processes and increased knowledge of various equipment and measures of performance in oil refining
- Better understanding and information about required legislations and regulations and enhanced analytical and strategic skills to interpret data and draw conclusions on oil refining processes
- Knowledge of equipment and preventive or predictive maintenance and new concepts and methods for crude oil refining
Course Outline
The course covers the following areas important for one to become a certified crude oil treatment and process analyst:
Module 1: Overview of Petroleum Formation and Production
- Formation of crude oil
- Petroleum reservoir and types
- Drilling in oil wells
- Production of oil from well
- Composition of crude oil
- Equipment used for oil production
- Crude oil quality parameters and their treatment implications
- Wellhead fluid composition and early production challenges
Module 2: Oil Separation Process
- Separation theory
- Methods of oil separation
- Gas oil separation process
- Two phase process
- Three phase process
- Vertical and horizontal separation
- Separator sizing and operating pressure selection
- Gas carry-under and liquid carry-over troubleshooting
Module 3: Emulsion Treatment and Dehydration
- Chemical treatment
- Oil emulsion
- Dehydration
- Heating and electrical aid
- Chemical electric dehydrators
- Demulsifier selection, dosing, and optimum concentration range
- Temperature limits to avoid crude vaporization in electrical desalters
Module 4: Crude Oil Stabilization and Storage
- Study of oil stabilization process
- Stabilization operations
- Types of stabilizers
- Crude oil storage tanks
- Stabilization column pressure and temperature parameter optimization
- Reid vapour pressure control and product specification compliance
Module 5: Sweetening and Recovery
- Crude oil sweetening process
- Vapour recovery unit
- Piping system used
- Water treatment and disposal
- H₂S removal methods and sweetening agent selection
- OPW collection and pre-treatment before disposal
Module 6: Desalting of Crude Oil
- Study of desalting process
- Salinity and salt content in water
- Electrostatic desalting
- Dilution quantity water
- Mixing valve pressure drop and electric field strength optimization
- Wash-water injection ratio and two-stage desalter performance
Module 7: Rules, Regulations and Laws
- Regulations for crude oil refining
- Laws in various countries
- Environmental concerns and laws
- 40 ppm oil-in-water discharge limit and OSPAR compliance
- Environmental liability and reporting obligations for operators
Module 8: Maintenance and Failure of Equipment
- Equipment maintenance schedule
- Failure of equipment
- Checking of operations
- Maintenance management
- Predictive maintenance techniques for desalting and dehydration units
- Root cause analysis for recurring equipment failure modes
Real World Examples
Iranian oil field – Concurrent optimization of desalting and stabilization using Genetic Algorithm
Implementation: Mojgan Abbasi confirmed that the study aimed to improve the performance of a crude oil treatment unit for an Iranian oil field with the process involving a two-stage electrostatic desalting unit followed by a crude oil stabilization tower where early production in oil fields can cause problems related to oil specifications in the existing process unit especially in the stabilization tower, with Genetic Algorithm used to simultaneously optimize both units by developing a process model for the full crude oil treatment unit and running sensitivity analysis across all key operating parameters. The sensitivity analysis confirmed that pressure drop across mixing valves and electric field strength and wash-water flow rates in each desalter stage and initial desalter operating temperature are the most influential variables governing both salt removal efficiency and oil recovery with the GA optimization framework enabling the simultaneous evaluation of multiple interdependent parameters to identify the configuration that maximized crude oil production while meeting salt and water quality specifications, with the study building on earlier Genetic Algorithm applications for separator pressure optimization in crude oil stabilization and gas condensate production units. The optimized configuration simultaneously maximized crude oil recovery and met the salt and water specifications required before atmospheric distillation, providing a worked example of the concurrent treatment unit optimization concepts the course covers in its modules on desalting and stabilization and process parameter analysis demonstrating exactly how systems-level optimization of interconnected treatment units delivers measurable oil output improvement.
Results: Abbasi confirmed that the Genetic Algorithm simultaneously optimized the two-stage electrostatic desalting unit and stabilization tower to maximize oil production and meet crude quality specifications before atmospheric distillation with the optimized configuration demonstrating the direct financial return of training professionals in desalting and stabilization process parameter interdependencies, with the study providing real-world evidence that organizations training their process analysts in these interdependencies can fine-tune plant settings to maximize oil production and meet crude quality specifications. Results confirmed that the four most critical parameters of pressure drop across mixing valves and electric field strength and wash-water flow rates and operating temperature must be considered in an integrated manner in crude oil treatment plant optimization reinforcing the course’s emphasis on desalting of crude oil and crude oil stabilization and storage and emulsion treatment and dehydration and analytical skills for system parameter optimization.
Industrial desalting plant study – Key parameters: temperature, demulsifier, and mixing intensity
Implementation: Leila Vafajoo and coauthors published in the Journal of Petroleum Science and Engineering a study investigating the influence of operational parameters on crude oil desalting performance in an industrial plant combining laboratory bottle tests with fuzzy logic theoretical modeling to assess how temperature and wash-water injection ratio and demulsifier concentration affect salt removal efficiency and BS&W, with the study investigating demulsifier concentrations in the range of 50 to 100 ppm and confirming that injection of 50 to 100 ppm demulsifier produced optimum separation of 88 percent for BS&W and approximately 99 percent for salt. The study confirmed that oil preheating decreases oil viscosity and also decreases drop settling time and increases demulsifier efficiency and destabilizes emulsion but that the crude temperature is limited to avoid its vaporization into the electrical desalter and to prevent damage to the electrical grid insulator bushings with the desalting vessel operating temperature limited to 70 degrees Celsius, and that the effect of pH of the crude oil on the results was investigated with theoretical calculations from fuzzy logic aligning well with plant data confirming that correct demulsifier selection and dosing combined with optimized temperature and mixing is critical to achieving consistent dehydration and desalting efficiency. The study demonstrated that even small variations in demulsifier dosing and mixing conditions dramatically change dehydration and salt removal outcomes giving organizations a clear evidence base for setting operating procedures and quality control thresholds with BS&W specifications for pipeline-bound crude generally required at less than 0.2 volume percent and approximately 10 lb salt per 1,000 barrels where residual entrained water carries dissolved chlorides that drive corrosion and fouling downstream.
Results: Vafajoo et al. confirmed that injection of 50 to 100 ppm demulsifier produced optimum separation of 88 percent for BS&W and approximately 99 percent for salt and that correct demulsifier selection and dosing combined with optimized temperature and mixing is critical to achieving consistent dehydration and desalting efficiency with theoretical fuzzy logic calculations aligning well with plant data, demonstrating how the chemical treatment and emulsion-breaking mechanisms and electrical aid systems and process measurement content of the course’s modules on emulsion treatment and dehydration and desalting of crude oil translate directly into reliable crude quality specification achievement. Results confirmed that process engineers and treatment plant analysts who understand demulsifier chemistry and temperature effects and mixing energy requirements in breaking water-in-crude emulsions can reduce BS&W below specification limits reliably preventing corrosion and fouling in downstream refinery units and reducing unplanned maintenance, illustrating exactly the scientific basis the course builds through its coverage of oil emulsions and chemical treatment and heating and electrical aids and chemical electric dehydrators to make and justify plant-floor decisions.
Oilfield produced water (OPW) treatment – Environmental compliance and technology review
Implementation: Okorie Samuel and coauthors published in the Journal of Environmental Management in 2022 a comprehensive review of oilfield produced water treatment describing how OPW is the largest waste stream in oil and gas extraction and contains complex mixtures of hydrocarbons and dissolved salts and heavy metals and radioactive materials and chemical additives that must be treated through multi-stage physical and chemical and biological processes before disposal or reuse, with OPW collected directly from a water storage tank or oil and water separator unit and passed through a multi-stage treatment train. The review confirmed that it is expected that before OPW is released into the environment it should not contain more than 40 ppm of oil-water emulsion and that to comply with the regulatory body combined physical and chemical and biological treatments have been utilized to enhance water quality with various treatment technologies utilized in the oil and gas industry to remove target pollutants from OPW before reuse, and that tightening environmental regulations globally are driving the need for more sophisticated treatment systems including membrane technologies and advanced oxidation processes. The review noted that at the Oslo Paris Convention OSPAR it was agreed that the maximum discharge is to be reduced to 30 ppm oil in water and that the overall oil discharges in produced water be further reduced, with national and international regulations requiring oil-in-water concentrations not to exceed 40 ppm before environmental discharge directly supporting the course’s modules on water treatment and disposal and sweetening and environmental rules and regulations.
Results: Samuel et al. confirmed that OPW is laden with oils and dissolved salts and heavy metals and toxic compounds that pose significant environmental and public health risks and that tightening environmental regulations globally are driving the need for more sophisticated treatment systems with membrane processes and advanced oxidation increasingly adopted to meet global standards, with the review providing real-world regulatory and technical context for the course’s modules on water treatment and disposal and sweetening and environmental rules and regulations demonstrating how OPW treatment train design knowledge and 40 ppm legal discharge standard compliance translate directly into safer and more cost-effective crude oil treatment plant and process operations. Results confirmed that professionals who understand produced water composition and treatment train design and the legal discharge standards applicable in different jurisdictions become essential contributors to environmental compliance and produced water management programs with roles growing in importance as regulations tighten worldwide, illustrating exactly the technical and regulatory fluency the course builds through its modules on water treatment and disposal and rules and regulations and laws.
Be inspired by leading crude oil treatment plant and process achievements. Register now to build the skills your organization needs for Genetic Algorithm desalting optimization and demulsifier dosing excellence and OPW environmental compliance success!
