Course Overview
The course gives an understanding of the performance determination and evaluation of subsurface systems and leads to the determination of well conditions necessary in the application of human-made or artificial lift systems; their operations, and simulation. What are artificial lift systems? Various types of artificial lifts, their development, and selection criteria shall be evaluated in this Zoe course. At the end of this course, participants should understand and have great in-depth knowledge of the theory underlying every method that can be utilized to develop artificial lift systems.
How do you choose an artificial lift? The advantages, disadvantages, applications, and limitations of various artificial lifts are discussed in this course. Some of the features of this course are: Designing of artificial lift systems, Overview of the technologies used in artificial lift implementation, Limitation and importance of artificial lift systems, Reservoir properties review: the properties that most influence the effect of formation damage, Inflow and outflow reservoir performance relationship, Damage mechanisms: the effects of mineralogy and clay chemistry on damage, effects of scale, paraffin, etc, Sandstones and carbonates effects, Equipment accessories of the artificial lift systems, Evaluation of damage: pressure analysis review, production performance, etc, Artificial lift screening: the criteria for screening and selection of the artificial lift system, Damage prevention: production methods, drilling completion fluid, production methods, and completion additive selection.
Why This Course Is Required?
Subsurface production engineering and artificial lift systems are essential for maintaining and enhancing well productivity as reservoir pressure declines, with research showing that proper selection and optimization of artificial lift methods can increase production rates by up to 30% while significantly reducing operational costs. The complexity of modern reservoir management requires specialized knowledge in formation damage assessment and artificial lift technologies where empirical studies demonstrate that structured training in these areas leads to better equipment reliability, reduced downtime, and extended system life through systematic approaches to gas lift, ESP, and PCP implementation while enabling successful well reactivation and increased field recovery in mature assets.
The essential need for comprehensive training in subsurface production engineering and artificial lift systems is underscored by its critical role in enhanced production optimization and cost reduction where proper understanding of artificial lift method selection is crucial for increasing production rates while reducing operational costs through strategic implementation of gas lift, ESP, and PCP systems. Subsurface engineering professionals must master the principles of strategic asset management and equipment life extension, understand systematic artificial lift strategies, and apply proper production engineering methodologies to ensure organizations achieve balanced economic and technical constraints, successful well reactivation, and competitive advantage through comprehensive training that enables professionals to diagnose production issues, select appropriate lift methods, and implement cost-effective solutions across various reservoir conditions.
Research demonstrates that subsurface production engineering and artificial lift systems are crucial for enhancing well productivity, with studies showing that proper artificial lift optimization increases production by up to 30% and reduces costs, while systematic approaches enable successful reactivation of abandoned wells and improved field recovery.
Course Objectives
The main objectives of this course are to help participants to:
- Design system features that will allow for gassy production, viscous production, production associated with solids, and for other harsher scenarios and environments
- Compare and determine the type of systems that will have more economic sense to implement and which are more economically feasible
- Improve their technical background on formation damager, cause, prevention, finding remedies, and the most appropriate solutions
- Understand and gain great knowledge of subsurface production systems and operations
- Understand inflow and outflow performances
- Classify the acceptable standards that are already available to improve the life of the equipment for every system
- Describe as a professional matrix acidizing, formation damage, hydraulic fracturing, and perforation methods
- Evaluate and analyse formation damage and the effect it has on production performance
- Be able to discuss jet pumps, ESP systems, gas lift systems, progressive cavity pumps, and sucker rod pumping
- Select with ease the most appropriate artificial lift system
- Give equipment specifications for auxiliary and components that will be needed for each system
- Advanced competency in artificial lift system design and optimization for various reservoir conditions
- Expertise in formation damage assessment and remediation strategies
- Enhanced understanding of reservoir performance evaluation and inflow/outflow analysis
- Skills in economic evaluation and artificial lift method selection criteria
- Proficiency in troubleshooting and maintaining artificial lift equipment
Master subsurface production engineering and artificial lift systems excellence and drive production optimization success. Enroll today to become an expert in Subsurface Production Engineering and Artificial Lift System!
Training Methodology
Zoe Talent Solutions rolls out certifications and training courses across a wide range of topics, globally. Training is delivered by learned professionals from the relevant domain.
The training framework includes:
- Expert-led instruction delivered by learned professionals from relevant domains with extensive production engineering experience
- Interactive classroom sessions combined with practical exercises that simulate real-world artificial lift scenarios
- Trainees assigned projects and tasks in groups, encouraging interaction among trainees and between trainer and trainees
- Role-plays introduced as part of training wherever applicable to practice artificial lift selection and optimization
- Comprehensive coverage of artificial lift system components and operational challenges
This immersive approach fosters practical skill development and real-world application of subsurface production principles through comprehensive coverage of artificial lift technologies, formation damage assessment, and production optimization techniques.
This training format was conceptualized by Zoe Talent Solutions and is used for all its courses. It is called the Do–Review–Learn–Apply Model, creating a structured learning journey that transforms subsurface engineering knowledge into operational excellence through systematic practice and implementation.
Who Should Attend?
This Subsurface Production Engineering and Artificial Lift System course is designed for:
- New petroleum engineers who want to learn
- Other organization staff that is involved in subsurface production operations
- All the petroleum and production managers
- Technical and operations professionals from different disciplines who will need cross-training or who yearn to learn and understand subsurface production operations
- Supervisors
- Technicians in the field operations
- Petroleum engineers
- Production engineers
- Reservoir engineers
- Drilling engineers
- Completion engineers who are concerned with well production and performance to enhance facilities
- Production technologists and wellsite supervisors
- Asset managers and field development planners
Organizational Benefits
With professionals undergoing this course, organizations will benefit in the ways mentioned below:
- Improved organizational performance
- Better application of techniques for the fields’ development of projects
- Better integration of management and the technical team inside the organization
- Significantly enhanced production optimization and cost reduction through structured training in artificial lift systems that increases production rates by up to 30% while reducing operational costs
- Better strategic asset management and equipment life extension through trained personnel achieving better equipment reliability and reduced downtime
- Improved cross-disciplinary knowledge and problem-solving through comprehensive understanding of reservoir performance and equipment selection criteria
- Strengthened competitive positioning through successful well reactivation, increased field recovery, and balanced economic and technical constraints in mature fields
Studies show that organizations implementing comprehensive subsurface production engineering and artificial lift systems training achieve significantly enhanced production optimization and cost reduction as comprehensive study in Iranian oil fields showed proper artificial lift method selection and optimization increased production rates by up to 30% while reducing operational costs through strategic implementation of gas lift, ESP, and PCP systems, better strategic asset management and equipment life extension through trained personnel achieving better equipment reliability, reduced downtime, and extended system life through systematic artificial lift strategies, and improved cross-disciplinary knowledge and problem-solving as professionals with integrated knowledge are better positioned to work across disciplines and lead technical teams in complex production environments.
Empower your organization with subsurface production engineering and artificial lift systems expertise. Enroll your team today and see the transformation in production efficiency and asset management!
Personal Benefits
Professionals who take this course will benefit in a variety of ways, including but not limited to the following:
- Better understanding of perforation methods
- Understanding of matrix acidizing
- Use of improved and professional ways to operate oil wells efficiently
- A better understanding of hydraulic fracturing techniques
- familiarization with the artificial lift systems
- Evaluate and identify the main reason for the decline in the well’s production
- Selection of the most suitable and efficient methods in artificial lift systems
- Steps to correctly sizing and ESP system All about the basics of sizing, principles, and applications to ESP pumps, cables, and motors
- Advantages of the PCP pumping system
- Best globally recognized practices when it comes to pumping system installation, maintenance, and repairs
- Well productivity matching
- Maintenance issues in pumping systems
- Advanced technical competency and career advancement through critical skills in formation damage assessment and artificial lift system design
- Cross-disciplinary knowledge and problem-solving skills through comprehensive understanding of reservoir performance and wellbore hydraulics
- Enhanced career prospects and higher compensation through valued expertise in production optimization
- Improved ability to work across disciplines and contribute to field development decisions
Course Outline
Module 1: Reservoir Performance
- Inflow and outflow analysis
- Pressure loss in wells and wellbore
- Concepts of productivity index
- Reservoir performance
- Wellbore and reservoir overview of performance and other criteria
- Reservoir performance evaluation through inflow performance relationship (IPR) curves
- Outflow performance relationships and tubing performance curves analysis
- Productivity index calculation and wellbore pressure loss assessment
- Integration of reservoir and wellbore performance for system optimization
Module 2: Formation Damage
- Drilling induced formation damage
- Formation damage
- Damage mechanism
- Sandstones influence formation damage
- Carbonates’ role in formation damage
- Well production issues
- Waxes
- Hydrates
- Inorganic
- Scales formation
- Corrosion and related issues
- Asphaltenes effects
- Paraffin effects on formation damage
- Clay chemistry
- Mineralogy
- Formation damage mechanisms affecting permeability reduction in sandstones and carbonates
- Impact of mineralogy and clay chemistry on formation damage severity
- Production problems including asphaltenes, waxes, hydrates, and scale formation
- Damage assessment through production performance and pressure analysis
Module 3: Causes of Formation Damage
- Completion causes of formation damages
- Workover fluids
- Fines mitigation as a cause of formation damages
- Perforation influence towards formation damages
- Effects of cementing towards formation damages
- Formation damages brought about as a result of paraffin
- Formation damages from an emulsion
- Formation damages brought as a result of asphaltenes effects
- Formation damages from sludge formation
- Condensate banking as causes of formation damages
- Injection wells as a cause of formation damages
- Gas breakout as a cause of formation damages
- Wettability alteration as the cause of formation damage
- Influence of bacterial plugging towards formation damages
- Drilling, completion, and production-induced formation damage causes
- Completion fluid and cementing effects on formation permeability
- Perforation-induced damage and remediation techniques
- Prevention strategies through proper fluid selection and operational practices
Module 4: Artificial Lifts
- Screening methods used in artificial lifts
- Acid type and different concentrations
- Evaluation of various acid treatments
- Chemical solvent damage removal
- Damage removal by the use of acids
- Acidizing materials and methods
- Damage prevention
- Matrix acidizing for carbonate and sandstone formations
- Hydraulic fracturing as bypass technique for severe formation damage
- Chemical solvent treatments and non-acid damage removal methods
- Damage prevention through drilling/completion fluid optimization
Module 5: Stimulation Operations
- Overview of artificial technology use
- Hydraulic pump design
- Electric submersible pump (ESP)
- Jet pump
- Sucker road pump design
- Gas lift
- Overview of major artificial lift technologies and applications
- Impact of changing well conditions necessitating artificial lift
- Artificial lift screening criteria and selection methodology
- Comparison of artificial lift methods for specific well conditions
Module 6: Gas Lifting System
- Gas lifting concepts and main system
- Effects of temperature and chokes
- Valve spacing
- Injection gas requirements
- Equilibrium curve
- Continuous flow design
- Continuous gas lift system
- Gas lifting
- Limitation of the gas lifting
- The advantages of the gas lifting system
- Mandrels as a gas lifting component
- Valves used in gas lifting
- Gas lift system types: continuous and intermittent operation
- Gas lift valve design, spacing, and performance optimization
- Injection gas requirements and equilibrium curve analysis
- Temperature effects, choke design, and troubleshooting techniques
Module 7: Sucker Rod Pumping
- Sucker rod pump concept
- Limitation of the sucker rod pumping system
- Design of rod sucker pump
- Troubleshooting of the rod pump systems
- Main issues associated with the rod pump system
- Sucker rod pump components and operating principles
- Design considerations for rod string, pump, and surface equipment
- Common problems and troubleshooting techniques for rod pump systems
- Advantages and limitations for various well conditions
Module 8: Hydraulic, PCP, and ESP System
- Jet pumping concepts and their explanations
- Concepts of the hydraulic pump
- Use of data to analyse, diagnose and maintain equipment or solve problems
- ESP system design: best practices for installation, pump performance curve discussions, typical problems associated with the pump and how to troubleshoot them, pump intake curve discussion, and maintenance issues when it comes to ESP systems
- Concepts of ESP (electric submersible pump) systems
- Matching well productivity to pump performance and its advantages
- Concept of the progressive cavity pump system (PCP)
- Criteria for artificial lifts selections and all the techniques involved in screening methods
- Limitations of the PCP pumps system
- Limitations of the jet pumping system
- Steps to correctly sizing and ESP system All about the basics of sizing, principles, and applications to ESP pumps, cables, and motors
- Advantages of the PCP pumping system
- Best globally recognized practices when it comes to pumping system installation, maintenance, and repairs
- Well productivity matching
- Maintenance issues in pumping systems
- ESP system components: pump, motor, protector, gas separator, and downhole sensors
- ESP design methodology including Total Dynamic Head calculations and equipment sizing
- Pump performance curves, intake curves, and well-to-pump matching techniques
- Progressive Cavity Pump (PCP) applications for viscous oil and sand production
- Hydraulic and jet pump systems for remote or challenging applications
- Best practices for installation, operation, and maintenance of artificial lift systems
Real World Examples
The impact of Subsurface Production Engineering and Artificial Lift System training is evident in leading implementations:
- Iranian Oil Field Optimization Study (Iran)
Implementation: Comprehensive simulation and optimization of artificial lift methods in an Iranian field demonstrated systematic evaluation of gas lift, ESP, and natural flow scenarios through comprehensive analysis that resulted in optimal production strategies tailored to changing reservoir conditions while showing that proper sequencing of artificial lift methods based on water cut and reservoir pressure could maximize field economics.
Results: The implementation achieved significant production enhancement through systematic artificial lift method evaluation and optimization increasing production rates by up to 30%, delivered reduced operational costs through strategic implementation of gas lift, ESP, and PCP systems tailored to reservoir conditions, and established optimal production strategies through comprehensive analysis of water cut and reservoir pressure enabling maximized field economics and production life, demonstrating how comprehensive subsurface production training enables exceptional artificial lift optimization and cost reduction. - Abu Ghirab Field (Iraq)
Implementation: Implementation of comprehensive optimized gas lift techniques in the Asmari Formation through systematic approach to artificial lift design that resulted in significant production enhancement while considering economic constraints in mature reservoirs.
Results: The implementation achieved significant production enhancement through systematic optimized gas lift technique deployment and comprehensive artificial lift design, delivered improved mature reservoir performance through systematic economic constraint consideration and comprehensive production optimization, and established exceptional gas lift implementation through systematic approach demonstrating how proper training and systematic artificial lift design maximizes production from mature reservoirs, showcasing how systematic subsurface production training enables superior artificial lift performance and economic optimization. - South American Mature Field Case Study (South America)
Implementation: Analysis of comprehensive 10 wells initially completed with ESPs through systematic artificial lift selection methodology that replaced “opinion and guesswork” with quantifiable comparisons leading to successful reactivation of abandoned wells while balancing technical and economic factors.
Results: The implementation achieved successful reactivation of abandoned wells through systematic artificial lift selection methodology and comprehensive technical-economic factor balancing, delivered optimized performance under specific operating conditions through quantifiable comparisons replacing subjective decision-making, and established exceptional mature field management through systematic approach to artificial lift selection enabling improved field recovery and economic viability, demonstrating how comprehensive subsurface production training enables superior well reactivation and production optimization.
Be inspired by industry-leading subsurface production engineering achievements. Register now to build the skills your organization needs for production excellence!
