Course Details

This course is appropriate for a wide range of professionals but not limited to:

• Production, reservoir, and petroleum engineers
• Well and field operations supervisors
• Artificial lift specialists and technicians
• Oilfield service and equipment providers
• Asset managers and planners involved in field development
• Anyone involved in well performance optimization and production operations

• Expert-led sessions with dynamic visual aids
• Comprehensive course manual to support practical application and reinforcement
• Interactive discussions addressing participants’ real-world projects and challenges
• Insightful case studies and proven best practices to enhance learning

By the end of this course, participants should be able to:

• Understand the principles and applications of various artificial lift systems
• Evaluate the advantages, limitations, and selection criteria for each lift method
• Design and operate artificial lift systems based on well characteristics
• Identify and troubleshoot common operational issues and failures
• Apply optimization techniques to maximize production efficiency
• Interpret performance data and make informed decisions for lift system improvements

DAY 1

Fundamentals of Artificial Lift and Production System Performance
Oilfield production system overview 

• Oil origin and geology fundamentals 
• Well drilling and completion types 
• Surface production facilities 
• Reservoir recovery methods 
• Reservoir life cycle and phase-change concepts 
• Natural depletion versus artificial lift production systems 

Reservoir performance evaluation 

• Wellbore and reservoir performance overview 
• Pressure losses throughout the production system 
• Well productivity and productivity index concepts 
• Inflow Performance Relationship (IPR) 
• Outflow Performance Relationship (OPR) 
• Nodal System Analysis for production optimization 

Why and when artificial lift is required 

• Well production challenges and declining reservoir pressure 
• Formation damage mechanisms, causes, and prevention 
• Impact of reservoir changes on well performance 
• Artificial lift applications, limitations, and economic considerations 
• Artificial lift screening methodologies 
• Basis for artificial lift system selection 

Overview of artificial lift technologies 

• Gas Lift (GL) 
• Sucker Rod Pump (SRP) 
• Progressive Cavity Pump (PCP) 
• Electrical Submersible Pump (ESP) 
• Hydraulic Pump (HP) 
• Jet Pump (JP) 
• Plunger Lift Systems 
• Capillary Systems 

DAY 2

Gas Lift, Rod Lift, and Progressive Cavity Pumping Systems
Gas Lift (GL) 

• Principles, components, and operating concepts 
• Continuous and intermittent gas lift applications 
• Gas lift valve systems and elastomer considerations 
• Design methodologies and performance prediction 
• Lifting capabilities compared with other artificial lift methods 
• Gas lift optimization strategies 
• Compressor performance considerations 
• Troubleshooting and performance monitoring 
• Field applications and operational case reviews 

Sucker Rod Pump (SRP) 

• Principles, types, advantages, and limitations 
• Surface and downhole equipment components 
• System design and operating practices 
• Intake pump curves and production optimization 
• Rod string behavior and factors affecting rod movement 
• Matching well productivity with pump performance 
• Data interpretation and equipment diagnostics 
• Troubleshooting common SRP issues 
• Rod and pump failure analysis 

Progressive Cavity Pump (PCP) 

• Operating principles and applications 
• PCP components and system configuration 
• Rotor, stator, and elastomer considerations 
• Design and sizing fundamentals 
• Production performance optimization 
• Lifting capabilities and operational limitations 
• Well productivity matching and performance monitoring 
• Troubleshooting and reliability improvement 
• Rotor and pump performance failure analysis 

DAY 3

ESP, Hydraulic Pumps, Jet Pumps, Plunger Lift, and Capillary Systems
Electrical Submersible Pumps (ESP) 

• ESP concepts, applications, advantages, and limitations 
• ESP components, construction, and system architecture 
• Pump selection and sizing fundamentals 
• ESP operational practices and performance monitoring 
• Importance of matching well productivity to pump performance 
• Data-driven diagnostics and surveillance 
• ESP troubleshooting and failure analysis 
• Power optimization and operational efficiency improvements 

Hydraulic Pumps (HP) 

• Hydraulic pumping principles and applications 
• Surface equipment and operational concepts 
• Hydraulic pump types and selection criteria 
• Pump sizing and performance evaluation 
• Lifting capabilities and comparative assessment 
• Troubleshooting and operational optimization 

Jet Pumps (JP) 

• Jet pump principles and applications 
• Components and operating mechanisms 
• Gas handling considerations 
• Nozzle and throat sizing techniques 
• Jet pump calculations and performance analysis 
• Performance curves and optimization 
• Troubleshooting and failure diagnosis 

Plunger Lift Systems 

• Conventional and continuous plunger lift operations 
• Components and operating principles 
• Drawdown and IPR considerations 
• System performance optimization 
• Troubleshooting and well deviation impacts

Capillary Systems 

• System components and operating concepts 
• Performance characteristics and lifting capabilities 
• Field applications and deployment considerations
• Performance monitoring and optimization 
• Troubleshooting techniques 

Integrated Artificial Lift Optimization 

• Comparative evaluation of artificial lift methods 
• Selection criteria based on reservoir, well, and production conditions 
• Performance surveillance and optimization strategies 
• Best practices for maximizing production and equipment reliability 
• Review of field applications and lessons learned