Artificial Lift Systems
أنظمة الرفع الاصطناعي
- Next date
- 8–12 March 2027Istanbul
- Fees from
- £4,500per delegate
- Formats
- Classroom3 sessions
- Duration
- 5 daysCertificate
Overview
Most oil wells eventually need help to reach the surface, and in many fields artificial lift decides both production rate and operating cost. Choosing the wrong method, or running the right one badly, leads to short run lives, high power consumption and frequent interventions. This course gives a complete, practical overview of the main lift systems: sucker rod pumping, electrical submersible pumps, gas lift, progressive cavity pumps, hydraulic pumping and plunger lift. For each method participants learn the operating principles, the equipment, the design steps, the typical operating envelope and the most common failure modes. The course then compares methods for different well and reservoir conditions, explains how to monitor and optimise lifted wells, and shows how to build a lift selection that balances production, reliability and lifetime cost.
Objectives
- Explain when and why wells need artificial lift
- Describe the principles and equipment of each major lift method
- Design basic rod pump, ESP and gas lift installations
- Compare lift methods against well, fluid and reservoir conditions
- Diagnose common lift problems using surveillance data
- Optimise lifted wells to improve production and run life
- Select a lift method using lifetime cost and risk
Who should attend
Production and petroleum engineers, artificial lift specialists, production technologists, field supervisors and operations staff responsible for lifted wells.
Training methodology
Each lift method is taught in the same sequence: principle, equipment, design, operation and troubleshooting, so participants can compare methods easily. Worked design examples use spreadsheet tools and manufacturer data, and diagnostic exercises use real dynamometer cards, ESP amp charts and gas lift pressure surveys. Videos and photographs of failed equipment illustrate typical problems. A lift selection workshop on a sample field brings everything together before the final assessment. Screening tables are provided for later reference.
Programme outline
Day1Lift Fundamentals and Rod Pumping
- Why wells stop flowing
- Inflow performance and lift requirements
- Overview of artificial lift methods
- Sucker rod pumping system components
- Pumping unit types and rod string design
- Dynamometer card interpretation
- Practical exercise: analysing dynamometer cards
Day2Electrical Submersible Pumps
- ESP system components
- Pump stages, curves and operating range
- Motors, seals and cables
- Variable speed drives
- ESP design workflow
- Gas handling and sand issues
- Practical exercise: basic ESP sizing
- Practical exercise: reading ESP amp charts
Day3Gas Lift
- Continuous and intermittent gas lift
- Gas lift valves and mandrels
- Unloading design
- Injection gas allocation and optimisation
- Gas lift troubleshooting
- Pressure and temperature surveys
- Practical exercise: gas lift unloading design
Day4Other Lift Methods
- Progressive cavity pumps
- Hydraulic piston and jet pumps
- Plunger lift for gas wells
- Hybrid and combined systems
- Lift in horizontal and deviated wells
- Downhole sensors and automation
- Practical exercise: choosing between PCP and ESP
Day5Selection, Surveillance and Optimisation
- Lift selection criteria and screening tables
- Lifetime cost comparison
- Surveillance and well performance monitoring
- Run-life analysis and failure tracking
- Field-wide lift optimisation
- Lift selection workshop
- Final assessment
Dates and fees
Fees are in GBP. per delegate.
Certificate
Every delegate who attends the full programme receives a Harfard Technology certificate of completion stating the course title, duration, dates and venue.
Frequently asked questions
Will I receive a certificate?
What is the difference between classroom and online?
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