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Artificial Lift Systems for Oil & Gas Wells

Artificial Lift Systems for Oil & Gas Wells banner
Preview this course
Self-paced Beginner

Artificial Lift Systems for Oil & Gas Wells

4(69)
46 enrolled
1763 views
FREE
1858 min
Anytime
English
1763 views
Team OG
Team OGUpstream Oil & Gas Technical Professional
  • Lifetime access
  • Certificate of completion
  • Foundational Learning
  • Access to Study Materials

Why enroll

The course provides practical knowledge of various artificial lift methods such as rod pumps, ESP (electric submersible pumps), gas lift, and plunger lift systems.

It is especially valuable for petroleum engineers, field operators, and energy professionals who want to improve well performance, increase production efficiency, and reduce operational costs. By learning system selection, design considerations, and troubleshooting techniques, participants can make better technical decisions and enhance their career prospects in the oil and gas industry.

What enrolled engineers say

6 verified reviews
  • May 3, 2026

    This got shared in our team channel before I’d finished it; engineers don’t do that lightly. The beginner framing doesn’t talk down, and it keeps a systems lens, tying artificial lift choices to constraints the way we think about arch, infra, and RPS in prod. The ESP vs rod pump decision table in Module 3 stuck with me, especially the example walking through drawdown, GOR, and why the pump fails first rather than just showing the math. I wasn’t sold on the light treatment of failure analysis; a bit more on ops obs and how issues surface day‑to‑day would’ve helped. It reads like a clean PR—clear intent, few tangents, and no filler screenshots. By the end, it shifted me from “it runs” to actually knowing why the system behaves the way it does in oilgas wells.

    kirankirk Verified
  • May 3, 2026

    The Chapter 2 ESP vs rod pump selection table tied prod rates to drawdown; it's practical, though I wished for more failure modes.

    Krishna K. Verified
  • May 3, 2026

    Needed material that didn’t act like day zero, and this mostly hit that balance for a beginner in oilgas. The ESP selection curves in Chapter 4 stuck, especially the walk-through mapping intake pressure to motor amps and then sanity-checking against prod constraints; I actually mirrored it in a small repo and opened a PR. it's practical enough to connect theory to code and obs, though I wasn’t sold on how briefly gas lift instability was handled. Net effect: fewer false starts in my dev workflow and cleaner handoffs to prod.

    Ali Salman Dawood A. Verified

Is this course for you?

You should take this if

  • You work in Oil & Gas Upstream
  • You're a Petroleum Technology / Mechanical Engineering professional
  • You prefer self-paced learning you can revisit

You should skip if

  • You need a different specialisation outside Petroleum Technology
  • You need live interaction with an instructor

Course details

Optimize oil and gas production from low-pressure reservoirs with artificial lift systems. This course addresses challenges such as liquid loading, high-viscosity fluids, and corrosive chemicals, providing specialized knowledge for efficient wellbore pumping.

Learn cutting-edge artificial lift technologies, including:

- Sucker Rod Pumps

- Electrical Submersible Pumps

- Gas Lifts

Upon completion, you'll master:

- Sizing and selecting artificial lifts for specific wellbores

- Enhancing production from low-pressure reservoirs

- Mitigating liquid loading and fluid viscosity issues

- Managing corrosive chemicals

Gain expertise in artificial lift systems to boost production and overcome complex wellbore challenges

Source: NPTEL NOC ITM (Youtube Channel)
Prof. Abdus Samad, IIT Madras

Course suitable for

Key topics covered

Introduction to Oil and Gas

Drilling and Completion

Well completion

Oil and gas production systems

Pumps, compressors and flow through pipes

Reservoir fluid

Fluid properties and Phase diagram

Nodal analysis

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

62 lectures30 hr 58 min
  1. Introduction to Oil and Gas
    34 min
  2. Drilling and Completion
    40 min
  3. Well completion
    35 min
  4. Oil and gas production systems
    40 min
  5. Pumps, compressors and flow through pipes
    16 min
  6. Reservoir fluid
    25 min
  7. Fluid properties and Phase diagram Part 1
    30 min
  8. Fluid properties and Phase diagram Part 2
    25 min
  9. Nodal analysis
    32 min
  10. Reservoir deliverability - Single phase flow
    38 min
  11. Reservoir deliverability - Two phase flow
    22 min
  12. Flow over a flat surface or flow through pipe Part 1
    24 min
  13. Flow over a flat surface or flow through pipe Part 2
    29 min
  14. Single-Phase, Multi-Phase-Emulsion
    24 min
  15. Emulsification and demulsification
    30 min
  16. Single and Multi Phase flow-flow regimes
    31 min
  17. Multi phase flow-flow models
    29 min
  18. Choke Performance
    30 min
  19. Pump classifications
    30 min
  20. Classification of artificial lifts - Part 1
    30 min
  21. Classification of artificial lifts - Part 2
    30 min
  22. Sucker rod pump (SRP) - Part 1
    30 min
  23. Sucker rod pump (SRP) - Part 2
    30 min
  24. Sucker rod pump (SRP) - Part 3
    30 min
  25. SRP-Pump performance analysis - Part 1
    30 min
  26. SRP-Pump performance analysis - Part 2
    30 min
  27. SRP-Pump performance analysis - Part 3
    30 min
  28. Sucker rod pump (SRP) - Part 4
    30 min
  29. Sucker rod pump (SRP) - Part 5
    30 min
  30. Sucker rod pump (SRP) - Part 6
    30 min
  31. Introduction to progressive cavity punp
    30 min
  32. Progressive cavity Pump - Part 1
    30 min
  33. Progressive cavity Pump - Part 2
    32 min
  34. Progressive cavity Pump - Part 3
    30 min
  35. Progressive cavity Pump - Part 4
    30 min
  36. Progressive cavity Pump - Part 5
    30 min
  37. ESP- basic electrical systems - Part 1
    30 min
  38. ESP- basic electrical systems - Part 2
    30 min
  39. ESP- basic electrical systems - Part 3
    30 min
  40. Electric submersible pump - Part 1
    30 min
  41. Electric submersible pump - Part 2
    30 min
  42. Electric submersible pump - Part 3
    30 min
  43. ESP- numerical problemss - Part 1
    30 min
  44. ESP- numerical problemss - Part 2
    30 min
  45. Gas lift basics - Part 1
    30 min
  46. Gas lift basics - Part 2
    30 min
  47. ESP- numerical problems - Part 1
    30 min
  48. ESP- numerical problems - Part 2
    30 min
  49. ESP- numerical problems - Part 3
    30 min
  50. Gas lift valves and installartion - Part 1
    30 min
  51. Gas lift valves and installartion - Part 2
    30 min
  52. Plunger lift and design
    30 min
  53. Hydraulic jet pump fundamentals - Part 1
    30 min
  54. Hydraulic jet pump fundamentals - Part 2
    30 min
  55. Hydraulic engine pumps and design - Part 1
    30 min
  56. Hydraulic engine pumps and design - Part 2
    30 min
  57. Surface pump units for jet pump - Part 1
    30 min
  58. Surface pump units for jet pump - Part 2
    30 min
  59. Surface pump units for jet pump - Part 3
    32 min
  60. Surface compressor for gas lift - Part 1
    30 min
  61. Surface compressor for gas lift - Part 2
    30 min
  62. Surface compressor for gas lift - Part 3
    30 min

Opportunities that await you!

Career opportunities

Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

What learners say about this course

Ali Taqi
Ali Taqi
Mar 15, 2026

it

Slimane Dridi
Slimane Dridi Well Services Field Technician
Feb 10, 2026

yes

sarath Selvaraj
sarath Selvaraj Offshore Construction Engineer
May 3, 2026

Started this to sanity-check how our team approaches completions against current practice, bridging some legacy heuristics with newer field habits. The section on plug-and-perf sequencing, especially the cluster efficiency example comparing 120-ft vs 150-ft stage spacing, stuck because it maps cleanly to how we reason about arch and infra tradeoffs in prod. It's mostly beginner-level and I wasn't sold on the light treatment of proppant transport, wished there was more on obs from real frac hits. Still, I've already tweaked how I'll frame my next PR.

Abraham Idoko
Abraham Idoko Comrade
May 3, 2026

The course laid out a workable path through a messy topic, which helped me map fundamentals without getting lost. The Chapter 4 pipeline pressure drop example using Darcy-Weisbach and a step-by-step calc stuck, especially the unit checks. I kept mapping it to infra in prod, thinking about constraints, safety margins, and obs, so it clicked faster; it's beginner-friendly but not dumbed down. Wasn't sold on the short k8s-style control analogy in the ops section, and I wished there was more on gas processing impacts for energyutilities, but I've already applied bits in a repo note for the team.

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Questions and Answers

A: Including a seal section protects the motor by absorbing axial thrust and isolating well fluids; without it, thrust loads transfer straight into the motor bearings. Electrical insulation failure is driven by fluid ingress and temperature, not the drawing symbol itself. Pump head is set by impeller geometry and speed, not by whether the seal is shown. VSD tuning uses motor nameplate and load, not seal section details.

A: The temperature limit protects motor insulation life, which degrades exponentially with heat. Fluid viscosity affects pump efficiency but isn’t the driver for motor limits. Tubing expansion is managed by completion design, not ESP standards. Cable resistance variation doesn’t set the allowable motor temperature.

A: The SSSV isolates the tubing but doesn’t stop reverse flow into the gas lift system when the check valve fails. It does shut in flow to surface if the tubing fails above it. Injection instability is an operability issue, not a safeguarded hazard. Thermal effects aren’t addressed by the SSSV at all but aren’t the dominant risk here.

A: Lifting 500 BPD against ~0.43 psi/ft over 6,000 ft lands in the tens of horsepower range. API gravity changes density modestly and doesn’t drop power by an order of magnitude. Rod friction matters but doesn’t add a full order for this depth and rate. Very low horsepower ignores basic potential energy.