Optimizing Hydrocarbon Flow: Nodal Analysis and System Design Training Course

Introduction

In the complex realm of oil and gas production, maximizing the flow of hydrocarbons from the reservoir to the sales point is paramount for economic success. Nodal Analysis stands as a fundamental and powerful diagnostic tool, enabling engineers to systematically evaluate the performance of an entire production system – from the reservoir inflow to the wellbore, tubing, and surface facilities. By identifying bottlenecks and optimizing each component, Nodal Analysis provides a holistic approach to enhancing productivity and ensuring efficient operations throughout a well's lifecycle.

This intensive training course is meticulously designed to equip participants with a comprehensive and practical understanding of Nodal Analysis and its application in production system design. From exploring the theoretical foundations of Inflow Performance Relationship (IPR) and Vertical Lift Performance (VLP) to mastering the construction of system curves, identifying bottlenecks, and optimizing various production components, you will gain the expertise to significantly improve well and field performance. This empowers you to make informed decisions on well completions, artificial lift selection, facility sizing, and strategically contribute to maximizing hydrocarbon recovery and profitability.

Target Audience

  • Production Engineers and Production Technologists.
  • Reservoir Engineers and Petroleum Engineers.
  • Facilities Engineers and Process Engineers.
  • Well Surveillance and Optimization Teams.
  • Artificial Lift Specialists.
  • Operations Managers and Field Superintendents.
  • Technical Staff from Service Companies.
  • Academics and Students in Petroleum Engineering.

Duration: 10 days

Course Objectives

Upon completion of this training course, participants will be able to:

  • Understand the fundamental principles and importance of Nodal Analysis in production optimization.
  • Grasp the concepts of Inflow Performance Relationship (IPR) and Vertical Lift Performance (VLP).
  • Analyze the performance of various components within a production system.
  • Comprehend the methodology for constructing and interpreting Nodal Analysis system curves.
  • Evaluate the impact of different parameters on well and system performance.
  • Develop practical skills in utilizing Nodal Analysis software for design and troubleshooting.
  • Navigate the complexities of integrated production system optimization.
  • Formulate robust strategies for maximizing hydrocarbon flow and economic value through system design.

Course Content

  1. Introduction to Production Systems and Nodal Analysis
  • Overview of the complete production system: reservoir to sales line.
  • Definition and purpose of Nodal Analysis.
  • Historical development and evolution of Nodal Analysis.
  • Components of a production system and their interactions.
  • Importance of a holistic approach to production optimization.
  1. Reservoir Inflow Performance Relationship (IPR)
  • Definition and purpose of IPR.
  • Darcy's Law and radial flow.
  • IPR for oil wells: Vogel's equation, Fetkovich's equation, Composite IPR.
  • IPR for gas wells: pseudo-pressure and pseudo-time.
  • Factors affecting IPR: reservoir pressure, skin, permeability, fluid properties.
  1. Wellbore and Tubing Performance (Vertical Lift Performance - VLP)
  • Definition and purpose of VLP.
  • Pressure drop components in the wellbore: friction, gravity, acceleration.
  • Multiphase flow correlations for VLP calculation (e.g., Beggs & Brill, Hagedorn & Brown).
  • Impact of tubing size, wellbore trajectory, and fluid properties on VLP.
  • Construction of VLP curves for various conditions.
  1. Surface Chokes and Flowlines
  • Function and types of surface chokes.
  • Choke performance curves and their impact on well flow.
  • Pressure drop calculations in surface flowlines.
  • Impact of flowline diameter, length, and elevation changes.
  • System pressure drop calculation from wellhead to separator.
  1. Construction and Interpretation of Nodal Analysis Curves
  • Combining IPR and VLP curves at the chosen node.
  • Determining the optimal operating point.
  • Identifying bottlenecks in the production system.
  • Sensitivity analysis: impact of changing tubing size, water cut, gas-oil ratio (GOR), etc.
  • Using Nodal Analysis for "what-if" scenarios.
  1. Artificial Lift System Design using Nodal Analysis
  • Screening criteria for artificial lift methods.
  • Nodal Analysis for Electrical Submersible Pump (ESP) design.
  • Nodal Analysis for Gas Lift design and optimization.
  • Nodal Analysis for Progressive Cavity Pump (PCP) design.
  • Comparing different artificial lift options based on Nodal Analysis.
  1. Well Completion and Stimulation Design using Nodal Analysis
  • Impact of completion type (open hole, cased & perforated) on IPR.
  • Quantifying skin factor and its effect on well performance.
  • Nodal Analysis for evaluating the benefits of acidizing.
  • Nodal Analysis for evaluating the benefits of hydraulic fracturing.
  • Optimizing perforation design with Nodal Analysis.
  1. Gas Well and Condensate Well Nodal Analysis
  • Specific considerations for gas well IPR and VLP.
  • Pseudo-pressure and pseudo-time concepts for gas.
  • Nodal Analysis for gas lift optimization in gas wells.
  • Understanding condensate banking and its impact on performance.
  • Managing hydrate formation considerations in gas systems.
  1. Troubleshooting Production Problems with Nodal Analysis
  • Diagnosing production decline: reservoir vs. wellbore vs. surface issues.
  • Identifying liquid loading in gas wells.
  • Diagnosing excessive water/gas production.
  • Pinpointing restrictions or damage in the production path.
  • Using Nodal Analysis to recommend specific interventions.
  1. Integrated Production System Optimization and Advanced Concepts
  • Integrating Nodal Analysis with reservoir simulation and surface facility models.
  • Uncertainty quantification in Nodal Analysis.
  • Real-time Nodal Analysis and optimization.
  • Data analytics and machine learning applications in production system analysis.
  • Economic optimization using Nodal Analysis outputs.

CERTIFICATION

  • Upon successful completion of this training, participants will be issued with Macskills Training and Development Institute Certificate

TRAINING VENUE

  • Training will be held at Macskills Training Centre. We also tailor make the training upon request at different locations across the world.

AIRPORT PICK UP AND ACCOMMODATION

  • Airport pick up and accommodation is arranged upon request

TERMS OF PAYMENT

Payment should be made to Macskills Development Institute bank account before the start of the training and receipts sent to info@macskillsdevelopment.com

For More Details call: +254-114-087-180

 

 

 optimizing Hydrocarbon Flow: Nodal Analysis And System Design Training Course in Kuwait
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