Why Choose Performance Assessment and Optimization Using Nodal Analysis Training Course?

Efficient production from oil and gas wells requires a clear understanding of how the reservoir, completion, wellbore, artificial lift system and surface facilities interact. A restriction or change in any part of this integrated production system can affect pressure losses, flow stability, well deliverability and overall field performance. Production engineers must therefore be able to identify the true source of performance limitations and evaluate potential improvement opportunities before recommending operational changes or well interventions.

Nodal analysis provides a systematic engineering methodology for assessing the performance of the complete production system. It divides the system at a selected operating node and evaluates the relationship between inflow performance and outflow, or vertical lift, performance. The intersection of these relationships establishes the expected operating point of the well under defined reservoir, fluid, completion and surface conditions. This enables engineers to determine whether production is constrained by the reservoir, completion, tubing, flowline, artificial lift system or surface backpressure.

This Performance Assessment and Optimization Using Nodal Analysis training course provides participants with the technical knowledge and practical methods required to construct, validate and apply nodal analysis models for oil, gas and condensate wells. Participants will examine reservoir inflow, pressure-loss mechanisms, multiphase flow behaviour, fluid properties, completion performance and surface-system constraints. They will also learn how to match models against field data, conduct sensitivity studies, diagnose underperforming wells and compare production optimization alternatives.

Practical exercises and case studies will demonstrate how nodal analysis supports tubing and completion design, artificial lift evaluation, choke optimization, debottlenecking, well intervention planning and production forecasting. By the end of the course, participants will be able to translate model results into technically sound and economically justified production optimization decisions.

What are the Goals?

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

  • Explain the principles and applications of nodal analysis in production engineering
  • Represent the reservoir, completion, wellbore and surface facilities as an integrated production system
  • Construct inflow performance relationships for oil, gas and condensate wells
  • Evaluate vertical lift and outflow performance under different operating conditions
  • Select appropriate PVT and multiphase-flow correlations
  • Determine the operating point from inflow and outflow performance curves
  • Validate and match nodal analysis models using field and well-test data
  • Identify reservoir, completion, wellbore and surface production constraints
  • Conduct sensitivity studies for key well and operating parameters
  • Evaluate production optimization and well-intervention opportunities
  • Apply nodal analysis to naturally flowing and artificially lifted wells
  • Develop practical recommendations for improving well deliverability and production performance 

Who is this Training Course for?

This training course is suitable for professionals involved in well performance, production operations and petroleum asset optimization, including:

  • Production Engineers
  • Petroleum Engineers
  • Reservoir Engineers
  • Well Performance Engineers
  • Completion Engineers
  • Artificial Lift Engineers
  • Production Technologists
  • Well Intervention Engineers
  • Flow Assurance Engineers
  • Operations and Field Engineers
  • Asset and Production Optimization Teams
  • Technical professionals involved in production surveillance and well modelling 

How will this Training Course be Presented?

This highly interactive training course combines technical presentations with practical calculations, worked examples, group discussions and field-based case studies. Participants will construct and interpret inflow and outflow performance curves, investigate well-performance problems and compare different optimization scenarios.

Where appropriate, production-modelling software or spreadsheet-based exercises will be used to demonstrate nodal analysis workflows. Emphasis will be placed on engineering interpretation, model quality, sensitivity analysis and converting analytical results into practical production decisions.

The Course Content

  • Overview of the integrated petroleum production system
  • Reservoir, completion, wellbore, flowline and surface-facility interactions
  • Principles, terminology and applications of nodal analysis
  • Selection and significance of the analysis node
  • Inflow and outflow sections of the production system
  • Pressure distribution and energy losses across the system
  • Construction and interpretation of system-performance curves
  • Determining stable and unstable well operating points 
  • Fundamentals of reservoir inflow and productivity
  • Productivity index and factors affecting well deliverability
  • Inflow performance relationships for undersaturated and saturated oil wells
  • Vogel, Fetkovich and composite inflow-performance models
  • Gas-well deliverability and backpressure relationships
  • Effects of reservoir pressure, skin, permeability and drainage conditions
  • Completion, perforation and near-wellbore pressure losses
  • Building and validating representative inflow models 
  • Components of pressure loss in tubing and production flowlines
  • Hydrostatic, frictional and acceleration pressure gradients
  • Fundamentals of single-phase and multiphase flow
  • Flow regimes and their effects on pressure and temperature profiles
  • Selection and comparison of vertical-lift performance correlations
  • Influence of tubing size, well trajectory and surface backpressure
  • Effects of water cut, gas-liquid ratio and fluid properties
  • Constructing and validating vertical-lift and outflow curves 
  • Data requirements and quality control for nodal analysis
  • Using well tests, pressure surveys and production data
  • PVT characterisation and fluid-model selection
  • Matching inflow and outflow models to measured performance
  • Diagnosing discrepancies between modelled and actual production
  • Identifying reservoir, completion, tubing and surface restrictions
  • Sensitivity analysis of reservoir, fluid and operating variables
  • Managing model uncertainty and establishing credible performance ranges 
  • Systematic workflow for well-performance optimization
  • Choke sizing and wellhead-pressure optimization
  • Tubing-size selection and completion-design evaluation
  • Assessing stimulation, reperforation and well-intervention opportunities
  • Application of nodal analysis to gas lift and pump-assisted wells
  • Evaluating liquid loading, excessive water production and flow instability
  • Ranking production-enhancement opportunities using technical and economic criteria
  • Integrated case study: diagnosing and optimizing an underperforming well

Certificate

  • AZTech Certificate of Completion for delegates who attend and complete the training course

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This course is designed for production engineers, petroleum engineers, reservoir engineers, well intervention professionals, artificial lift specialists, and development planners who need a rigorous, hands-on understanding of nodal analysis across its full range of production engineering applications. It is suitable for both those newer to nodal analysis who need a comprehensive structured foundation and experienced engineers looking to deepen their analytical capability and software proficiency.  

Day 3 focuses on outflow performance — covering tubing performance modelling for different fluid types and flow conditions, and applying outflow analysis to gas lift system design. Delegates develop the ability to evaluate how tubing size, deviation, and fluid properties affect lifting performance, and how gas lift injection rate and depth decisions are optimised through nodal analysis — a directly applicable skill for production engineers managing gas lift wells.  

Integrated asset modelling extends nodal analysis from the individual well level to the full production system — incorporating surface facilities, pipeline networks, and separator constraints alongside wellbore and reservoir performance. Day 5 introduces integrated asset modelling principles and how they connect to nodal analysis workflows giving delegates the conceptual understanding to contribute to whole-system performance evaluation and to identify where surface or network constraints are limiting field-wide production potential.  

Day 2 covers inflow performance analysis in full — including the different types of inflow models, inflow performance relationship (IPR) development, and pressure transient analysis. Delegates develop the ability to characterise reservoir inflow accurately using appropriate models for different reservoir and fluid types — the foundational input that determines the validity and usefulness of any nodal analysis model.  

Day 4 is dedicated to nodal analysis software covering how to build nodal analysis models, run optimisation and sensitivity analyses, and troubleshoot model performance when results diverge from expected outcomes. Delegates complete practical exercises in software application developing the hands-on confidence to build, run, and interpret nodal analysis models that support real production engineering decisions rather than theoretical exercises.  

Practical exercises are built into every single day of the course covering nodal analysis principles, inflow performance, outflow and gas lift design, software application, and field development applications. These exercises are not supplementary to the course they are central to it. Delegates who work through all five days of practical exercises leave with a genuine, immediately applicable nodal analysis competence that they can deploy from day one back in their organisations.  

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