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Reservoir Simulation Fundamentals for Non-Specialists Training Course

Shows how reservoir simulation models are built, history matched and used for forecasting, so non-specialists can question and rely on results.

UPS · Upstream Operations, Exploration, Drilling, Reservoir & ProductionAll Levels#2964ClassroomEnglish , Arabic
Duration
5 Days
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Free substitution at any time · 30+ days' notice: full refund minus 10%. Cancellation policy

Course Overview

This training course gives engineers from other disciplines, geoscientists, planners, finance staff, and managers a clear, practical understanding of reservoir simulation and the role it plays in oil and gas decisions. Rather than teaching how to run a simulator, the course explains what a simulation model is, how it is built, what it can and cannot tell you, and how its results should be read, questioned, and used in field development, investment, and reporting decisions. Participants will follow the full life of a simulation study, from the static geological model and rock and fluid properties to grids, upscaling, wells, and operating constraints. The course introduces relative permeability, capillary pressure, and fluid descriptions at concept level, compares black-oil, compositional, and other model types, and shows how model initialization and in-place volumes connect to material balance and simpler engineering checks. A major focus is placed on history matching and forecasting. Participants will learn what is matched and why, why several different models can reproduce the same history, how to judge match quality, and how development scenarios are translated into production profiles, recovery factors, and well and facility requirements. The course also covers uncertainty and sensitivity analysis, low, base, and high cases, probabilistic thinking, and the way simulation supports reserves and resources reporting. Through case studies, report reviews, and structured discussions, participants will build a checklist of red flags, hidden assumptions, and the right questions to ask simulation teams before approving plans, budgets, or bookings.

Learning Objectives

  • By the end of the course, participants will be able to:
  • Explain why and when reservoirs are simulated and what decisions simulation supports.
  • Describe how the static geological model, rock properties, and fluid data feed a simulation model.
  • Explain relative permeability, capillary pressure, and fluid descriptions at concept level.
  • Describe how grids, upscaling, wells, and operating constraints shape simulation results.
  • Compare black-oil, compositional, and other model types and recognize when each is appropriate.
  • Check model initialization and in-place volumes against material balance and volumetric estimates.
  • Evaluate history matching approaches, match quality, and the non-uniqueness of matched models.
  • Interpret development scenarios, production profiles, and recovery factors produced by simulation.
  • Assess uncertainty ranges, sensitivity results, and low, base, and high cases.
  • Identify red flags, weak assumptions, and gaps in simulation studies and reports.
  • Formulate structured questions to challenge simulation results before approving decisions.
  • Relate simulation outputs to field development plans and reserves and resources reporting.

Who Should Attend

This course is designed for engineers from drilling, production, facilities, and other disciplines, geoscientists, petrophysicists, and planners who receive, use, or depend on reservoir simulation results without building simulation models themselves. It is particularly relevant for professionals in national and international oil and gas companies, joint venture partners, government ministries, regulators, and financial institutions involved in field development planning, budgeting, portfolio review, and reserves and resources reporting. The course also benefits asset managers, planning and economics staff, finance professionals, and decision-makers who review or approve simulation-based forecasts, development plans, and investment proposals.

Learning Outcomes

  • Upon completion of this course, participants will be able to:
  • Explain the purpose and limitations of reservoir simulation.
  • Describe the main inputs and building blocks of a simulation model.
  • Explain how flow properties, grids, and upscaling affect results.
  • Distinguish black-oil, compositional, and other model types.
  • Check model volumes against material balance and volumetric estimates.
  • Judge the quality and credibility of a history match.
  • Explain why matched models are non-unique and what that means for forecasts.
  • Interpret production profiles, plateau periods, and recovery factor forecasts.
  • Read sensitivity results and low, base, and high cases.
  • Apply probabilistic thinking to simulation-based forecasts at concept level.
  • Recognize red flags and hidden assumptions in simulation reports.
  • Ask focused questions that test the robustness of simulation results.
  • Use simulation results appropriately in field development and investment decisions.
  • Relate simulation forecasts to reserves and resources reporting.

Course Outline

Course Outline

Day 1

Why Reservoirs Are Simulated and the Building Blocks

  • Purpose of simulation and the decisions it supports.
  • When simulation adds value over analytical methods and decline analysis.
  • Workflow of a simulation study from objectives to reporting.
  • From the static geological model to the dynamic model.
  • Rock and fluid inputs: porosity, permeability, saturation, and PVT data.
  • Practical Application: Map the data, assumptions, and owners behind a representative simulation study.
Day 2

Flow Concepts, Grids, Wells and Model Types

  • Relative permeability and capillary pressure at concept level.
  • Grids, cell size, and upscaling: what detail is lost.
  • Wells, completions, and operating and facility constraints.
  • Black-oil and compositional models and when each is used.
  • Other model types: dual porosity, thermal, and coupled models.
  • Practical Application: Judge whether a model's type and grid suit the study objectives.
Day 3

Initialization, Material Balance Link and History Matching

  • Initialization: fluid contacts, pressure, and saturation distribution.
  • Checking in-place volumes against volumetrics and material balance.
  • What is matched: pressures, rates, water cut, and gas-oil ratio.
  • Adjustment parameters and the risk of unrealistic changes.
  • Non-uniqueness: why different models match the same history.
  • Quality checks at well and field level and consistency with geology.
  • Practical Application: Rate the quality and credibility of a set of history match plots.
Day 4

Prediction, Forecasting and Uncertainty

  • Development scenarios: new wells, infill drilling, injection, and facilities.
  • Production profiles, plateau length, decline, and recovery factors.
  • Sources of uncertainty in geology, fluids, and operating assumptions.
  • Sensitivity analysis, tornado charts, and the parameters that matter.
  • Low, base, and high cases and probabilistic thinking.
  • Practical Application: Interpret forecast scenarios and sensitivities and identify the main value drivers.
Day 5

Challenging Results and Supporting Decisions

  • Reading simulation reports and their key assumptions.
  • Red flags: poor matches, over-tuned models, and missing uncertainty.
  • Questions to ask before approving plans, budgets, or bookings.
  • Simulation in field development plans and investment decisions.
  • Reserves and resources reporting and the Petroleum Resources Management System.
  • Communicating results and uncertainty to non-technical stakeholders.
  • Final Workshop: Review a simulation-based development proposal, identify its strengths and weaknesses, and prepare challenge questions and recommendations for decision-makers.

Upcoming Dates

Selected date

Bangkok · 11 – 15 Oct 2027 · Classroom

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CityDatesPrice per ParticipantEarly Bird
MakkahScheduled
2 – 6 Nov 2026€4,800—
ManamaScheduled
2 – 6 Nov 2026€5,300—
MarbellaScheduled
9 – 13 Nov 2026€6,000—
OnlineScheduled
15 – 19 Nov 2026€2,700—
MuscatScheduled
16 – 20 Nov 2026€6,300—
ParisScheduled
23 – 27 Nov 2026€6,700—
AbujaScheduled
30 Nov – 4 Dec 2026€7,700€6,930until 9 Nov
AccraScheduled
30 Nov – 4 Dec 2026€7,700€6,930until 9 Nov
AmmanScheduled
6 – 10 Dec 2026€4,000€3,600until 16 Nov
AmsterdamScheduled
14 – 18 Dec 2026€6,000€5,400until 23 Nov
BakuScheduled
21 – 25 Dec 2026€5,300€4,770until 30 Nov
BangkokScheduled
21 – 25 Dec 2026€6,700€6,030until 30 Nov
BarcelonaScheduled
28 Dec 2026 – 1 Jan 2027€6,000€5,400until 7 Dec
BeirutScheduled
3 – 7 Jan 2027€4,500€4,050until 14 Dec
CairoScheduled
3 – 7 Jan 2027€3,800€3,420until 14 Dec
Cape TownScheduled
11 – 15 Jan 2027€7,700€6,930until 21 Dec
CasablancaScheduled
18 – 22 Jan 2027€4,700€4,230until 28 Dec
DammamScheduled
24 – 28 Jan 2027€4,800€4,320until 4 Jan
DohaScheduled
24 – 28 Jan 2027€4,700€4,230until 4 Jan
DubaiScheduled
31 Jan – 4 Feb 2027€4,700€4,230until 11 Jan
ErbilScheduled
7 – 11 Feb 2027€4,000€3,600until 18 Jan
FrankfurtScheduled
8 – 12 Feb 2027€6,200€5,580until 18 Jan
IstanbulScheduled
15 – 19 Feb 2027€5,300€4,770until 25 Jan
JeddahScheduled
21 – 25 Feb 2027€4,800€4,320until 1 Feb
KigaliScheduled
22 – 26 Feb 2027€7,700€6,930until 1 Feb
Kuala LumpurScheduled
1 – 5 Mar 2027€4,700€4,230until 8 Feb
LisbonScheduled
8 – 12 Mar 2027€6,000€5,400until 15 Feb
LondonScheduled
8 – 12 Mar 2027€5,800€5,220until 15 Feb
MadinahScheduled
15 – 19 Mar 2027€4,800€4,320until 22 Feb
MakkahScheduled
22 – 26 Mar 2027€4,800€4,320until 1 Mar
BangkokScheduled
11 – 15 Oct 2027€6,700€6,030until 20 Sept

Available in: Istanbul · Dubai · London · Doha · Amsterdam

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