Integrated Reservoir Management
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Integrated Reservoir Management - IRM26R
| Code | Date | Time | Duration | Location | Currency | Team of 10 Per Person | Team of 7 Per Person | Early Bird Fee Per Person | Normal Fee Per Person |
|---|---|---|---|---|---|---|---|---|---|
| IRM26R | 05 - 16 Oct 2026 | 10 AM CDT |
3 Hours Per Day
|
Zoom Online
|
USD
|
2500
|
2850
|
3000
|
3500
|
Boost your team's skills and your budget! Enjoy group discounts for collaborative learning. Send an inquiry to info@peassociations.com.
Integrated Reservoir Management
A two-week practitioner-led program covering the full reservoir management workflow — from core, PVT, and log analysis through reserves estimation, material balance, well testing, and waterflooding, to full-field simulation and field development planning.
Description
Reservoir management is the continuous process of collecting, validating, and integrating reservoir description and performance data to make development and depletion decisions. This course works through that process end to end. Participants start with measurement fundamentals — core analysis, PVT, and well logs — then move into reserves estimation using volumetric, deterministic, and probabilistic methods. From there the course covers performance-based techniques including decline curve analysis, material balance with the Havlena-Odeh approach, and pressure transient interpretation. The final modules cover waterflooding design and reservoir simulation, each supported by worked exercises and case studies.
Decisions about how to develop and produce a reservoir are made under uncertainty and over long time horizons. The data behind those decisions comes from many sources — cores, fluid samples, logs, well tests, production history — and engineers need to know how to evaluate each data type, how it fits into the broader reservoir picture, and how to use it to forecast performance. This course is built around that workflow. Rather than treating reserves estimation, material balance, well testing, and simulation as separate topics, it shows how they connect and how to move between them when planning field development.
By the end of the course, participants will be able to:
Calculate original hydrocarbon in place using volumetric and material balance methods
Estimate reserves using deterministic and probabilistic techniques, including Monte Carlo simulation
Build material balance models for history matching and production prediction
Couple well models (IPR and VLP) with material balance calculations to improve forecast accuracy
Apply Arps and Fetkovich decline curve methods and understand the assumptions behind each
Interpret pressure transient tests using type curves and pressure derivative analysis
Design a waterflooding project, including voidage replacement and fractional flow analysis
Set up a reservoir simulation model, initialize it, and define development cases
Monitor fluid contacts (OWC and GOC) and predict reservoir or well lifetime
Model multiple juxtaposed connected reservoirs and estimate transmissibility between them
Prepare an integrated field development plan covering reservoir characterization, evaluation, and forecasting
The course is delivered through instructor-led sessions that pair theory with worked examples. Each topic begins with the underlying physics and assumptions, then moves to calculation procedures, and finishes with case studies drawn from real field data. Participants work through hands-on exercises using industry-standard tools for material balance, decline curve analysis, well test interpretation, and reservoir simulation. Discussion is built into each session so participants can compare approaches and bring questions from their own assets.
Companies sending engineers on this course gain team members who can:
Move between data domains — geology, petrophysics, reservoir, production — without needing handoffs between groups
Produce reserves and production forecasts that are defensible under audit and consistent with PRMS guidelines
Identify weak points in existing material balance and simulation models, and improve history matches
Support field development planning with integrated input rather than siloed analysis
Reduce reliance on external consultants for routine reservoir management tasks
Participants will:
Build a workflow they can apply directly to their own field, from data review through forecast
Understand how each piece of reservoir data contributes to the development plan, not just how to calculate with it
Develop judgment about when to use simple methods (decline curves, volumetrics) versus when to invest in detailed simulation
Strengthen their case in technical reviews by knowing the assumptions and limitations of each method
Earn a certificate recognized across the industry
Reservoir engineers at any career stage looking for a structured view of the full management workflow
Petroleum engineers moving into reservoir-focused roles
Production engineers who interact with reservoir teams and need to understand the underlying analyses
Asset team members responsible for field development planning, reserves reporting, or production forecasting
Module 1 — Introduction to Reservoir Management
Oil recovery processes and full-field modeling
Role of reservoir rocks and fluids in management decisions
Oilfield lifecycle and development phases
Typical production performance patterns
Module 2 — Applications of Core and PVT Data
Core analysis flowchart and conventional core analysis
Flow units and rock typing
Relative permeability and capillary pressure data
Reservoir fluid data applications
PVT analysis workflow within the reservoir management process
Module 3 — Formation Evaluation and Well Logging
Formation evaluation overview
Wireline logging operations
Basic concepts of log analysis
Open-hole logging measurements
Building an integrated formation evaluation plan
Module 4 — Hydrocarbon In-Place and Reserves Estimation
Why reserves estimates matter
Petroleum Resource Management System (PRMS)
Deterministic versus probabilistic estimation techniques
Volumetric reserves estimates: data sources and common pitfalls
Module 5 — Decline Curve Analysis and Production Forecasting
Performance-based reserves estimates
Reservoir drive mechanisms and production characteristics
Applications of decline curve analysis
Conventional decline curve analysis (Arps approach) and its assumptions
Advanced decline curve analysis (Fetkovich approach) and pitfalls
Module 6 — Material Balance Analysis
Material balance concept and general form
Havlena-Odeh approach, including Dake and Campbell diagnostic plots, pitfalls, and case studies
Input data collection and QA/QC
History matching and reservoir performance prediction
Improving prediction accuracy using well models
Module 7 — Material Balance Applications
Field development planning
Monitoring fluid contacts (OWC and GOC)
Determining asset lifetime
Monte Carlo simulation for reserves and forecast uncertainty
Module 8 — Well Testing Analysis
Role of well testing in reservoir management
Surface testing facilities
Types of pressure testing
Basic theory and the diffusivity equation
Type curve matching and pressure derivative analysis
Reservoir modeling using pressure transients
Well test interpretation workflow
Module 9 — Waterflooding Design
Principles and applications of waterflooding
Voidage replacement and the fractional flow equation
Analytical methods for waterflooding design and performance prediction
Displacement efficiency calculations
Managing and optimizing water injection
Module 10 — Reservoir Modeling Applications
Reservoir simulation overview, workflow, and benefits
Reservoir model initialization
Building a development strategy
Defining and running simulation cases
On successful completion of this training course, PEA Certificate will be awarded to the delegates
Your Expert trainer is a highly accomplished Reservoir Engineering Team Leader possessing over 14 years of experience in the energy sector. He has a proven track record of success in reservoir management, characterization, and production optimization.
Reservoir Engineering: Leading and mentoring teams, conducting comprehensive reservoir evaluations, and developing strategies to maximize hydrocarbon recovery.
Data Analysis and Interpretation: Analyzing production data, material balance, RFT/MDT data, and pressure transients to optimize reservoir performance and identify opportunities for enhanced recovery.
Software Proficiency: Utilizing industry-standard software such as Techlog, Volumetric, DCA, MBE, OFM, and KAPPA for reservoir simulation, analysis, and hydrocarbon estimation.
Training and Development: Designing and delivering training courses on key reservoir engineering topics, including waterflooding, PVT analysis, and reservoir simulation.
Trainer has deep understanding of reservoir engineering principles, coupled with his strong analytical and problem-solving skills, make him a valuable asset. He consistently delivers technical solutions that drive efficiency and improve the performance of E&P portfolios.
Frequently Asked Questions
All course bookings made through PEA are strictly non-refundable. By registering for a course, you acknowledge and accept that all fees are payable in full and are not subject to refund under any circumstances, including changes in personal or professional commitments or partial attendance.
PEA reserves the right to make reasonable adjustments to course content, trainers, or schedules where necessary, without entitling delegates to a refund. Comprehensive details of each course — including objectives, target audience, and content — are clearly outlined before enrolment, and it is the responsibility of the delegate to ensure the course's suitability prior to booking.
For any inquiries related to cancellations or bookings, please contact our support team, who will be happy to assist you.