Oil and Gas Technical Trainings
Reservoir Simulation, History Matching and Forecasting
This in-depth technical course develops directly applicable capability in Reservoir Simulation, History Matching and Forecasting. It connects From Static Model to Dynamic Simulation, Flow Model Construction and Well Representation, History-Matching Strategy and Diagnostics to the calculations, diagnostics, and engineering decisions encountered in field operations.
Overview
Practical learning for workplace transfer.
This in-depth technical course develops directly applicable capability in Reservoir Simulation, History Matching and Forecasting. It connects From Static Model to Dynamic Simulation, Flow Model Construction and Well Representation, History-Matching Strategy and Diagnostics to the calculations, diagnostics, and engineering decisions encountered in field operations. The five modules progress toward History Match and Development Forecast Workshop using course-specific data, plots, calculations, and technical work products.
Objectives
- Analyze from static model to dynamic simulation, including define grid geometry, layering, upscaling, facies, porosity, permeability, and net-to-gross inputs.
- Build flow model construction and well representation, including configure transmissibility, faults, non-neighbor connections, rock compressibility, and numerical controls.
- Diagnose history-matching strategy and diagnostics, including condition pressure, rate, allocation, well-test, plt, and shut-in data before matching.
- Evaluate forecast cases and uncertainty quantification, including construct base, upside, downside, depletion, waterflood, gas-injection, and infill-development cases.
- Complete history match and development forecast workshop, including diagnose pressure, oil, gas, and water mismatches using maps, plots, material balance, and well evidence.
Target audience
- Drilling, reservoir, production, and well engineers
- Petroleum engineers, geoscientists, and technical specialists
- Operations, subsurface, and field-development team members
- Technical assurance, studies, and asset-team professionals
- Experienced personnel moving into specialist petroleum-engineering responsibilities
Program outline
A clear structure for the learning journey.
Program outline
Outline points are grouped in one designed block instead of being treated as separate module cards.
Module 1: From Static Model to Dynamic Simulation
Define grid geometry, layering, upscaling, facies, porosity, permeability, and net-to-gross inputs
Prepare PVT, saturation-pressure, relative-permeability, capillary-pressure, and SCAL data
Initialize contacts, pressure, saturation, regions, and aquifer support while checking volumes in place
Module 2: Flow Model Construction and Well Representation
Configure transmissibility, faults, non-neighbor connections, rock compressibility, and numerical controls
Represent completions, skin, well indices, group controls, lift constraints, and production or injection limits
Perform material-balance, pore-volume, connectivity, timestep, convergence, and well-allocation quality checks
Module 3: History-Matching Strategy and Diagnostics
Condition pressure, rate, allocation, well-test, PLT, and shut-in data before matching
Design weighted objective functions for field, region, well, phase, pressure, and water-cut responses
Adjust uncertain geological, petrophysical, fault, aquifer, and well parameters without destroying geological realism
Module 4: Forecast Cases and Uncertainty Quantification
Construct base, upside, downside, depletion, waterflood, gas-injection, and infill-development cases
Apply facility, pressure, rate, gas-handling, water-handling, and injection constraints consistently
Generate ensemble forecasts and communicate P10, P50, P90, reserves, recovery, and decision sensitivities
Module 5: History Match and Development Forecast Workshop
Diagnose pressure, oil, gas, and water mismatches using maps, plots, material balance, and well evidence
Select defensible parameter updates and document their effect on match quality and reservoir behavior
Produce a constrained forecast comparison with uncertainty ranges and a development decision memorandum
Materials provided
- ○ Course-specific technical presentation slides
- ○ Engineering exercises and calculation worksheets
- ○ Field reports, datasets, plots, and diagnostic scenarios
- ○ Workshop templates and interpretation checklists
- ○ 4D Certificate of Completion issued by 4D Training & Consultancy
- ○ Post-course support for implementation questions
Training Options
Programs can be delivered in-house, online, or in a blended format depending on your team's schedule, location, and learning objectives. When an external certificate or exam is included, certification rules and fees remain under the relevant awarding body's policies, while 4D provides the training and preparation support.
Why choose 4D
4D Training & Consultancy adapts technical depth, datasets, calculations, and workshop decisions to the client’s operating context so participants can transfer the methods to real petroleum-engineering work.
Related courses
Advanced Well Control Equipment: Subsea BOPs
This advanced training course focuses on the technical understanding and operational mastery of Subsea Blowout Preventer (BOP) systems, which are critical for maintaining well control in deepwater drilling environments. Designed for experienced professionals, the course provides a comprehensive review of subsea BOP components, control systems, emergency shutdown mechanisms, and maintenance best practices. Emphasis is placed on the complexity, high operational cost, and risk management associated with subsea well control. Participants will gain both theoretical and practical knowledge, including troubleshooting techniques, hydraulic diagnostics, and real world case studies from offshore operations. By the end of this course, participants will be able to: Understand the structure and function of key subsea BOP components, Identify and interpret control systems and hydraulic circuits, Perform BOP maintenance, testing, and certification procedures, Recognize failure modes and implement troubleshooting strategies, apply emergency well control procedures using the BOP, analyze subsea BOP operations from safety, efficiency, and cost perspectives.
View courseArtificial Lift Systems: ESP, Gas Lift, and Rod Pump Operations
This technical training program gives participants a practical understanding of artificial lift systems used in oil production, including electrical submersible pumps, gas lift, and rod pump operations. The course focuses on system selection, operating principles, monitoring, troubleshooting, failure modes, optimization, and field-level decision-making for production reliability.
View courseAsset Integrity, Corrosion Management and Risk-Based Inspection
This technical course helps oil and gas teams manage asset integrity, corrosion threats, and inspection priorities. Participants learn integrity management principles, corrosion mechanisms, damage classification, inspection planning, risk-based inspection, fitness-for-service concepts, and practical coordination between operations, inspection, maintenance, and engineering.
View course