Fractured & Unconventional Reservoir Modelling

Introduction

Unlocking the full potential of unconventional reservoirs—including shale, tight sands, and carbonates—requires more than traditional workflows. Success lies in mastering fracture behavior, rock mechanics, and well placement precision. This intensive 5-day GLOMACS training course equips geologists, reservoir engineers, and drilling professionals with the practical, field-ready skills needed to navigate the complexities of these challenging formations.

Without the need for advanced seismic interpretation or modeling software, participants will learn to evaluate natural and induced fractures, analyze in-situ stress, and strategically align horizontal wells with productive fracture systems. Whether involved in exploration, field development, or production operations, attendees will gain valuable insight to optimize recovery, reduce uncertainty, and enhance operational efficiency.

This GLOMACS Fractured & Unconventional Reservoir Modelling training course will highlight:

• Fundamentals of fracture mechanics and rock failure criteria
• Characterization of fracture networks in shale, tight sandstones, and carbonates
• Understanding in-situ stress and its influence on fracture propagation and wellbore stability
• Application of directional drilling and geosteering to maximize reservoir contact
• Practical approaches to fracture analysis without seismic or complex numerical software

Objectives

By the end of this Fractured & Unconventional Reservoir Modelling training course, participants will be able to:

• Understand the mechanics of rock failure and fracture propagation in unconventional reservoirs
• Evaluate the effects of in-situ stress on wellbore stability and drilling safety
• Identify and characterize natural and stimulated fracture systems
• Apply geosteering techniques for more effective horizontal wellbore placement
• Make informed decisions on reservoir performance using practical, software-free methodologies

Training Methodology

Participants in this training course will engage in an interactive learning environment that blends theory with practical application. The instructor will use a combination of case studies, group discussions, real-life examples, and guided problem-solving exercises. Visual aids, structured presentations, and collaborative activities will support knowledge retention. These methods are designed to encourage participation, critical thinking, and practical understanding. The training course methodology ensures learners can apply acquired skills directly in their professional roles.

Organisational Impact

Organizations will gain measurable value through:

• Improved decision-making in well design and field development planning
• Enhanced fracture characterization that drives informed drilling and stimulation
• Lower operational risk through geomechanical awareness
• Maximized reservoir contact via precise horizontal wellbore steering
• Stronger collaboration across geoscience and engineering disciplines
• Reduced non-productive time (NPT) and increased operational efficiency

Personal Impact

Participants will return to their roles with strengthened capabilities and confidence:

• Mastery of fracture mechanics and geomechanical principles
• Practical skills to analyze stress environments and plan stable well trajectories
• Ability to evaluate and steer wells without relying on high-end software
• Enhanced ability to communicate insights across multidisciplinary teams
• Greater readiness for leadership or senior technical roles in subsurface engineering