Javascript must be enabled to continue!
Integration of Geosteering into an Automated Wellbore Placement System, Possibilities and Challenges
View through CrossRef
Abstract
The benefits of geosteering for accurate wellbore placement in reservoirs are well documented, with an emphasis on comprehensive reservoir mapping capabilities and related well path adjustments. Similarly, drilling-related processes such as well re-design, proximity scanning, and downlinking are important. The integration of geosteering and drilling processes adds complexity and challenges to designing automated wellbore placement systems. Automated systems need to contain sufficiently robust technologies and algorithms to avoid unintended and frequent exceptions. Equally, the human element must be considered to design an automated system with a great user experience. To gain user acceptance, an automated system must have the characteristics of predictability, transparency, adaptability, and automation levels that are validated prior to utilization. Without this, the result will be wellbore misplacement by engineers who blindly trust immature automated systems.
This paper provides an overview of processes and tasks within a comprehensive wellbore placement system, including the directional drilling and geosteering services as used by stakeholders who own well placement execution. We will provide an overview of the potential of automation and pitfalls to be avoided. The experience of many expert engineers from complementary disciplines has been used to develop a comprehensive concept as a framework to implement an automated wellbore placement system.
The paper also provides an analogy to the automotive industry which has developed reliable and robust systems for navigation, lane and speed control over the last few decades. The comparison highlights a fundamental difference to the petroleum industry of having multiple stakeholders involved in the process of wellbore placement. Consequently, communication between all the stakeholders during operations, notably proposals and approvals, must be designed into the system from the beginning.
Automation concepts to achieve great user experience are demonstrated on components of a wellbore placement process, including the illustration of lessons learned from recent development initiatives. Based on the demonstration, we conclude that an iterative development process is essential to ensure acceptance by the user community.
Title: Integration of Geosteering into an Automated Wellbore Placement System, Possibilities and Challenges
Description:
Abstract
The benefits of geosteering for accurate wellbore placement in reservoirs are well documented, with an emphasis on comprehensive reservoir mapping capabilities and related well path adjustments.
Similarly, drilling-related processes such as well re-design, proximity scanning, and downlinking are important.
The integration of geosteering and drilling processes adds complexity and challenges to designing automated wellbore placement systems.
Automated systems need to contain sufficiently robust technologies and algorithms to avoid unintended and frequent exceptions.
Equally, the human element must be considered to design an automated system with a great user experience.
To gain user acceptance, an automated system must have the characteristics of predictability, transparency, adaptability, and automation levels that are validated prior to utilization.
Without this, the result will be wellbore misplacement by engineers who blindly trust immature automated systems.
This paper provides an overview of processes and tasks within a comprehensive wellbore placement system, including the directional drilling and geosteering services as used by stakeholders who own well placement execution.
We will provide an overview of the potential of automation and pitfalls to be avoided.
The experience of many expert engineers from complementary disciplines has been used to develop a comprehensive concept as a framework to implement an automated wellbore placement system.
The paper also provides an analogy to the automotive industry which has developed reliable and robust systems for navigation, lane and speed control over the last few decades.
The comparison highlights a fundamental difference to the petroleum industry of having multiple stakeholders involved in the process of wellbore placement.
Consequently, communication between all the stakeholders during operations, notably proposals and approvals, must be designed into the system from the beginning.
Automation concepts to achieve great user experience are demonstrated on components of a wellbore placement process, including the illustration of lessons learned from recent development initiatives.
Based on the demonstration, we conclude that an iterative development process is essential to ensure acceptance by the user community.
Related Results
Geosteering Real-Time Geosteering Optimization Using Deep Learning Algorithms Integration of Deep Reinforcement Learning in Real-time Well Trajectory Adjustment to Maximize Reservoir Contact and Productivity
Geosteering Real-Time Geosteering Optimization Using Deep Learning Algorithms Integration of Deep Reinforcement Learning in Real-time Well Trajectory Adjustment to Maximize Reservoir Contact and Productivity
Geosteering is a critical process in directional drilling, aimed at optimizing well trajectories to maximize reservoir contact and productivity. Traditional geosteering techniques ...
The Impact of Ultra Deep Azimuthal Resistivity Technology on ENI Geosteering Workflow Evolution
The Impact of Ultra Deep Azimuthal Resistivity Technology on ENI Geosteering Workflow Evolution
The growth of horizontal drilling has been supported by the manufacturing of increasingly complex technologies, and ultradeep azimuthal resistivity (UDAR) LWD is one the most impor...
Wellbore Integrity Management: Dealing With Uncertainties
Wellbore Integrity Management: Dealing With Uncertainties
Abstract
Amongst all issues plaguing drilling operations, wellbore instability and failure is still a leading contributor to drilling non-productive time (NPT). Fail...
Wellbore Strengthening Uncertainties and Workflow Optimizations
Wellbore Strengthening Uncertainties and Workflow Optimizations
Abstract
Drilling depleted reservoirs is a challenging operation due to significant mud losses and potential risk of wellbore collapse against shale or high-pressure...
Underground Blowouts In Deep Well Drilling
Underground Blowouts In Deep Well Drilling
ABSTRACT
A kick occurs when the wellbore pressure becomes less than the formation pressure, and formation fluid enters the wellbore. When the flow of formation fl...
Fluid Placement Model for Stimulation of Horizontal or Variable Inclination Wells
Fluid Placement Model for Stimulation of Horizontal or Variable Inclination Wells
Abstract
Acidizing is a common method of stimulating horizontal wells. The acidizing process is fundamentally different when applied in a horizontal well compared...
An Innovative and Independent Method for Formation Strengths and Facies Identification Using Real-Time Downhole Drilling Data, and its Application in Geosteering for Optimal Well Placement
An Innovative and Independent Method for Formation Strengths and Facies Identification Using Real-Time Downhole Drilling Data, and its Application in Geosteering for Optimal Well Placement
Abstract
Understanding of rock strength, and its variability along the length of the well, is essential for building an efficient well trajectory during geosteering ...
Particulate Wellbore Fluid Strengthening Methodology. Design and Application in an Offshore Vietnam Severely Depleted Sand Reservoir
Particulate Wellbore Fluid Strengthening Methodology. Design and Application in an Offshore Vietnam Severely Depleted Sand Reservoir
Abstract
In the mature Cuu Long basin, offshore Vietnam, the dynamic reservoir model projected the pore pressure's depletion as high as 4,723psi countering virgin pr...

