Development of offshore drilling platform simulation for virtual onboard experience
0
조회
0
다운로드
4
인용
0
참고문헌
키워드
초록
As marine resources have been actively explored, a large number of offshore drilling platforms such as drillships and semi-submersible rigs have been built in many shipyards. The drilling system is the key feature that defines the characteristics of the platform. The operation of the drilling system is usually focused on the tubular handling, hoisting, and rotating systems which are directly handling drilling pipes and risers on the drill floor. Therefore, most of the training simulators have been developed only for controlling the drilling equipment. However, not only the drilling equipment handling on the drill floor, but also compensations systems such as heave compensation system and DPS (Dynamic Positioning System) to reduce the effect of the motion, ROV (Remotely Operated Vehicle) operation, well control including BOP (Blow-Out Preventer) should be integrated systematically because these systems on the offshore drilling platform are operated at the same time. Therefore, we propose the integrated offshore drilling platform simulation for virtual onboard experience which is composed of a virtual driller's cabin for handling drilling equipment, well control simulator to remove a kick, DPS simulator to control the motion of the platform, walk-through simulator to monitor the operation from the worker's viewpoint on the platform, and dynamic analyses of heave compensation system. All data such as the movement of the drilling equipment, platform position, driller's command, etc. are shared among systems in real-time. The proposed virtual offshore drilling platform can effectively show the various situations that occur during drilling operations.
Abstract
As marine resources have been actively explored, a large number of offshore drilling platforms such as drillships and semi-submersible rigs have been built in many shipyards. The drilling system is the key feature that defines the characteristics of the platform. The operation of the drilling system is usually focused on the tubular handling, hoisting, and rotating systems which are directly handling drilling pipes and risers on the drill floor. Therefore, most of the training simulators have been developed only for controlling the drilling equipment. However, not only the drilling equipment handling on the drill floor, but also compensations systems such as heave compensation system and DPS (Dynamic Positioning System) to reduce the effect of the motion, ROV (Remotely Operated Vehicle) operation, well control including BOP (Blow-Out Preventer) should be integrated systematically because these systems on the offshore drilling platform are operated at the same time. Therefore, we propose the integrated offshore drilling platform simulation for virtual onboard experience which is composed of a virtual driller's cabin for handling drilling equipment, well control simulator to remove a kick, DPS simulator to control the motion of the platform, walk-through simulator to monitor the operation from the worker's viewpoint on the platform, and dynamic analyses of heave compensation system. All data such as the movement of the drilling equipment, platform position, driller's command, etc. are shared among systems in real-time. The proposed virtual offshore drilling platform can effectively show the various situations that occur during drilling operations.
참고문헌 (21)
- "A complete and modern learning environment with the market's most advanced drilling simulator" (2020)[URL]
- Cayeux, E., "Advanced drilling simulation environment for testing new drilling automation techniques and practices", SPE Drilling and Completion. Society of Petroleum Engineers, pp.559~573 (2012)
- Cebollero, A., "Virtual reality empowered design", Nav. Archit, pp.34~38 (2017)
- Choe, J., "Dynamic Well Control Simulation Models for Water-Based Muds and Their Computer Applications", pp.1995
- Choe, J., "Well control analyses on extended reach and multilateral trajectories", Proceedings of the Annual Offshore Technology Conference. Offshore Technology Conference, pp.1334~1346 (2004)
- Featherstone, R., "Rigid Body Dynamics Algorithms" (2008), Springer
- Hodgson, R, "Advanced Drilling Simulators Offer Realistic Models to Reduce Crews' Learning Curve", ~ (2006)
- Hodgson, R. K., "Reducing the learning curve through use of an advanced drilling simulator", IADC, 2006, ~
- Huo, A., "Design and implementation of drilling engineering simulation system based on Unity3D", J. Phys. Conf. Ser, 1894, pp.12043~ (2021)[DOI]
- 조아라, "Design parameter study of heave compensation system for offshore drilling operations considering pneumatic and hydraulic control", 석사, 조선해양공학과, pp.2012
- Kim, S. W., "Return to session directory the development process of the DSME & honeywell DP system for a submerged heavy lift carrier", 2010 Dynamic Positioning Conference, pp.1~17 (2010)
- 구남국, "Dynamic analysis and control of heave compensation system for offshore drilling operation based on multibody dynamics", 박사, 조선해양공학과, pp.2012
- Liou, J, "From recovery into growth", Drill. Contract, pp.69~ (2013)
- Mirhaj, S. A., "Tight hole spotting in 3D virtual drilling simulator", Society of Petroleum Engineers - SPE Offshore Europe Conference and Exhibition. Society of Petroleum Engineers, pp.902~908 (2013)
- Perez Fernandez, R., "Virtual Reality in a shipbuilding environment", Adv. Eng. Software, 81, pp.30~40 (2015)[DOI]
- Rommetveit, R., "eDrilling: a system for real-time drilling simulation, 3D visualization, and control", Society of Petroleum Engineers - Digital Energy Conference and Exhibition 2007. Society of Petroleum Engineers, pp.83~88 (2007)
- Santos, H., "Developing the micro-flux control method - Part 1: system development, field test preparation, and results", Proceedings of the SPE, 2005, 105~113
- Sorensen, S. C., "NORSOK R-002, Annex D - Løfteutstyr I Boreområdet" (2012), Aker Solutions
- Tongpradith, T., "Product Management: Visualization Technology and 3D Simulator of Aker Solutions", pp.2014
