Computer-based method of design and modeling of transient flow in crude oil pipeline system

  • ThankGod E. Boye Federal University of Petroleum Resources, Effurun, Nigeria
  • Olusegun David Samuel Federal University of Petroleum Resources, Effurn, Nigeria
Keywords: Computer-based design, transient flow, pipeline, risk assessment, mitigation.

Abstract

The utilization of computational fluid dynamics tools continue to gain growing interest from pipeline designers and transient flows simulators. Transient flow software with robust graphical user interface (GUI) capable to compute transient flows characteristics and modeling of selection of pipefittings and its associated components are arguably preferred, because of cost effectiveness and straightforward to use. To this aim, in this paper, the utilization of computer-based method for the prediction of transient flow phenomena in crude oil transportation pipelines of 52 km loading and offloading offshore terminal is developed. A transient solver with credible GUI was used for the implementation of design and transient analysis of the crude oil transportation pipeline system. The findings from the simulations provided profound understanding and predictions of transient flows regime in the pipeline that would be relevant to carrying-out risk assessment, control and mitigation on similar tangible pipeline systems. In addition, modified design rules for transient flow assessment, control and risk mitigation of crude oil pipeline at the design stage are presented in a flow chart format.

References

Afshar M.H. & Rohani M. 2008. Water hammer simulation by implicit method of characteristic. International Journal of Pressure Vessels and Piping; 85:85, 1–9.

Applied Flow Technology AFT. 2007. AFT impulse 4.0 waterhammer user guide.

Berganta A., Simpson A.R, Tijsseling A.S. 2006. Water hammer with column separation: A historical review, Journal of Fluids and Structures 22, 135–171.

Boulos, P. F., Wood D. J., Lingireddy S. & Karney B. 2005. Hydraulic Transient Guidelines for Protecting Water Distribution Systems, Journal of Americal Water Works Association 97:5, 104-115.

Carpenter R.C. & Barraclough S.H. 1894. Some experiments on the effect of water hammer. Transactions of the ASME 15, 510–535.

Cordes et al. 2016. Environmental Impacts of the Deep-Water Oil and Gas Industry: A Review to Guide Management Strategies, Deep-sea impact review, Frontiers in Environmental Science, Volume 4, Article 58.

Wang C. & Yang J.D. 2015. Water Hammer Simulation Using Explicit–Implicit Coupling Methods, Journal of Hydraulic Engineering 141(4):04014086.

Don J. W., Srinivasa L., Boulos P.F., Bryan W. K. & David L. M. 2005. Numerical Methods for Modeling transient flow in distribution systems, Journal American Water work association AWWA, peer-review 97:7 104-115.

Galante, C. & Pointer S. 2002. Catastrophic water hammer in a steam dead leg. IChemE Loss Prevention Bulletin 167, 16–20.

Gary J. & Gumm, P.E. 2017. Pipeline design manual, Washington suburban sanitary commission, regulations 301-206-WSSC (9772).

Hosseien M.V. S. & Alireze K. 2010. Transient flow in pipe networks, Journal of Hydraulic research, 40:5, 637-664.

Institute of Energy, Environment and Economy IEEJ Outlook 2017. Prospect and Challenges until 2050, Energy, Environment and Economy IEE Japan.

Joel D. 2004. Energy and population, Resources for the future, issue brief 04-10.

Jon R. H., Urban K. & Ole H. 2009. Decision on oil and gas exploration in an Arctic area: Case study from the Norwegian Barents Sea Safety Science Volume 47, Issue 6, Pages 832-842.

Kennedy, L. J. 1993. Oil and gas Pipeline Fundamentals, 2nd edition, Pennwell publishing company.

Mohitpour M., Golshan H. & Murray A. 2007. Pipeline design and construction: A practical approach., third edition, ASME Press, New York.

Roman W. 2006. Hydraulic Transients Analysis in Pipe Networks by the Method of Characteristics (MOC) Archives of Hydro-Engineering and Environmental Mechanics Vol. 53, No. 3, pp. 267–29.

Popescu M., Arsenie, D. & Vlase, P. 2003. Applied hydraulic transients for hydropower plant and pumping stations, Swets & Zeitlinger Publishers.

Taheri R. & Afshar M.H. 2010. Simulation of transient flow in pipeline systems due to load rejection and load acceptance by hydroelectric power plants. International Journal of Mechanical Sciences 52 103–115

Thanapandi P. & Rama P. 1995. Centrifugal pump transient characteristics and analysis using the method of characteristics International Journal of Mechanical Sciences, Volume 37, Issue 1, 1995, Pages 77-89.

Boye T.E, Nwaoha .C.T, Samuel D. O. & Ashiedu F.I. 2007. A Validation Method of Computational Fluid Dynamics (CFD) Simulation against Experimental Data of Transient Flow In Pipes System, American Journal of Engineering Research (AJER) Volume-6, Issue-6, pp-67-79.

Thorley, D.A.R. 2004. Fluid transient in pipeline systems, John Wiley & Sons; second edition.

Tushar S., Tinish G. & Nitish. 2017. Hydraulic Transient Flow Analysis using Method of Characteristics International Journal of Innovative Research in Science, Engineering and Technology, Vol. 6, Issue 7, 14813-14827.

Published
2020-08-13
Section
Mechanical Engineering