Pressure Wave Elimination in Iraqi Crude Oil Pipelines Using Novel Porous Filter and Electronic Control System

 
 
 
  • Abstract
  • Keywords
  • References
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  • Abstract


    The pressure wave is a serious problem in crude oil transportation pipelines. It is generated at the beginning and at the end of crude oil pumping process or as a result of sudden closing of valves. The high turbulence fluid particles in presence of pressure wave resulting in sever stresses on pipe walls needing for maintenance and replacement after a period of time. It is also leading to dissipation of flow energy consuming much more power for oil pumping. The objective of the present work is to decrease and eliminate the pressure wave in Iraqi crude oil pipelines through designing, manufacturing, and testing of a novel pressure wave filter with optimum design. The experimental system consists from: porous filter, oil pipe, pump, AC drive, and digital pressure transducers. The porous filter that was tested to eliminate the pressure wave is composed from various pipes (0.5 inch Perspex pipe, 1 inch PVC pipe, and 2 inches stainless steel pipe) with different porous materials to absorb the pressure energy from the fluid particles. These porous media are (1.5cm, 1cm, 0.4cm glass beads, and glass cylinders of 2cm length, 2cm outer diameter, and 2mm thickness). The experimental results proved the successful of the invented porous filter for eliminating the pressure wave by 99% using optimum design without suppressing the flow rate of crude oil in the pipe. The results obtained are quite significant since it awards a simple and low-cost solution for a real and practical problem in crude oil transportation sector.

     


  • Keywords


    Pressure wave; porous filter; crude oil; Fluid flow; Pumping energy.

  • References


      [1] Krishna Sapkota.Abayomi O.Oni,Amit Kumar, Ma Linwei, " The development of a techno-economic model for the extraction, transportation, upgrading, and shipping of Canadian oil sands products to the Asia-Pacific region ",Applied Energy,223 ( 2018 ), 273-292.

      [2] S. Jai Krishna Sahith ,K.venkates wara Rao,P.Srinivasa Rao, "Design and Surge Study of Salaya Mathura Pipeline for Higher Throughput of Crude Oil Transportation" Materials Today, 7( 2018), 5459-5466.

      [3] Raheek I. Ibrahim, Manal K. Odah, Aws F. Hassan, "Viscosity reduction for flow ability enhancement in Iraqi crude oil pipelines using novel capacitor and locally prepared nanosilica", J. Pet. Sci. Eng., 156 (2017) 356–365.

      [4] Mohammad Mainul Hoque, Subhasish Mitra, Mayur J.Sathe, J yeshtharaj B. Joshi, Geoffrey M. Evans, " Experimental investigation on modulation of homogeneous and isotropic turbulence in the presence of single particle using time-resolved PIV" Chemical Engineering Science, 153(2016), 308-329 .

      [5] M.Gageik J.Nies," Pressure wave damping in transonic air foil flow by means of micro vortex generators", Aerospace Science and Technology , 78(2018) 1-744.

      [6] S. Riedelmelmeir, S.Becker, E.Schlucker, ''Identification of the strength of junction coupling effects in water hammer'', J. fluids and structures, 68 (2017) 224-244.

      [7] Husain Al-Muslim1, Ibrahim Dincer, “Thermodynamic analysis of crude oil distillation systems” Int. J. Energy Res., 29(2005), 637–655.

      [8] Ghulam Yasin, Muhammad Iqbal Bhanger, Tariq Mahmood Ansari,Syed Muhammad Sibtain Raza Naqvi, Muhammad Ashraf, Khizar Ahmad and Farah Naz Talpur, "Quality and Chemistry of Crude Oils" J. Petroleum Technology and Alternative Fuels , 4(3), (2013), 53-63.

      [9] A. Ismaier ,E.Schlucker " Fluid dynamic interaction between water hammer and centrifugal pumps", J. Nuclear Engineering Design ,239(2009), 3151–3154.

      [10] A . S . Tijsseling "Fluid-structure interaction in liquid filled pipe system: a review " J .Fluid and structures, 10(1996), 109-146.

      [11] Al-Doura Refinery, "Technical Reports", Baghdad, Iraq, 2018.

      [12] Anton Bergant ,Arris S.Tijsseling,John P.Vitkovsky,Didia I.C.Covas,Angus R.Simpson,Martin F.Lambert, "Parameters affecting water-hammer wave attenuation", J. Hydraulic ,46(2008), 382–391.

      [13] Abdul-Aziz Ghodhbani ,Ezzeddine H.Taieb " A four-equation friction model for water hammer calculation in quasi rigid Pipelines" J. pressure vessels and piping,151(2017) ,54-62 .

      [14] Hyoung Jinkim"Numerical and experimental of unsteady pipe flow involving back flow prevention assemblies", Ph.D thesis, University of Southern California, (2012).

      [15] Tehuan Chen ,Tehuan Chen, Chao Xu , Qunlin,Ryan Lorton, "Water hammer mitigation via PDE-constrained optimization" J. Control Engineering Practice, 45( 2015), 54-63.

      [16] Mohammad Pournazeri, Amir Khajepour, Yanjun Huang, " Development of a new fully flexible hydraulic variable valve actuation system for engines using rotary spool valves", J. Mechatronics, 46 (2017), 1-20.

      [17] Tangtao Feng ,Dalin Zhang,Ping Song, Wenxi Tian ,We Li,G.H.Su ,Sui Zheng Qiu, "Numerical research on water hammer phenomenon of parallel pump-valve system by coupling FLUENT with RELAP5" J. Annals of Nuclear, 109( 2017), 318-326.

      [18] Helio Matos, Sachin Gupta, Arun, "Structural instability and water hammer signatures from shock-initiated implosions in confining environments ", J. Mechanics of Materials, 116 ( 2018 ), 169-179,.

      [19] Sławomir Henclik, "Numerical modeling of water hammer with fluid–structure interaction in a pipeline with viscoelastic supports", J.of fluids and structures, 76 (2018), 469-487.

      [20] Sławomir Henclik, "Analytical solution and numerical study on water hammer in a pipeline closed with an elastically attached valve", journal of sound and vibration, 417 (2018), 245-259.

      [21] J. K. Vennard, "Elementary fluid mechanics", John Wiley, Fourth edition, 1961.


 

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Article ID: 20524
 
DOI: 10.14419/ijet.v7i4.7.20524




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