INVESTIGATION OF MULTIPHASE CONDITION IN PIPELINE USING GAMMA COMPUTED TOMOGRAPHY

Bayu Azmi(1), Megy Stefanus(2),


(1) Center for Isotopes and Radiation Application, National Nuclear Energy Agency (BATAN)
(2) Center for Isotopes and Radiation Application, National Nuclear Energy Agency (BATAN)
Corresponding Author

Abstract


INVESTIGATION OF MULTIPHASE CONDITION IN PIPELINE USING GAMMA COMPUTED TOMOGRAPHY. Deposition of sand particles in pipeline is a problem that often occurs in the production and distribution of oil and gas. It could cause increased preasure, equipment failure, pipeline erosion, and production decline. It is very necessary to investigate inside condition of the pipeline without interrupting the operation. Gamma computed tomography (CT) is a technique that can image the internal structure of an object without interrupting or damaging the object (non-destructive testing). This paper presents a preliminary experimental study of multiphase (solid, liquid, and gaseous) condition inside a horizontal pipe using gamma CT technique. A collimated Cs-137 source with 3.7 GBq activity emited gamma photons to penetrate a 14 inches diameter horizontal pipe containing sand, water, and gasoline. The photons that penetrated object were detected using a scintillation detector at the other side of object. The scanner system performed translation and rotation scans to get 64 projection data which will then be reconstructed into an image. The reconstructed images were able to show the pipe wall and the condition of the inside of pipe which was filled with sand, water, and gasoline. The pixel value is linear to material density with R2= 0.9543. The result indicated the potential of gamma CT as the suitable technique to be used to investigate the multiphase conditions in pipeline.

Keywords


Gamma CT; industry; multihpase; non-destructive testing; pipeline.

References


[1] Zorgani E, Al-Awadi H, Yan W, Al-lababid S, Yeung H and Fairhurst C P 2018 Viscosity effects on sand flow regimes and transport velocity in horizontal pipelines Exp. Therm. Fluid Sci. 92 89–96

[2] Dabirian R, Mohan R, Shoham O and Kouba G 2016 Critical sand deposition velocity for gas-liquid stratified flow in horizontal pipes J. Nat. Gas Sci. Eng. 33 527–37

[3] Tebowei R, Hossain M, Islam S Z, Droubi M G and Oluyemi G 2017 Investigation of sand transport in an undulated pipe using computational fluid dynamics J. Pet. Sci. Eng. 162 747–62

[4] Leporini M, Marchetti B, Corvaro F, di Giovine G, Polonara F and Terenzi A 2018 Sand transport in multiphase flow mixtures in a horizontal pipeline: An experimental investigation Petroleum 1–10

[5] Chakhlov S V., Osipov S P, Temnik A K and Udod V A 2016 The current state and prospects of X-ray computational tomography Russ. J. Nondestruct. Test. 52 235–44

[6] Lee D-H, Park C, Baek C-H, Lee C, Lee S-J, Song H and Chung Y H 2017 Simulation of a Gamma-Ray Computed Tomography System Using Two Radioisotopes for Structural Inspections: A Preliminary Study IEEE Trans. Nucl. Sci. 64 2673–7

[7] Velo A F, Oliveira A S, Carvalho D V S, Martins J F T, Margarida M and Mesquita C H 2016 A portable tomography system with seventy detectors and five gamma-ray sources in fan beam geometry simulated by Monte Carlo method Flow Meas. Instrum. 1–15

[8] Azmi B, Wibisono and Saputro A H 2017 Portable Gamma Ray Tomography System for Investigation of Geothermal Power Plant Pipe Scaling 2017 15th Int. Conf. Qual. Res. Int. Symp. Electr. Comput. Eng. 159–63

[9] Azmi B, Wibisono and Saputro A H 2017 Measurement of Pipe Scaling using Parallel Beam Gamma Tomography A Sci. J. Appl. Isot. Radiat. 13 1–10

[10] Kim J, Jung S, Moon J and Cho G 2011 Industrial gamma-ray tomographic scan method for large scale industrial plants Nucl. Instruments Methods Phys. Res. Sect. A Accel. Spectrometers, Detect. Assoc. Equip. 640 139–50

[11] Al Mesfer M K, Sultan A J and Al-Dahhan M H 2016 Impacts of dense heat exchanging internals on gas holdup cross-sectional distributions and profiles of bubble column using gamma ray Computed Tomography (CT) for FT synthesis Chem. Eng. J. 300 317–33

[12] Pepin C M, Bérard P, Perrot A L, Pépin C, Houde D, Lecomte R, Melcher C L and Dautet H 2004 Properties of LYSO and recent LSO scintillators for phoswich PET detectors IEEE Trans. Nucl. Sci. 51 789–95

[13] Johansen G A 2004 Radioisotope Gauges for Industrial Process Measurements (John Wiley & Sons, Ltd)

[14] Vasquez P A S, De Mesquita C H, LeRoux G A C and Hamada M M 2010 Methodological analysis of gamma tomography system for large random packed columns Appl. Radiat. Isot. 68 658–61

[15] Herman G T 2009 Advances in Pattern Recognition - Fundamentals of Computerized Tomography (Springer)

[16] The Duy D N, Quang N H, Dao P Van, Duy B T and Chuan N Van 2015 A Third Generation Gamma-ray Industrial Computed Tomography Systems for Pipeline Inspection J. Teknol. 17 49–53


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DOI: 10.17146/gnd.2019.22.2.5342

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