Flow Analysis of Pertamina-Dex in Curved Pipe Line at the Integrated Terminal of Pertamina Patra Niaga Semarang

Sefrian Imam BMechanical Engineering, Diponegoro University, Semarang, IndonesiaKhoiri RoziMechanical Engineering, Diponegoro University, Semarang, IndonesiaAgus SuprihantoMechanical Engineering, Diponegoro University, Semarang, IndonesiaSusilo Adi WMechanical Engineering, Diponegoro University, Semarang, IndonesiaYunianto Arif SPT Pertamina Patra Niaga Integrated Terminal Semarang, Semarang, Indonesia

Vol 7 No 5 (2023): Volume 7, Issue 5, May 2023 | Pages: 154-159

International Research Journal of Innovations in Engineering and Technology

OPEN ACCESS | Research Article | Published Date: 21-05-2023

doi Logo doi.org/10.47001/IRJIET/2023.705017

Abstract

This research was carried out to understand the flow characteristics of Pertamina Dex through the elbow in pipe line systems. The work was made using ANSYS FLUENT with the k-ERNG turbulence model. The results of the Pertamina-Dex flow simulation at the elbow with Re = 165.748 produce a maximum speed of 1.24522 m/s, with a pressure drop of 1471 Pa, and a maximum temperature of 301.392K. While the results of the flow simulation with Re = 350.551 produce a maximum speed of 2.6088 m/s, with a pressure drop of 5439 Pa, and a maximum temperature of 300.709K.

Keywords

Curved Pipe, Secondary Flow, Pressure Loss, Turbulent Flow


Citation of this Article

Sefrian Imam B, Khoiri Rozi, Agus Suprihanto, Susilo Adi W, Yunianto Arif S, “Flow Analysis of Pertamina-Dex in Curved Pipe Line at the Integrated Terminal of Pertamina Patra Niaga Semarang” Published in International Research Journal of Innovations in Engineering and Technology - IRJIET, Volume 7, Issue 5, pp 154-159, May 2023. https://doi.org/10.47001/IRJIET/2023.705017

References
  1. Arvanitis, K.D., Bouris, D. and Papanicolaou, E. 2018. Laminar flow and heat transfer in U-bends: The effect of secondary flows in ducts with partial and full curvature. International Journal of Thermal Sciences. 130, February (2018), 70–93.
  2. Ayala, M. and Cimbala, J.M. 2021. Numerical approach for prediction of turbulent flow resistance coefficient of 90° pipe bends. Proceedings of the Institution of Mechanical Engineers, Part E: Journal of Process Mechanical Engineering. 235, 2 (2021), 351–360.
  3. Banakermani, M.R., Naderan, H. and Saffar-Avval, M. 2018. An investigation of erosion prediction for 15° to 90° elbows by numerical simulation of gas-solid flow. Powder Technology. 334, (2018), 9–26.
  4. Ikarashi, Y., Uno, T., Yamagata, T. and Fujisawa, N. 2018. Influence of elbow curvature on flow and turbulence structure through a 90° elbow. Nuclear Engineering and Design. 339, September (2018), 181–193.
  5. Ji, Y. and Liu, S. 2019. Effect of secondary flow on gas-solid flow regimes in lifting elbows. Powder Technology. 352, (2019), 397–412.
  6. Lin, R. 2011. Issues on Clean Diesel Combustion Technology Using Supercritical Fluids : Thermophysical Properties and Thermal Stability of Diesel Fuel. Biomedical and Chemical Engineering. (2011), 419.
  7. Nayak, B.B., Chatterjee, D. and Mullick, A.N. 2017. Numerical prediction of flow and heat transfer characteristics of water-fly ash slurry in a 180° return pipe bend. International Journal of Thermal Sciences. 113, (2017), 100–115.
  8. Rawat, A., Singh, S.N. and Seshadri, V. 2020. CFD analysis of the performance of elbow-meter with high concentration coal ash slurries. Flow Measurement and Instrumentation. 72, May 2019 (2020), 101724.
  9. Rosman, M. and Pao, W. 2017. Temperature Prediction in Hot Tapping Process for High Pressure Pipeline.
  10. Sutton, E., Juel, A., Kowalski, A. and Fonte, C.P. 2022. Dynamics and friction losses of the flow of yield-stress fluids through 90° pipe bends. Chemical Engineering Science. 251, (2022), 117484.
  11. Tan, Y., Zhang, H., Yang, D., Jiang, S., Song, J. and Sheng, Y. 2012. Numerical simulation of concrete pumping process and investigation of wear mechanism of the piping wall. Tribology International. 46, 1 (2012), 137–144.