Design and Development of a Pipeline Maintenance System for Pipe Surge and Water Hammer Equipment Based on Siemens S7-1200 PLC

Authors

  • Mohammad Wirandi Politeknik Industri Petrokimia Banten
  • Deni Saputra Politeknik Industri Petrokimia Banten
  • Supardi Supardi Politeknik Industri Petrokimia Banten

DOI:

https://doi.org/10.52330/jtm.v22i2.279

Keywords:

Water Hammer, Pipe Surge, PLC, Pipe Monitoring System

Abstract

Fluids play a crucial role in the lives of living beings, as they are substances that can flow. In a piping system, a common issue is water pressure fluctuation caused by sudden closures of water flow (Idul, 2021). Pipe surge and water hammer equipment are utilized to demonstrate the transient pressure effect resulting from abrupt changes in flow velocity within pipes (David, 1981). Water hammer can lead to pressure surges throughout the piping system, potentially causing failures that result in leaks in pipes, valves, pipe joints, and even pumps if the pressure exceeds the pipe's capacity (Prasetya, 2016). The likelihood of pipe ruptures or leaks at joints increases significantly. Additionally, equipment movement, slope, and precision of pipe installation can also contribute to leaks during water hammer events.

This research aims to develop a pipe leakage monitoring system to address the impact of water hammer. The system will be installed in areas deemed susceptible to this phenomenon, along with a periodic maintenance indicator system to minimize the impact of pipe leaks. The research will also investigate the potential risks associated with varying fluid flow rates in the piping system. The monitoring, indicator, and sensor systems will be integrated into a PLC and HMI system for data processing.

References

Conference Proceedings

Bagi Guru-Guru SMK (pp. 1-24). Yogyakarta: Universitas Negeri Yogyakarta.

Bochari, J. N. (2020). Fenomena Palu Air (Water hammer) Menggunakan Pendekatan Model FIsik. (pp. 1-11). Riau: Universitas Riau.

D, S. (1981). Pipeline Design for Water Engineers. Developments in water science, 53-87.

David, S. (1981). Pipe Line Design for Water Engineers. Developments in Water Science, 53-87.

Firmansyah, H. (2022). Perawatan Sistem Perpipaan. Bandung: Prodi Mesin, Universitas Pasundan.

Hatmojo, Y. I. (2015). Programmable Logic Controller. In Y. I. Hatmojo, Pelatihan Mekatronika.

I Wayan Diaasa, I. K. (2019). ANALISA KEHILANGAN AIR (NON REVENUED WATER) PADA JARINGAN SISTEM PENYEDIAAN AIR MINUM (SPAM). Gradien, 1-19.

Idul, L. K. (2021). Pengujian Water hammer Pada Berbagai Tekanan Hidrostatis. ENTHALPY, 9299.

Klein, J. (2006). Water hammer. Halle, Germany: KSB Aktiengesellschaft. Manik,

R. G. (2018). RANCANG BANGUN PENDETEKSI KEBOCORAN DENGAN MENGGUNAKAN WATER FLOW SENSOR BERBASIS WI-FI. Surabaya: Institut Teknologi Sepuluh November.

Prasetya, H. (2016). Evaluasi unjuk kerja sistem proteksi water hammer pada sistem perpipaan. Surabaya: Instutut Teknologi Sepuluh November.

Perdeep Kumar, H. K. (2019). Human Machine Interface (HMI). In H. K. Perdeep Kumar, Software Projects (pp. 1-65). Gharuan: LAP Lambert.

Books and Reference Works

Armfield. (2020). c7-mkii pipe surge and water hammer apparatus. Retrieved from Armfield: https://armfield.co.uk/product/c7-mkii-pipe-surge-and-water-hammer-apparatus/

Armfield. (2020). c7-mkii pipe surge and water hammer apparatus. Retrieved from Armfield: https://armfield.co.uk/product/c7-mkii-pipe-surge-and-water-hammer-apparatus/

Webpage on a website

Automation, A. (2021). HMI (Human Machine Interface) Guide. Retrieved from Anaheim Automation: https://www.anaheimautomation.com/manuals/forms/hmi-guide.php

Downloads

Published

2024-08-30

How to Cite

Wirandi, M., Saputra, D., & Supardi, S. (2024). Design and Development of a Pipeline Maintenance System for Pipe Surge and Water Hammer Equipment Based on Siemens S7-1200 PLC. Jurnal Teknologi Dan Manajemen, 22(2), 31 - 36. https://doi.org/10.52330/jtm.v22i2.279