Cyber-Physical System for Diagnostic Along the Controlled Section of the Oil Pipeline

Abstract

The purpose of the work is to develop an experimental model of the control system for compliance with turns along the control length of the pipeline. The open issue of detecting oil product leaks along the controlled section of the pipeline. Preliminary analysis of leak detection methods and principles of operation of hardware and software security diagnostics of the state of pipe transport networks has been considered. A method of studying experimental data and presenting results has been developed. Different literature sources have been analyzed, these literature sources provide information about real cases of pipeline system diagnostics and leak or defect detection. The software and hardware part of the control systems for conducting checks along the control part of the pipeline have been developed, and checks and evaluations of the results of the system checks have been carried out.

Diagnostics of Oil Leaks Caused by Malicious Damage to the Linear Part of Oil Pipelines: Innovative Solutions for the Oil Industry

“…All these aspects are also presented and published in a scientific article by scientists: A. Obshta, Y. Biliak, V. Shugai [33].…”

“…For such an architecture, software writing is simplified, and several computational threads are created, which ensures faster data processing [33].…”

“…The general structure of data collection by the leak detection system and transmission to the central control center is shown in Fig. 1 [33].…”

“…The data transmission algorithm has the following form (A. Obshta, Y. Biliak, V. Shugai) [33]: 1) Pressure sensors are connected to the programmable logic controller (PLC); 2) the PLC receives data from the pressure sensors and stores the data in the PLC memory in the corresponding buffer every 50 ms. The buffer has a set of such data for 5 s; 3) polling of all PLCs is performed by the system polling server using a specialized OPC-Modbus/TCP driver using the of 1.6 GHz, a level two cache of 2 MB, and a maximum core temperature of no more than 90 °C.…”

“…The buffer has a set of such data for 5 s; 3) polling of all PLCs is performed by the system polling server using a specialized OPC-Modbus/TCP driver using the of 1.6 GHz, a level two cache of 2 MB, and a maximum core temperature of no more than 90 °C. The processor has a built-in Intel HD Graphics (Braswell) video card, which has 8 GB of video memory, and a maximum video core frequency of 640 MHz [33].…”