INVESTIGATION OF THE EFFECTIVE PLACEMENT OF CLOSING VALVES IN ORDER TO PREVENT GAS LOSSES DURING OPERATION OF PARALLEL NETWORKS
DOI:
https://doi.org/10.58225/sw.2024.2-76-81Keywords:
Parallel gas pipelines, operation of gas pipelines, pipeline interconnector, loopings, multi-line gas pipeline network, uninterrupted gas supply, accident mode, optimal spacing of fittingsAbstract
One of the important issues is not to make the work of demanding enterprises dependent on the mode of operation of the distribution pipeline feeding them with gas fuel and the organization of continuity of gas supply of these enterprises. For this purpose, it is of great importance to develop new technological bases for the operation of the network and to develop a theoretically justified reporting scheme for the prevention of gas losses due to modern equipment installed in gas transport networks. In the article, the efficient placement of closing fittings for the purpose of preventing gas losses in the operation of parallel gas pipelines was investigated, and proposals were made for theoretical and technical bases of the operation of parallel gas pipelines.
- Views
- 105
- Downloads
- 148
References
1. Aliyev I.G. (2005). Reconstruction of building and engineering systems, textbook, Baku
2. Aliyev I.G., Garaisayev K.S. (2004). Study of the management of the operating mode as a result of the analysis of the dynamic state of gas pipelines. Ecology and water management, scientific-technical and industrial journal. #3, Baku
3. Aliyev I.G., Yusifov M.Z., Omargadiyeva M.A. (2023). Study of the efficient placement of parallel gas pipeline connectors in the non-stationary regime. Endless light in science. ELS- International scientific and practical journal. Almaty, Kazakhstan. ISSN 2709-1201, https://www.irc-els.com/
4. Aliyev I.G., Yusifov M.Z., Alizade N.I. (2024). Technological basis of reconstruction of parallel gas pipelines. Scientific works/Elmi eserler, #1, AzUAC, Baku, 2024. https://www.swjournal.az/, EBSCO
5. Shchurovsky V.A., Zyuzkov V.V. (2011). Energy efficiency of highway gas transport and the need for gas transfer equipment. Compressor equipment and pneumatics. No. 1, v. 38-41
6. Criteria for derivation in the reconstruction of gas transport facilities, VNIIGAZ, M., 2003, 11 p.
7. Kyazimov K.G. (2004). Installation and operation of a gas utility. Publishing center "Akademiya."
8. Babin L.A., Grigorenko P.N., Yarygin E.N. (2011). Typical calculations for the construction of pipelines. M.: Nedra, v. 246
9. Inter-industry regulations on labor protection when operating gas enterprises. Moscow. "Izdatelstvo NCENAS", 2007.
10. Ivantsov O.M. (1985). "Reliability of highway constructions," Nedra
11. Lapteva T.I., Mansurov M.N. (2006). Detection of leaks in non-established flow in pipes. Oil and gas business. c.
12. Clifford W Petersen, Kevin Т Corbett, Doug P Fairchild, Scott Papka, Mario L Macia. (2004). Improving long-distance gas transmission economics: XI20 development overview. Proc. of Pipeline Technology Conference
13. Composite-reinforced line pipe passes Canadian field tests. Oil & Gas Journal, Nov. 3, 2003.
14. Corbett K.T., Bowen R.R., Petersen C.W. (2003). Use of high-strength line pipe can improve the economics of long-distance gas lines. Oil & Gas Journal
15. Gas distribution systems. Design, construction, and liquidation of natural gas distribution networks. Part 0. General requirements. ГОСТ 34715.0-2021
Published
Issue
Section
License
Copyright (c) 2024 Aliyev Ilqar, Yusifov Maarif , Omargadiyeva Medina (Author)
This work is licensed under a Creative Commons Attribution 4.0 International License.
