A A A Ц Ц Ц Ц

ШРИФТ:

Arial Times New Roman

ИНТЕРВАЛ:

х1 х1.5 х2

КЕРНИНГ:

Обычный Средний Большой

ИЗОБРАЖЕНИЯ:

Черно-белые Цветные
For the visually impaired Standard Version
Scientific, Technological and Production Journal
ISSN 2079–3332 (print)
ISSN 3034-6835 (online)
founded in 2001

Defining working parameters of conveyor-type pipe feeding systems for trenchless pipeline installation and mining

Original articles: 2024 No 5

Defining working parameters of conveyor-type pipe feeding systems for trenchless pipeline installation and mining

DOI: 10.56195/20793332_2024_5_130_135

Read in pdf V. Anishchenko
  1. Robbins HDD©, USA
p. 130-135, No.5/2024
Abstract:
Analyzing the lab and job site testing data related to friction and clamping interaction between rubber compound-lined track-type conveyors and steel pipes in pipe feeding systems used in trenchless construction the article gives insight into major engineering principles behind the distribution of forces and reactions inside conveyor-based pipe feeding systems with axial force over 200 tons and discloses the relation between the parameters of the pipe and working characteristics of the continuous pipe feeding system. The research allowed to define the necessary clamping force developed by a 200-ton machine, maximum achievable friction factor consistent with the strength of steel rubber-coated conveyor plates and the ability of the most popular pipes used in trenchless industry to withstand the radial loads communicated by rubber-coated pads of the pipe feeder.
Keywords:
friction and clamping interaction, rubber compound-lined track-type conveyors, pipe feeding systems, clamping force, friction factor, trenchless industry
For citation:
Anishchenko V. Defining working parameters of conveyor-type pipe feeding systems for trenchless pipeline installation and mining. Mine Surveying and Subsurface Use. 2024;(5):130-135. (In Russ.). https://doi.org/10.56195/20793332_2024_5_130_135.
Information about the authors:
  1. Василий Анищенко – кандидат технических наук, главный инженер буровой компании Robbins HDD, США, e-mail: anischenko-vas@yandex. com
References:
  1. 1.United States Patent number 3,658,222 from Apr.25, 1972, PIPE TENSIONING APPARATUS, Inventors: Edwin J. Dresssel; Warren A. Petrie, New Orleans; Clarence W. Shaw, Metairie, La; Janis Grinbergs, Seattle, Wash; John E. Isakson, Stanwood, Wash; John E. Isakson, Stanwood, Eash; Martin C. Adams; Lynwood; Wash filed on Oct. 21, 1970 application number 82,851.
  2. 2. Trenchless pipeline installation system. US permanent patent number US10837236 Inventor: Vasily Anishchenko and Philip Suhm, November 17, 2020.
  3. 3. UK Patent Application GB 2561375 A PIPE TENSIONER WITH A LOCAD SENSOR IN A TENSIONING PAD filed on 17.10.2018 by Technip France, inventors: Andrew Harrop, Lodovic Lacan, Martin Pierre, Paul McMillan.
  4. 4. United States Patent Published on Sep. 21, 2005, Pub. No.: US2006/0208245A1 PIPE TENSIONER MACHINE Inventor: Ottmar Diehl, Tattaya (TH) Application number: 11/111,291, Filed on Apr. 20, 2005.
  5. 5. European Patent Application EP2192259A1 Pipeline Presure Device With Endless Conveyor Memebers For Use During AHorizontal Directional Drilling Process / Published on 02.06.2010, published Gebr.van Leeuwen Harmelen B.V. 3481 MC Harmelen (NL), date of filing 12.10.2009.
  6. 6. Anishchenko VI, Zhabin AB, Averin EA, et. al. Technological Solutions for Slant Directional Drilling Project Challenges. IOP Conf. Series: Earth and Environmental Science. International science and technology conference "Earth science". 2021;666:022002. DOI:10.1088/1755-1315/666/2/022002.
  7. 7. Oilfield Meets HDD. Offshore oil and HDD technologies merge to build undersea power link by Andew Topf, CUI, Canadian Underground Infrastructure, September 2015.
  8. 8. Persson, B. N. J. Sliding Friction: Physical Principles and Applications. (Springer, Berlin, 2000).
  9. 9. Pruiksma JP, Pfeff D, Kruse HM. The calculation of the thrust force for pipeline installation using the Direct Pipe method. Pipeline Technology Conference. Hanover. 2012. Paper TM2-T5-04 – 7.
  10. 10. K. Haraniya Sing, “Hydraulic and pneumatic chapter 12”, pp. 12-6 to 12-9.
  11. 11. Yuken Kogyu co. ltd, “Basic hydraulic and component”, chapter 2 pp 6 – 14.
  12. 12. Popov, V. L. Contact Mechanics and Friction: Physical Principles and Applications. (Springer, Berlin, 2010).
  13. 13. Continuous Pipe Feeder for Pipeline and Tunnel Construction with a System of Avoiding Clamping against Welded Joints, provisional Patent US63/344,558 filed on 05/21/2022, inventor: Vasily Anishchenko.
  14. 14. Alfutov NA. Fundamentals of calculations for the stability of elastic systems. Mechanical Engineering. 1978;33:249-252.
  15. 15. Robison, J., Hotz, R., Chen, C. (2013). “Emerging Technologies – A Suggested Design Method for Jacked, Curved Steel Pipe” ASCE Pipelines Conference Proceedings pp. 864.
  16. 16. Ahemad SM. Study on basic component of hydraulic system. International journal of trends and technology. 2016;39(5).
  17. 17. Scaraggi M, Putignano C, Carbone G. Elastic contact of rough surfaces: A simple criterion to make 2D isotropic roughness equivalent to 1D one. Wear. 2013;297(1-2):811–817. DOI: 10.1016/j.wear.2012.10.004.
  18. 18. Bourgoyne, A. T, Young, F. S, Jr. Millheim, K. K, Chenevert, M. E. (2003). Applied Drilling Engineering. SPE Textbook Series, Volume 2.
  19. 19. Willoughby, David (2005). Horizontal Directional Drilling, Mcgraw-Hill, New York, p. 1-263.

 

Управление топливными ресурсами

New materials