Determination of wearproofness of contact wire by the method of complete factor experiment

Authors

  • Владислав Ігорович Скуріхін Kharkiv National Academy of Municipal Economy, 61002, Ukraine, Kharkov, street of Revolution, 12, Ukraine

DOI:

https://doi.org/10.15587/2312-8372.2014.21251

Keywords:

complete factor experiment, steel-aluminum contact wire, load current, planning matrix

Abstract

Using complete factor experiment, the analysis of the possibility of using steel-aluminum contact wire of the new sample during operation in the city contact network was conducted in the paper. The main objective of the study is to conduct this analysis, taking into account the following factors: the pressing force of the current collector to the contact wire, the road grade, the load current on the contact wire.

During the performance tests, it is sometimes impossible to directly assess the impact of this or that method, implemented in the contact "contact wire - current collector" (the change in specifications, etc.) on the wire wear, and efficiency has to be judged only by the change in overhaul life of runners, suggesting that the inserts wear-rate reduction is accompanied by the wire wear-rate reduction. This assumption is correct in some cases, but this approach is not entirely correct but in others.

The presented mathematical model allows to state that the load current has the most destructive influence on the contact wire since it has the largest ratio of the absolute value.

The proposed steel-aluminum contact wire is more appropriate to use at low-traffic sites, slopes, depot sites and zero-run sites since the contact wire wear is minimal at these sites.

The research results can be applied by design engineers in designing transport contact network.

Author Biography

Владислав Ігорович Скуріхін, Kharkiv National Academy of Municipal Economy, 61002, Ukraine, Kharkov, street of Revolution, 12

Department of electric transport

References

  1. Скуріхін, В. І. Ресурсосбережение в системе электроснабжения на городском электротранспорте [Текст] / В. Х. Далека, В. К. Нем, В. І. Скуріхін // Восточно-Европейский журнал передовых технологий. – 2010. – № 2/7 (44). – С. 33-36.
  2. RU 2351485 С2 МПК В60М 1/13. Способ изготовления контактного сталеалюминиевого провода [Текст]/ В. Г. Денисенко, Л. Н. Малышев, Г. Л. Могилин, А. К. Самойленко, В. М. Руденко; собственник: ЗАО ПП «Азовкабель».
  3. Берент, В. Я. Материалы и свойства электрических контактов [Текст] / В. Я. Берент. – М.: ВНИИЖТ, 2005. – 105 с.
  4. Адлер, Ю. П. Планирование эксперимента при поиске оптимальных условий [Текст]/ Ю. П. Адлер, Е. В. Маркова, Ю. В. Грановский. – М.: «НАУКА», 1976. – 286 с.
  5. Далека, В. Х. Математичне моделювання споживання ресурсів при експлуатації міського електричного транспорту [Текст] / В. Х. Далека // Коммунальное хоз-во городов. – К.: Техніка, 2002. – Вып. 38. – С. 274-281.
  6. Cooke, I. Introduction to Innovation and Technology Transfer [Text]/ I. Cooke, P. Mayers. – Boston: Artech House, Inc., 1996. – 235 p.
  7. Abboud, N. E. The markovian two-echelon repairable items provisioning problems [Text] / N. E. Abboud // J. of Opns. Res. Soc. – 1996. – № 2. – P. 284-296.
  8. Anily, S. Capacitated two-stage multi-item production inventory model with joint setup costs [Text] / S. Anily, A. Federgruen // Operations Research. – 1991. – № 3. –P. 443-455.
  9. Bradford, J. W. Inventory rotation policies for slow moving parts [Text] / J. W. Bradford, P. K. Sugrue // Naval Research Logistics. – 1991. – № 1. – P. 87-106.
  10. Eijs van, M. J. G. A note on the joint inventory replenishment problem under constant demand [Text] / M. J. G. Eijs van // J. of Operat. Res. Soc. – 1993. – № 2. – P. 185-193.
  11. Skurіhіn, V. І., Daleka, V. H., Nem, V. K. (2010). Resource-saving in electrical supply system on city electrotransport. Eastern-European Journal Of Enterprise Technologies, 2(7(44)), 33-36.
  12. Denisenko, V. G., Malyshev, L. N., Mogilin, G. L., Samojlenko, A. K., Rudenko, V. M. RU 2351485 S2 MPK V60M 1/13. Sposob izgotovlenija kontaktnogo stalealjuminievogo provoda. ZAO PP «Azovkabel'».
  13. Berent, V. Ja. (2005). Materialy i svojstva jelektricheskih kontaktov. M.: VNIIZhT, 105.
  14. Adler, Ju. P., Markova, E. V., Granovskij, Ju. V. (1976). Planirovanie jeksperimenta pri poiske optimal'nyh uslovij. M.: «NAUKA», 286.
  15. Daleka, V. H. (2002). Matematichne modeljuvannja spozhivannja resursіv pri ekspluatacіi mіs'kogo elektrichnogo transportu. Kommunal'noe hoz-vo gorodov, Vol. 38, 274-281.
  16. Cooke, I., Mayers, P. (1996). Introduction to Innovation and Technology Transfer. Boston: Artech House, Inc. 235.
  17. Abboud, N. E. (1996). The markovian two-echelon repairable items provisioning problems. J. of Opns. Res. Soc, 2, 284-296.
  18. Anily, S., Federgruen, A. (1991). Capacitated two-stage multi-item production inventory model with joint setup costs. Operations Research, 3, 443-455.
  19. Bradford, J. W., Sugrue, P. K. (1991). Inventory rotation policies for slow moving parts. Naval Research Logistics, 1, 87-106.
  20. Eijs van, M. J. G. (1993). A note on the joint inventory replenishment problem under constant demand. J. of Operat. Res. Soc, 2, 185-193.

Published

2014-02-06

How to Cite

Скуріхін, В. І. (2014). Determination of wearproofness of contact wire by the method of complete factor experiment. Technology Audit and Production Reserves, 1(2(15), 26–30. https://doi.org/10.15587/2312-8372.2014.21251