Quality management of repair production for disassembly of pressure coupling

Authors

DOI:

https://doi.org/10.15587/2312-8372.2015.47798

Keywords:

quality parameters, unification, classification, repair technologies, limiting parameters, disassembly

Abstract

The problems of quality management of disassembly of pressure coupling for effective functioning of repair production are considered because the effective use of machinery and equipment is the high level of maintenance and repair, which affects product quality and production costs. A condition for quality disassembly is to preserve parts of the repaired product. Particularly complex disassembly of pressure coupling is complex if they large or design does not allow using simple mechanical pullers as well as compounds which, as a result of heavy operation, is one-piece steel. Quality and productivity disassembly of such compounds occurs only using induction heating. However, normative-technical provision of such technologies is virtually absent, which makes their use is not effective in energy costs. Therefore, the aim of the work was to determine and justify the principle of laying the foundations of normative and technical provisions of quality, energy-efficient and productive technology of repair production for example, disassembling connections with interference when using induction heating. The structural-parametric principle for creating a normative-technical provision, system of construction classifications of disassembled pressure coupling with heating parts in their inbox, unified operations based on the account settings, limiting quality of products and a mathematical model of the process of repair of thermal technologies on the example of disassembling connections with interference which can be used for quality control in the production of repair schemes for any pressure coupling.

Author Biographies

Анна Алексеевна Павлова, Ukrainian Engineering and Pedagogical Academy, Str. University, 16, Kharkov, Ukraine, 61003

Candidate of Technical Sciences, Associate Professor

Department of integrated technologies in mechanical engineering and welding production

 

Анна Николаевна Лагода, Ukrainian Engineering and Pedagogical Academy, Str. University, 16, Kharkov, Ukraine, 61003

Assistant

Department of integrated technologies in mechanical engineering and welding production

References

  1. Zenkyn, A., Khimicheva, H., Barey, B. (2003). Pobudova komplektu normatyvnykh dokumentiv dlya intehrovanykh system yakosti na osnovi obmezhennya riznomanitnosti. Standartyzatsiya, sertyfikatsiya, yakist', 2, 22–25.
  2. Chepurko, Y. P., Kupryyanov, A. V. (1999). Mnohoparametrycheskaya model' sborky soedynenyy s yspol'zovanyem termovozdeystvyya. Vestnyk Khar'kovskoho hosudarstvennoho polytekhnycheskoho unyversyteta: Novye reshenyya v sovremennykh tekhnolohyyakh, 44, 35–37.
  3. Chepurko, Y. P., Makushenko, T. V. (1995). Bazyrovanye detaley pry sborke soedynenyy s termovozdeystvyem. Materialy mezhd. nauch.-tehn. konf. «Progressivnaja tehnika i tehnologii mashinostroenija». Donetsk: DHTU, 260–261.
  4. Arpent'ev, B. M., Zyl'ber, A. H. (1988). Typyzatsyya tekhnolohycheskykh protsessov sborky s termovozdeystvyem na osnove tekhnolohycheskoho klassyfykatora soedynenyy. Standarty y kachestvo, 11, 33–34.
  5. Bazrov, B. M. (1997). Unyfykatsyya v mashynostroenyy s pozytsyy systemnoho podkhoda. Standarty y kachestvo, 3, 16–19.
  6. Arpent'ev, B. M., Zyl'ber, A. H. (1986). Osnovnye principy tehnologicheskoj klassifikacii i kodirovanija sborochnyh edinic. Standarty i kachestvo, 8, 33–34.
  7. Zaharov, M. V., Jaremenko, V. P. (2001). Konstruktorsko-tehnologicheskaja klassifikacija sborochnyh edinic. Vestnik Sumskogo nacional'nogo agrarnogo universiteta, 7, 86–92.
  8. Arpent'ev, B. M., Zil'ber, A. G. (1989). Avtomatizirovannoe proektirovanie tehnologicheskih processov sborki s nagrevom na baze tehnologicheskogo klassifikatora. Standarty i kachestvo, 7, 60–62.
  9. Zenkin, A. S., Arpent'ev, B. M. (1987). Sborka nepodvizhnyh soedinenij termicheskim metodom. Moskva: Mashinostroenie, 128.
  10. Klassifikator ESKD. Detali obshhemashinostroitel'nogo primenenija. (1986). Moskva.
  11. Karslou, G., Eger, D. (1964). Teploprovodnost' tverdyh tel. Moskva: Nauka, 326.
  12. Arpent'ev, B. M., Duka, A. K., Kutsyn, A. N. (1997). Novyi metod opredeleniia sostavliaiushchih teplovoi provodimosti. Sbornik nauchnyh trudov KhISP, 2, 186.

Published

2015-07-23

How to Cite

Павлова, А. А., & Лагода, А. Н. (2015). Quality management of repair production for disassembly of pressure coupling. Technology Audit and Production Reserves, 4(1(24), 73–77. https://doi.org/10.15587/2312-8372.2015.47798