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Study of the possibility of using sulfur asphalt and sulfur concrete in road construction

Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The introduction of new effective road construction materials for pavements and foundations of highways is an urgent task, including the development and application of resource-saving technologies aimed at the use of low-demand, large-tonnage mineral materials, semi-finished products, industrial waste, and their by-products. Research on this topic has shown that sulfur and sulfur-containing waste, as well as modified technical sulfur when used as a binder, should be widely used in sulfur structural and road concrete in liquid, granular, or lumpy form. Ferrous cakes from the Pobug Nickel Plant or "tailings" of sulfur ore flotation can be used as fillers for sulfur binder. Having a high specific surface, they will have a positive effect on the structure formation of sulfur during the crystallization of the melt in the direction of strengthening the structure. Their high acid resistance should significantly increase the corrosion resistance of sulfur concretes. Granular slag from a metallurgical plant can be used as a fine aggregate. Overburden rocks in the form of gabbro-dolerites, dolerites, and basalts can be used as acid-resistant large aggregates. To reduce the fragility of the sulfur binder, plasticizing additives such as naphthalene, chlorinated paraffin, and bitumen can be introduced. The results obtained in this study confirm a decrease in the cost in the production of asphalt and cement concrete and the possibility of expanding the range of building materials with new road-building mixtures. Also, the test results showed that when temperature was decreased, the strength characteristics of sulfur concrete in the temperature range 0°C to −60°C increased by 7%. Low water absorption of sulfur concrete (0.1%–0.3%) versus cement concrete (2%–4%), which positively affected the strength and operational characteristics, was revealed.
Słowa kluczowe
Wydawca
Rocznik
Strony
244--262
Opis fizyczny
Bibliogr. 34 poz., rys., tab.
Twórcy
  • School of Civil Engineering, North Minzu University, 750021, 204 Wenchang Road, Yinchuan, NingXia, P.R. China
autor
  • Department of Computer Technologies of Construction and Reconstraction of Airports, Faculty of Architecture, Civil Engineering and Design, National Aviation University, 03058, 1 Liubomyra Huzara Ave., Kyiv, Ukraine
  • Department of Computer Technologies of Construction and Reconstraction of Airports, Faculty of Architecture, Civil Engineering and Design, National Aviation University, 03058, 1 Liubomyra Huzara Ave., Kyiv, Ukraine
autor
  • Department of Computer Technologies of Construction and Reconstraction of Airports, Faculty of Architecture, Civil Engineering and Design, National Aviation University, 03058, 1 Liubomyra Huzara Ave., Kyiv, Ukraine
autor
  • School of Civil Engineering, North Minzu University, 750021, 204 Wenchang Road, Yinchuan, NingXia, P.R. China
Bibliografia
  • [1] Kashchuk D. How to solve the problem of waste disposal. 2017. Available from https://biz.nv.ua/ukr/experts/jak-virishiti-problemu-utilizat siji-vidhodiv-2178636.html
  • [2] Barinov EM. New methods of assessing the quality of asphalt concrete. Lviv: LISI; 1989. 55 p.
  • [3] Bazhenov YM. Concrete polymers. Moscow: Stroyizdat; 1983. 472 p.
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  • [5] Kukharenko LV, Lichman NV, Nikitin IV. Special building materials for a special climatic region. Scientific and practical seminar “Geocryological and geoecological problems of construction in the regions of the Far North”. Norilsk: NII; 2001. p. 1–10.
  • [6] Orlovskyi YI. Concrete and products based on sulfur-containing waste. Concr RC. 1990;1:24–6.
  • [7] Burdo A. The best foreign asphalt concrete. Motorways. 1997;3:60–1.
  • [8] Verenko VO. The effect of elemental sulfur on the properties of organic binders and concrete. News Univ. 1985;4:62–5.
  • [9] Kasymov IK, Shamenev FK, Orlovskyi YI. Study of toxicological safety of construction materials and products based on sulfur production. In: Development of technological recommendations for research and use of natural mineral resources in the production of construction materials and products. Kyiv: NIIBMI; 1988. p. 38–47.
  • [10] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. Features of the hot recycling method used to repair asphalt concrete pavements. Mater Sci Pol. 2022;40(2):181–95.
  • [11] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. The use of fiber made from fly ash from power plants in China in road and airfield construction. Constr Build Mater. 2022 Mar;323:1–10.
  • [12] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. Study of carbon nano-modifier of fly ash in cement concrete mixtures of civil engineering. Sci Eng Compos Mater. 2022;29(1):227–41.
  • [13] Verenko VA, Lytov SI. Peculiarities of the deformation behavior of asphalt and bituminous concretes with the addition of sulfur. Motor Transp Roads. 1984;10:111– 115.
  • [14] Parfeniuk SA. Experience in the use of sulfur and sulfur-containing waste in the installation of asphalt concrete coatings. Automot Roads. 1987;2:16.
  • [15] Gurariy EM. Influence of sulfur on structure formation in bitumen. Ways Improv Propert Asphalt Concr Other Bitum Mixt. 1971;44:137–145.
  • [16] Kukolev GV. Chemistry of silicon and physical chemistry of silicates. Moscow: Vyshcha shkola; 1996.
  • [17] Verenko VA. Experience and prospects of using composite materials in road construction. Minsk: BelNDINTI; 1990. p. 44.
  • [18] Zavarzina MO. Ferrous cakes of nickel production in building materials. Build Mater. 1999;1: 48–49.
  • [19] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. Peculiarities of the use of the cold recycling method for the restoration of asphalt concrete pavements. Case Studies Constr Mater. 2022e;16(June 2022):e00872.
  • [20] Provisional instruction on the technology of sulfur concrete production. Uzhhorod: PPP “Patent”. 1987. 24 p.
  • [21] Rosenthal DO, Kutsenko VI, Miroshnikov EP. Modification of bitumen with polymer additives. Build Mater. 1995;9:23–5.
  • [22] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. Investigation of the properties and technologies of epoxy asphalt concrete preparation with the addition of fiber from fly ash of thermal power plants. Eur J Environ Civil Eng. 2022;27(5):2070–87. DOI:10.1080/19648189.2022.2110160.
  • [23] Bieliatynskyi A, Yang S, Pershakov V, Shao M, Ta M. Study of crushed stone-mastic asphalt concrete using fiber from fly ash of thermal power plants. Case Stud Constr Mater. 2022:16.
  • [24] Jashi NA. Sulfur-containing composites based on high-strength cement and gypsum materials. (AutoAbstract). Saint Petersburg: Petersburg State University of Communications of Emperor Alexander I; 1996. p. 23.
  • [25] Kaloeva IV. Methods of obtaining building materials from desulfurization waste. Moscow: VNIIST; 2017.
  • [26] Yatsevich IK, Verenko VA. Study of some ways of improving the rheological properties of coal tars. Motor Transp Roads. 1980;7:140–3.
  • [27] Orlovskyi YI. Peculiarities of the production technology of polymer sulfur concrete based on sulfur binder. Concr RC. 1993;4:27–9.
  • [28] Kukharenko LV, Lichman NV, Nikitin IV. Sulfur concrete based on local raw materials and industrial waste. Build Mater. 2000;1:10–11.
  • [29] Yelfimov VA, Volgushev AN. Selection of sulfur concrete compositions. Build Mater. 1991;19:28–9.
  • [30] Kuharenko LV, Zavarzyna MO. Iron cakes in the production of building materials. Constr Mater Ind. Ind Polym, Soft Roofing Heat-Insul Mater. 1995;2–3:22–4.
  • [31] Orlovskyi YI, Rashchynskyi VP, Marhal IV. Properties and prospects for the use of sulfur fiberglass concrete. News Univ Constr. 1994;9:43–47.
  • [32] Kamennov VO. Decorative sulfur concrete for restoration and repair and construction works. (AutoAbstract). Odesa: Odesa State Academy of Civil Engineering and Architecture; 1997. 15 p.
  • [33] Yang Sh, Bieliatynskyi A, Pershakov V, Shao M, Ta M. Asphalt concrete based on a polymer–bitumen binder nanomodified with carbon nanotubes for road and airfield construction. J Polym Eng. 2022;42(5):458–66.
  • [34] Radchenko BP, Danylko MB, Moshkovsky YP (2018). Patent “Method for producing sulfur asphalt concrete” Patent number: 123187 Available from https://uapatents.com/6-123187-sposib-otri maimya-sirkoasfaltobetonu.html#metki
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-00c5d0c6-ab32-4068-b8b4-72112708f303
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