Protective coatings of building structures and pipelines for operation in the Arctic

被引:0
|
作者
Sapelkin, R. I. [1 ]
Matreninskiy, S. I. [2 ]
Mishchenko, V. Ya. [3 ]
Tarasov, V. A. [4 ]
机构
[1] Gazprom Invest LLC, Gazprom PJSC, St Petersburg, Russia
[2] Voronezh State Tech Univ, Voronezh, Russia
[3] Moscow State Univ Civil Engn, Natl Res Univ, Moscow, Russia
[4] Peter Great St Petersburg Polytech Univ, St Petersburg, Russia
来源
MAGAZINE OF CIVIL ENGINEERING | 2025年 / 18卷 / 01期
关键词
protective coating; building structures; pipe metal; Arctic; industrial safety; rubber mastic; rubber concrete; recycling; industrial waste; thermal energy; vulcanization; heating wire; induction; temperature-time conditions; physical and mechanical chara & scy; teristics; POLYMER CONCRETE;
D O I
10.34910/MCE.133.8
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
The article is devoted to the study of the efficiency of using insulating (protective) coatings of building structures and pipeline transport for their reliable and trouble-free operation in extreme conditions of the Arctic zone. Innovative construction and composite materials - rubber concrete and rubber mastic, which have a combination of high physical, mechanical, and operational characteristics, are proposed to be used as protective coatings. A mandatory condition for the structure formation of rubber concrete and rubber mastic with the formation of a durable and corrosion-resistant protective layer is the dosed introduction of thermal energy into the composite material during an experimentally established period of time, which ensures the production of a protective coating with high specified properties. To establish rational technological modes of structure formation of the rubber-containing protective layer, experimental studies were carried out to optimize the temperature and time modes of introducing thermal energy into the composite material of the protective coating. Optimization of the technological modes of forming a protective coating from rubber concrete for reinforced concrete building structures was carried out on a developed and manufactured experimental heat-generating stand with a working element in the form of an uninsulated metal wire. Optimization of technological modes of formation of protective coating from rubber mastic for pipe metal was carried out on an experimental stand using induction heating. It was proposed to use a number of industrial wastes (fly ash, rubber crumb, etc.) as a filler in rubber concrete and in rubber mastic. A comparative analysis of the characteristics of the protective coating of pipe metal based on rubber mastic with the characteristics of the currently widely used multilayer polyethylene coating was carried out. The competitive advantages of rubber-containing protective coating of pipe metal are determined.
引用
收藏
页数:11
相关论文
共 50 条
  • [21] Plasma Technology for Creation of Protective and Decorative Coatings for Building Materials
    Volokitin, Oleg
    Volokitin, Gennady
    Skripnikova, Nelli
    Shekhovtsov, Valentin
    ADVANCED MATERIALS IN TECHNOLOGY AND CONSTRUCTION (AMTC-2015), 2016, 1698
  • [22] Protective coatings based on silsesquioxane nanocomposite films for building limestones
    Simionescu, Bogdana
    Aflori, Magdalena
    Olaru, Mihaela
    CONSTRUCTION AND BUILDING MATERIALS, 2009, 23 (11) : 3426 - 3430
  • [23] Use of nano-structured modifiers to improve the operational characteristics of pipelines' protective coatings
    Kudina, E. F.
    Barkanov, E.
    Vinidiktova, N. S.
    GLASS PHYSICS AND CHEMISTRY, 2016, 42 (05) : 512 - 517
  • [24] Analysis of the Strength Characteristics of Internal Sprayed Protective Coatings of Pipelines to Improve Energy Efficiency
    Orlov, Vladimir
    Averkeev, Ilya
    Pelipenko, Alexey
    INTERNATIONAL SCIENTIFIC CONFERENCE ENERGY MANAGEMENT OF MUNICIPAL TRANSPORTATION FACILITIES AND TRANSPORT, EMMFT 2017, 2018, 692 : 391 - 401
  • [25] Use of nano-structured modifiers to improve the operational characteristics of pipelines’ protective coatings
    E. F. Kudina
    E. Barkanov
    N. S. Vinidiktova
    Glass Physics and Chemistry, 2016, 42 : 512 - 517
  • [26] ARCTIC PIPELINES CAN BE HEATED
    OTHMER, DF
    GRIEMSMA.JW
    PIPELINE & GAS JOURNAL, 1971, 198 (08) : 38 - &
  • [27] CORROSION ASPECTS OF ARCTIC PIPELINES
    PEABODY, AW
    MATERIALS PERFORMANCE, 1979, 18 (05) : 27 - 32
  • [28] Coatings for underground pipelines
    不详
    MATERIALS PERFORMANCE, 2003, 42 (04) : 34 - 35
  • [29] TRENCHING CONSIDERATIONS FOR ARCTIC PIPELINES
    Paulin, Mike
    Cocker, Joseph
    Humby, Damien
    Lanan, Glenn
    33RD INTERNATIONAL CONFERENCE ON OCEAN, OFFSHORE AND ARCTIC ENGINEERING, 2014, VOL 6A: PIPELINE AND RISER TECHNOLOGY, 2014,
  • [30] Coatings for subsea pipelines
    不详
    MATERIALS PERFORMANCE, 2006, 45 (08) : 42 - 43