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    塑管?混凝土界面密閉性能改善措施

    王俊顏 周田 呂梁勝 楊全兵

    王俊顏, 周田, 呂梁勝, 楊全兵. 塑管?混凝土界面密閉性能改善措施[J]. 工程科學學報, 2021, 43(5): 647-655. doi: 10.13374/j.issn2095-9389.2020.06.21.002
    引用本文: 王俊顏, 周田, 呂梁勝, 楊全兵. 塑管?混凝土界面密閉性能改善措施[J]. 工程科學學報, 2021, 43(5): 647-655. doi: 10.13374/j.issn2095-9389.2020.06.21.002
    WANG Jun-yan, ZHOU Tian, Lü Liang-sheng, YANG Quan-bing. Improvement of plastic pipe–concrete interface impermeability[J]. Chinese Journal of Engineering, 2021, 43(5): 647-655. doi: 10.13374/j.issn2095-9389.2020.06.21.002
    Citation: WANG Jun-yan, ZHOU Tian, Lü Liang-sheng, YANG Quan-bing. Improvement of plastic pipe–concrete interface impermeability[J]. Chinese Journal of Engineering, 2021, 43(5): 647-655. doi: 10.13374/j.issn2095-9389.2020.06.21.002

    塑管?混凝土界面密閉性能改善措施

    doi: 10.13374/j.issn2095-9389.2020.06.21.002
    基金項目: 國家自然科學基金青年基金資助項目(51609172);浙江省交通運輸廳科技資助項目(2019-GCKY-01)
    詳細信息
      通訊作者:

      E-mail:14529@#edu.cn

    • 中圖分類號: TU528.0

    Improvement of plastic pipe–concrete interface impermeability

    More Information
    • 摘要: 為改善塑管混凝土結構的界面密閉性能,研究了在塑管?混凝土界面粘貼一種雙面壓敏膠帶——Preprufe膠帶的作用。通過界面黏結強度、界面滲水高度和界面透氣性實驗,測得塑管混凝土結構的界面黏結強度、界面滲水高度、氣體壓力?時間衰減曲線,推導出界面滲透指數。試驗結果表明,界面黏結強度與粘貼膠帶的寬度的關系可初步認為符合冪函數分布,壓敏性粘合劑膠層與液態混凝土在硬化過程中形成的黏結強度遠大于普通黏性層與塑管間的黏結強度。粘貼Preprufe膠帶可顯著提高塑管?混凝土界面抗滲能力。界面滲透指數隨粘貼膠帶的寬度增大呈明顯的遞減趨勢,粘貼220 mm寬膠帶的塑管混凝土試件界面滲透指數僅為基準塑管混凝土試件的2.86%。Preprufe雙面壓敏膠帶在改善塑管?混凝土界面密閉性能上有良好的表現。在工程應用中可綜合考慮所需效果和價格成本來選取粘貼膠帶的寬度。

       

    • 圖  1  塑管?混凝土結構一體化成型

      Figure  1.  Integrated molding of plastic pipe–concrete structure

      圖  2  Preprufe膠帶的宏觀與微觀構造圖。(a)宏觀構造圖;(b, c)微觀構造圖

      Figure  2.  Macrostructure and microstructure of the Preprufe tape: (a) macrostructure; (b, c) microstructure

      圖  3  粘貼Preprufe雙面膠帶的塑管?混凝土試件

      Figure  3.  Plastic pipe–concrete specimens with the Preprufe double-sided tape

      圖  4  塑管混凝土黏結強度的測試

      Figure  4.  Bond strength test of plastic-pipe/concrete

      圖  5  界面滲水高度試驗示意圖

      Figure  5.  Interfacial water penetration height

      圖  6  界面透氣性測試系統。(a)示意圖;(b)實物圖

      Figure  6.  Interface airtightness test system: (a) diagram; (b) objects

      圖  7  PRE-0壓力?時間衰減曲線及其擬合曲線

      Figure  7.  Pressure–time decay curve and its fitting curve of PRE-0

      圖  8  Preprufe膠帶寬度與界面黏結強度的關系

      Figure  8.  Width of the Preprufe double-sided tape vs interface bonding strength

      圖  9  核心混凝土滲水高度。(a)外表面;(b)內部

      Figure  9.  Seepage height of central concrete: (a) surface; (b) inner region

      圖  10  壓力?時間衰減曲線

      Figure  10.  Pressure–time decay curve

      圖  11  Preprufe膠帶寬度與衰減時間Td的關系。(a)常規數值刻度;(b)對數刻度

      Figure  11.  Width of the Preprufe double-sided tape vs decay time Td: (a) conventional numerical scale; (b) logarithmic scale

      圖  12  Preprufe膠帶寬度與界面滲透指數Ω的關系。(a)常規數值刻度;(b)對數刻度

      Figure  12.  Width of the Preprufe double-sided tape vs interface permeability index Ω: (a) conventional numerical scale; (b) logarithmic scale

      表  1  C40混凝土配合比及基本性能

      Table  1.   C40 concrete mix ratio and basic performance

      Water /(kg·m?3)Cement /(kg·m?3)Fine aggregate /(kg·m?3)Coarse aggregate /(kg·m?3)Slump /cm28 d compressive strength /MPa
      17635273211401852.0
      下載: 導出CSV

      表  2  粘貼不同寬度Preprufe雙面膠帶的塑管?混凝土界面密閉性能試驗結果

      Table  2.   Test results of impermeability of plastic pipe?concrete interface with Preprefe tape of different widths

      SpecimensBond strength/
      kPa
      Interfacial water penetration height Interfacial airtightness
      Water penetration height/cmPermeability coefficient/(10?7·cm·s?1)Decay time/sPermeability index, Ω/(10?3·s?1)
      PRE-044.613.852.381999.43
      PRE-5526303834.41
      PRE-110512012481.11
      PRE-2201070033490.27
      Note: The decay time refers to the time consumed when the pressure in the gasholder decays from 200 to 30 kPa
      下載: 導出CSV
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    • 收稿日期:  2020-06-21
    • 刊出日期:  2021-05-25

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