Journal of Jilin University(Engineering and Technology Edition) ›› 2025, Vol. 55 ›› Issue (3): 877-887.doi: 10.13229/j.cnki.jdxbgxb.20230588

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Damage effects of water⁃heat⁃force coupling in permeable asphalt mixture in cold region

Jun-peng XU1(),Chuan-feng ZHENG2(),Yan-tao DU3,Yu-hang WANG2,Zheng LU3,Wen-jun FAN3   

  1. 1.College of Construction Engineering,Jilin University,Changchun 130026,China
    2.Transportation of College,Jilin University,Changchun 130022,China
    3.Changchun Municipal Engineering Design and Research Institute Co. ,Ltd. ,Changchun 130033,China
  • Received:2023-06-12 Online:2025-03-01 Published:2025-05-20
  • Contact: Chuan-feng ZHENG E-mail:jpxu19@mails.jlu.edu.cn;cfzheng@jlu.edu.cn

Abstract:

In order to understand the effect of ice crystal frost heave on permeable asphalt mixture in cold region, the water-heat-force coupling damage characteristics of permeable asphalt mixture were studied in this paper. Based on the analysis of the initial temperature field and initial water field of typical permeable asphalt mixture, the displacement field, stress field and strain field under the dynamic expansion mode of ice crystal were studied, and the distribution characteristics of the occurrence time of in-situ dynamic expansion and separation dynamic expansion, frost heave stress and deformation in the horizontal and vertical directions were obtained, and the basic change law of the dynamic expansion effect of ice crystal in the permeable asphalt mixture was clarified. The research results provide technical support for the design of permeable asphalt mixture in cold area.

Key words: road engineering, permeable asphalt mixture, ice crystal simulation, water-heat-force coupling analysis, damage mechanism

CLC Number: 

  • U414

Table 1

OGFC aggregate grading"

级配类型空隙率/%各筛孔通过率/%
16.013.29.54.752.361.180.60.30.150.075
13-Ⅰ20100.096.566.118.815.011.58.76.15.44.6
13-Ⅱ23100.091.661.316.713.210.27.25.85.14.3
13-Ⅲ25100.090.060.013.212.110.29.07.86.55.6
16-Ⅰ2095.080.057.521.016.012.09.57.55.54.0
16-Ⅱ2392.072.846.216.814.212.010.28.47.26.0
16-Ⅲ2590.070.045.012.010.06.04.03.03.02.0

Table 2

Statistics of coarse aggregates and voids in numerical models"

级配

类型

骨料尺寸/mm

空隙等效

直径/mm

15127424.752.36
13-Ⅰ-7431002822899
13-Ⅲ-74510529433114
13-Ⅲ-74811131135124
16-Ⅱ2841932592899
16-Ⅱ28439727133114
16-Ⅲ28449927935124

Fig.1

Relationship between thermophysical property parameters and initial water content"

Table 3

Enthalpy of water"

温度/℃-20-10-1010

焓值/

(J·m-3

07.888 6×10-313.78×1077.98×1071.218×108

Table 4

Elastic modulus of asphalt mortar corresponding to different gradation types at -18 ℃"

级配类型E级配类型E
13-Ⅰ52616-Ⅰ559
13-Ⅱ43716-Ⅱ462
13-Ⅲ38016-Ⅲ302

Fig.2

ANSYS mesostructure modeling process"

Table 5

Maximum and minimum temperatures from November 2021 to February 2022"

温度值11月12月1月2月
Tmax4-2-14-8
Tmin-14-25-21-20

Fig.3

Changes of internal temperature and temperature gradient under different water content"

Fig.4

Water distribution in permeable asphalt mixture"

Fig.5

Cloud image of combined displacement distribution of ice crystals in frozen state"

Fig.6

Trend diagram of resultant displacement under different voidage"

Fig.7

Cloud image of frost heave stress distribution of ice crystals"

Fig.8

Stress trend diagram under frost heave"

Fig.9

Cloud image of strain distribution under frost heave of ice crystals"

Fig.10

Trend diagram of strain change under frost heave"

Fig.11

Variation law of frost heave equivalent stress along horizontal path"

Fig.12

Variation law of resultant displacement along horizontal path"

Fig.13

Variation law of frost heave equivalent stress along vertical direction"

Fig.14

Variation law of combined displacement along vertical direction"

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