Abstract
Currently, there is an overexploitation of natural resources worldwide due to the need to build various types of civil engineering infrastructure, such as buildings, bridges, housing and, in particular, roads. A large number of countries, including Mexico, additionally do not apply adequate treatment to the material resulting from the demolition of this type of work. Both situations generate significant environmental damage and contribute to the non-sustainability of the road construction sector. This research assesses the linear viscoelastic (LVE2) behavior of asphalt concrete specimens made with different combinations of mineral aggregate and construction and demolition waste (CDW). Complex dynamic modulus tests were performed in compression on cylindrical samples at different temperatures and frequency loading. The ANOVA analysis of test results indicate that the stiffness of the different asphalt concretes evaluated, represented by the complex dynamic modulus, tends to decrease with the temperature and increase with load frequency, which are typical of materials with viscous characteristics. The stiffness of the asphalt concrete evaluated does not show significant changes as the CDW aggregate content varies.
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Abbreviations
- CDW:
-
Construction and demolition waste
- LVE:
-
Linear viscoelastic
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Acknowledgments
The authors thank Maria Clara Madrigal for her helpful support and comments during the preparation of this paper. The authors also thank the Asphalts plant in Mexico City and the company Concretos Reciclados SA de CV for the donation of the materials used in this investigation.
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Highlights
• Recycled aggregates are a suitable alternative to be used in the preparation of asphalt mixtures.
• The complex dynamic modulus of asphalt concrete does not show significant changes as the percentage of aggregate CDW varies.
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Esparza, LA., Ossa, A. & Botero, E. Evaluation of the complex dynamic modulus of asphaltic concretes manufactured with construction and demolition waste (CDW) aggregates. Environ Sci Pollut Res 27, 11575–11586 (2020). https://doi.org/10.1007/s11356-020-07727-2
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DOI: https://doi.org/10.1007/s11356-020-07727-2