Sustainability-Driven Decision-Making Model: Case Study of Fiber-Reinforced Concrete Foundation Piles

AbstractCurrently, foundation piles for inhabited areas are often constructed using a continuous flight auger, which is a cost- and time-efficient technology that does not require stabilization of the borehole wall; the steel bar reinforcement is embedded after the concrete has been poured. However,...

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Veröffentlicht in:Journal of construction engineering and management 2021-10, Vol.147 (10)
Hauptverfasser: Pons, O, Casanovas-Rubio, M. M, Armengou, J, de la Fuente, A
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container_title Journal of construction engineering and management
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creator Pons, O
Casanovas-Rubio, M. M
Armengou, J
de la Fuente, A
description AbstractCurrently, foundation piles for inhabited areas are often constructed using a continuous flight auger, which is a cost- and time-efficient technology that does not require stabilization of the borehole wall; the steel bar reinforcement is embedded after the concrete has been poured. However, this reinforcement operation can lead to severe construction and structural issues. Thus, several improvements to this technology have been proposed since its first application in the 20th century, such as the use of more fluid concretes. Nevertheless, steel and polymers are emerging as a potential replacement for steel bars in concrete reinforcement for several types of structures and building components, with identified and quantified benefits from a sustainability perspective. Accordingly, this paper proposes and validates a multicriteria decision-making approach designed with multidisciplinary experts within the construction field to assess the sustainability index of concrete pile foundations. The results of a case study enable us to conclude that polymeric fiber-reinforced concrete piles are the most sustainable due to their cost–structural efficiency ratio, high durability, and minimal risks during construction. Steel fiber-reinforced concrete alternatives were also found to be more sustainable than traditional reinforced concrete. Nonetheless, these results are unrepresentative of the current practice as direct costs were found to be the main driver in the decision-making processes, while other costs and both environmental and social indicators are disregarded. This justifies the urgency to provide sustainability-driven decision-making approaches capable of objectively quantifying the satisfaction degree of economic, environmental, and social indicators involved in the analysis.
doi_str_mv 10.1061/(ASCE)CO.1943-7862.0002073
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Accordingly, this paper proposes and validates a multicriteria decision-making approach designed with multidisciplinary experts within the construction field to assess the sustainability index of concrete pile foundations. The results of a case study enable us to conclude that polymeric fiber-reinforced concrete piles are the most sustainable due to their cost–structural efficiency ratio, high durability, and minimal risks during construction. Steel fiber-reinforced concrete alternatives were also found to be more sustainable than traditional reinforced concrete. Nonetheless, these results are unrepresentative of the current practice as direct costs were found to be the main driver in the decision-making processes, while other costs and both environmental and social indicators are disregarded. 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M</creatorcontrib><creatorcontrib>Armengou, J</creatorcontrib><creatorcontrib>de la Fuente, A</creatorcontrib><title>Sustainability-Driven Decision-Making Model: Case Study of Fiber-Reinforced Concrete Foundation Piles</title><title>Journal of construction engineering and management</title><description>AbstractCurrently, foundation piles for inhabited areas are often constructed using a continuous flight auger, which is a cost- and time-efficient technology that does not require stabilization of the borehole wall; the steel bar reinforcement is embedded after the concrete has been poured. However, this reinforcement operation can lead to severe construction and structural issues. Thus, several improvements to this technology have been proposed since its first application in the 20th century, such as the use of more fluid concretes. Nevertheless, steel and polymers are emerging as a potential replacement for steel bars in concrete reinforcement for several types of structures and building components, with identified and quantified benefits from a sustainability perspective. Accordingly, this paper proposes and validates a multicriteria decision-making approach designed with multidisciplinary experts within the construction field to assess the sustainability index of concrete pile foundations. The results of a case study enable us to conclude that polymeric fiber-reinforced concrete piles are the most sustainable due to their cost–structural efficiency ratio, high durability, and minimal risks during construction. Steel fiber-reinforced concrete alternatives were also found to be more sustainable than traditional reinforced concrete. Nonetheless, these results are unrepresentative of the current practice as direct costs were found to be the main driver in the decision-making processes, while other costs and both environmental and social indicators are disregarded. 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M</au><au>Armengou, J</au><au>de la Fuente, A</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Sustainability-Driven Decision-Making Model: Case Study of Fiber-Reinforced Concrete Foundation Piles</atitle><jtitle>Journal of construction engineering and management</jtitle><date>2021-10-01</date><risdate>2021</risdate><volume>147</volume><issue>10</issue><issn>0733-9364</issn><eissn>1943-7862</eissn><abstract>AbstractCurrently, foundation piles for inhabited areas are often constructed using a continuous flight auger, which is a cost- and time-efficient technology that does not require stabilization of the borehole wall; the steel bar reinforcement is embedded after the concrete has been poured. However, this reinforcement operation can lead to severe construction and structural issues. Thus, several improvements to this technology have been proposed since its first application in the 20th century, such as the use of more fluid concretes. 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source American Society of Civil Engineers:NESLI2:Journals:2014
subjects Augers
Boreholes
Building components
Case studies
Concrete
Concrete construction
Concrete piles
Concrete reinforcements
Costs
Decision making
Economic analysis
Indicators
Multiple criterion
Pile foundations
Reinforced concrete
Reinforcing steels
Steel construction
Steel fiber reinforced concretes
Steel fibers
Sustainability
Technical Papers
title Sustainability-Driven Decision-Making Model: Case Study of Fiber-Reinforced Concrete Foundation Piles
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