Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis

The production of raw-crushed wind-turbine blade (RCWTB) and its addition to conventionally designed self-compacting Concrete (SCC) enable us to provide a second life to wind-turbine blades. However, SCC containing RCWTB must show proper fresh behavior, an aspect evaluated in this paper both experim...

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Main Authors: Manuel Hernando-Revenga, Víctor Revilla-Cuesta, José A. Chica, Vanesa Ortega-López, Juan M. Manso
Format: Article
Language:English
Published: MDPI AG 2024-10-01
Series:Applied Sciences
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Online Access:https://www.mdpi.com/2076-3417/14/21/9946
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author Manuel Hernando-Revenga
Víctor Revilla-Cuesta
José A. Chica
Vanesa Ortega-López
Juan M. Manso
author_facet Manuel Hernando-Revenga
Víctor Revilla-Cuesta
José A. Chica
Vanesa Ortega-López
Juan M. Manso
author_sort Manuel Hernando-Revenga
collection DOAJ
description The production of raw-crushed wind-turbine blade (RCWTB) and its addition to conventionally designed self-compacting Concrete (SCC) enable us to provide a second life to wind-turbine blades. However, SCC containing RCWTB must show proper fresh behavior, an aspect evaluated in this paper both experimentally and through simulations based on computational fluid dynamics (CFD) for RCWTB additions up to 3.0% by volume. In experimental terms, RCWTB reduced the flowability and passing ability of SCC, and slowed SCC flow, although the performance of SCC with 1.5% RCWTB was adequate under free-flow conditions. In terms of modeling, RCWTB did not impact yield stress and increased plastic viscosity. CFD modeling under free flow, regardless of the presence or not of obstacles simulating concrete reinforcement, was successful, especially in the long term. Nevertheless, the modeling of the passing ability was not accurate; precision could be improved by simulating the effect of the individual GFRP fibers within the SCC flow. Finally, the mechanical properties of SCC were negatively impacted by RCWTB, the stitching effect of the GFRP fibers not being effective in an SCC with a conventional design. A specific SCC design when adding RCWTB is therefore needed to advance in the use of this waste in this concrete type.
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spelling doaj-art-a239fd74dbcf434fbb438046c938fc7d2024-11-08T14:33:54ZengMDPI AGApplied Sciences2076-34172024-10-011421994610.3390/app14219946Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical AnalysisManuel Hernando-Revenga0Víctor Revilla-Cuesta1José A. Chica2Vanesa Ortega-López3Juan M. Manso4Department of Civil Engineering, University of Burgos, 09001 Burgos, SpainDepartment of Civil Engineering, University of Burgos, 09001 Burgos, SpainTECNALIA, Basque Research and Technology Alliance (BRTA), 48160 Bizkaia, SpainDepartment of Civil Engineering, University of Burgos, 09001 Burgos, SpainDepartment of Civil Engineering, University of Burgos, 09001 Burgos, SpainThe production of raw-crushed wind-turbine blade (RCWTB) and its addition to conventionally designed self-compacting Concrete (SCC) enable us to provide a second life to wind-turbine blades. However, SCC containing RCWTB must show proper fresh behavior, an aspect evaluated in this paper both experimentally and through simulations based on computational fluid dynamics (CFD) for RCWTB additions up to 3.0% by volume. In experimental terms, RCWTB reduced the flowability and passing ability of SCC, and slowed SCC flow, although the performance of SCC with 1.5% RCWTB was adequate under free-flow conditions. In terms of modeling, RCWTB did not impact yield stress and increased plastic viscosity. CFD modeling under free flow, regardless of the presence or not of obstacles simulating concrete reinforcement, was successful, especially in the long term. Nevertheless, the modeling of the passing ability was not accurate; precision could be improved by simulating the effect of the individual GFRP fibers within the SCC flow. Finally, the mechanical properties of SCC were negatively impacted by RCWTB, the stitching effect of the GFRP fibers not being effective in an SCC with a conventional design. A specific SCC design when adding RCWTB is therefore needed to advance in the use of this waste in this concrete type.https://www.mdpi.com/2076-3417/14/21/9946raw-crushed wind-turbine bladeself-compacting concreteflowabilitypassing abilitycomputational fluid dynamicsBingham equation
spellingShingle Manuel Hernando-Revenga
Víctor Revilla-Cuesta
José A. Chica
Vanesa Ortega-López
Juan M. Manso
Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
Applied Sciences
raw-crushed wind-turbine blade
self-compacting concrete
flowability
passing ability
computational fluid dynamics
Bingham equation
title Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
title_full Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
title_fullStr Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
title_full_unstemmed Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
title_short Initial Approach to Self-Compacting Concrete with Raw-Crushed Wind-Turbine Blade: Fresh, CFD and Mechanical Analysis
title_sort initial approach to self compacting concrete with raw crushed wind turbine blade fresh cfd and mechanical analysis
topic raw-crushed wind-turbine blade
self-compacting concrete
flowability
passing ability
computational fluid dynamics
Bingham equation
url https://www.mdpi.com/2076-3417/14/21/9946
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AT joseachica initialapproachtoselfcompactingconcretewithrawcrushedwindturbinebladefreshcfdandmechanicalanalysis
AT vanesaortegalopez initialapproachtoselfcompactingconcretewithrawcrushedwindturbinebladefreshcfdandmechanicalanalysis
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