Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach

Abstract A detailed numerical simulation of Colored Self-Compacting Concrete (CSCC) was conducted in this research. Emphasis was placed on an innovative calibration methodology tailored for ten unique CSCC mix designs. Through the incorporation of multi-objective optimization, MATLAB's Genetic...

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Main Authors: Vahid Shafaie, Majid Movahedi Rad
Format: Article
Language:English
Published: Nature Portfolio 2024-02-01
Series:Scientific Reports
Subjects:
Online Access:https://doi.org/10.1038/s41598-024-54715-4
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author Vahid Shafaie
Majid Movahedi Rad
author_facet Vahid Shafaie
Majid Movahedi Rad
author_sort Vahid Shafaie
collection DOAJ
description Abstract A detailed numerical simulation of Colored Self-Compacting Concrete (CSCC) was conducted in this research. Emphasis was placed on an innovative calibration methodology tailored for ten unique CSCC mix designs. Through the incorporation of multi-objective optimization, MATLAB's Genetic Algorithm (GA) was seamlessly integrated with PFC3D, a prominent Discrete Element Modeling (DEM) software package. This integration facilitates the exchange of micro-parameter values, where MATLAB’s GA optimizes these parameters, which are then input into PFC3D to simulate the behavior of CSCC mix designs. The calibration process is fully automated through a MATLAB script, complemented by a fish script in PFC, allowing for an efficient and precise calibration mechanism that automatically terminates based on predefined criteria. Central to this approach is the Uniaxial Compressive Strength (UCS) test, which forms the foundation of the calibration process. A distinguishing aspect of this study was the incorporation of pigment effects, reflecting the cohesive behavior of cementitious components, into the micro-parameters influencing the cohesion coefficient within DEM. This innovative approach ensured significant alignment between simulations and observed macro properties, as evidenced by fitness values consistently exceeding 0.94. This investigation not only expanded the understanding of CSCC dynamics but also contributed significantly to the discourse on advanced concrete simulation methodologies, underscoring the importance of multi-objective optimization in such studies.
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spelling doaj.art-e9681159613d42699b5e28964853c5eb2024-03-05T19:09:50ZengNature PortfolioScientific Reports2045-23222024-02-0114111610.1038/s41598-024-54715-4Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approachVahid Shafaie0Majid Movahedi Rad1Department of Structural and Geotechnical Engineering, Széchenyi István UniversityDepartment of Structural and Geotechnical Engineering, Széchenyi István UniversityAbstract A detailed numerical simulation of Colored Self-Compacting Concrete (CSCC) was conducted in this research. Emphasis was placed on an innovative calibration methodology tailored for ten unique CSCC mix designs. Through the incorporation of multi-objective optimization, MATLAB's Genetic Algorithm (GA) was seamlessly integrated with PFC3D, a prominent Discrete Element Modeling (DEM) software package. This integration facilitates the exchange of micro-parameter values, where MATLAB’s GA optimizes these parameters, which are then input into PFC3D to simulate the behavior of CSCC mix designs. The calibration process is fully automated through a MATLAB script, complemented by a fish script in PFC, allowing for an efficient and precise calibration mechanism that automatically terminates based on predefined criteria. Central to this approach is the Uniaxial Compressive Strength (UCS) test, which forms the foundation of the calibration process. A distinguishing aspect of this study was the incorporation of pigment effects, reflecting the cohesive behavior of cementitious components, into the micro-parameters influencing the cohesion coefficient within DEM. This innovative approach ensured significant alignment between simulations and observed macro properties, as evidenced by fitness values consistently exceeding 0.94. This investigation not only expanded the understanding of CSCC dynamics but also contributed significantly to the discourse on advanced concrete simulation methodologies, underscoring the importance of multi-objective optimization in such studies.https://doi.org/10.1038/s41598-024-54715-4Colored self-compacting concrete (CSCC)Genetic algorithm (GA)Automated calibrationUCS testPFC3DMulti-objective optimization
spellingShingle Vahid Shafaie
Majid Movahedi Rad
Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
Scientific Reports
Colored self-compacting concrete (CSCC)
Genetic algorithm (GA)
Automated calibration
UCS test
PFC3D
Multi-objective optimization
title Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
title_full Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
title_fullStr Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
title_full_unstemmed Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
title_short Multi-objective genetic algorithm calibration of colored self-compacting concrete using DEM: an integrated parallel approach
title_sort multi objective genetic algorithm calibration of colored self compacting concrete using dem an integrated parallel approach
topic Colored self-compacting concrete (CSCC)
Genetic algorithm (GA)
Automated calibration
UCS test
PFC3D
Multi-objective optimization
url https://doi.org/10.1038/s41598-024-54715-4
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