Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames

The main aim of the current paper is to optimize the seismic design of steel moment-resisting frames, with a focus on minimizing life-cycle costs. An efficient and powerful Physics-based metaheuristic algorithm, known as the center of mass optimization, is utilized to search the design space of stee...

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Main Authors: Akram Abdulazeez-Ali-ALbalky, Saeed Gholizadeh, Saeed Tariverdilo
Format: Article
Language:English
Published: Pouyan Press 2026-01-01
Series:Journal of Soft Computing in Civil Engineering
Subjects:
Online Access:https://www.jsoftcivil.com/article_217972_b4aa40748ef17f52c8c87a4d0ad85179.pdf
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author Akram Abdulazeez-Ali-ALbalky
Saeed Gholizadeh
Saeed Tariverdilo
author_facet Akram Abdulazeez-Ali-ALbalky
Saeed Gholizadeh
Saeed Tariverdilo
author_sort Akram Abdulazeez-Ali-ALbalky
collection DOAJ
description The main aim of the current paper is to optimize the seismic design of steel moment-resisting frames, with a focus on minimizing life-cycle costs. An efficient and powerful Physics-based metaheuristic algorithm, known as the center of mass optimization, is utilized to search the design space of steel moment-resisting frames' performance-based design optimization problem. Four seismic design optimization scenarios are examined, considering initial cost and seismic total cost as the objective functions to be minimized, with plastic hinge rotation constraints and inter-story drift constraints as the local and global indicators of structural nonlinear behavior, respectively. Within the context of this paper, seismic total cost is formulated as the simple sum of the initial cost and seismic life-cycle cost of the structures. Two design examples, comprising 6-story and 12-story steel frames, are illustrated. The obtained numerical results indicate that optimizing seismic total cost with constraints on both plastic hinge rotation and inter-story drift yields the most cost-effective designs. Additionally, the findings indicate that in optimization processes including both kinds of design constraints, the inter-story drift constraints dominate the optimal designs.
format Article
id doaj-art-efde3e410afe4b20bfa2a03cc2929a83
institution Kabale University
issn 2588-2872
language English
publishDate 2026-01-01
publisher Pouyan Press
record_format Article
series Journal of Soft Computing in Civil Engineering
spelling doaj-art-efde3e410afe4b20bfa2a03cc2929a832025-08-20T03:34:59ZengPouyan PressJournal of Soft Computing in Civil Engineering2588-28722026-01-0110110.22115/scce.2025.2036217972Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting FramesAkram Abdulazeez-Ali-ALbalky0Saeed Gholizadeh1Saeed Tariverdilo2Ph.D. Student, Faculty of Civil Engineering, Urmia University, Urmia, IranProfessor, Faculty of Civil Engineering, Urmia University, Urmia, IranProfessor, Faculty of Civil Engineering, Urmia University, Urmia, IranThe main aim of the current paper is to optimize the seismic design of steel moment-resisting frames, with a focus on minimizing life-cycle costs. An efficient and powerful Physics-based metaheuristic algorithm, known as the center of mass optimization, is utilized to search the design space of steel moment-resisting frames' performance-based design optimization problem. Four seismic design optimization scenarios are examined, considering initial cost and seismic total cost as the objective functions to be minimized, with plastic hinge rotation constraints and inter-story drift constraints as the local and global indicators of structural nonlinear behavior, respectively. Within the context of this paper, seismic total cost is formulated as the simple sum of the initial cost and seismic life-cycle cost of the structures. Two design examples, comprising 6-story and 12-story steel frames, are illustrated. The obtained numerical results indicate that optimizing seismic total cost with constraints on both plastic hinge rotation and inter-story drift yields the most cost-effective designs. Additionally, the findings indicate that in optimization processes including both kinds of design constraints, the inter-story drift constraints dominate the optimal designs.https://www.jsoftcivil.com/article_217972_b4aa40748ef17f52c8c87a4d0ad85179.pdfoptimizationmetaheuristicseismic designlife-cycle coststeel moment resisting frame
spellingShingle Akram Abdulazeez-Ali-ALbalky
Saeed Gholizadeh
Saeed Tariverdilo
Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
Journal of Soft Computing in Civil Engineering
optimization
metaheuristic
seismic design
life-cycle cost
steel moment resisting frame
title Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
title_full Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
title_fullStr Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
title_full_unstemmed Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
title_short Seismic Performance-Based Total Cost Optimization for Steel Moment-Resisting Frames
title_sort seismic performance based total cost optimization for steel moment resisting frames
topic optimization
metaheuristic
seismic design
life-cycle cost
steel moment resisting frame
url https://www.jsoftcivil.com/article_217972_b4aa40748ef17f52c8c87a4d0ad85179.pdf
work_keys_str_mv AT akramabdulazeezalialbalky seismicperformancebasedtotalcostoptimizationforsteelmomentresistingframes
AT saeedgholizadeh seismicperformancebasedtotalcostoptimizationforsteelmomentresistingframes
AT saeedtariverdilo seismicperformancebasedtotalcostoptimizationforsteelmomentresistingframes