Submission Deadline: 15 August 2025 View: 287 Submit to Special Issue
Dr. S. M. Anas
Email: mohdanas43@gmail.com
Affiliation: Department of Civil Engineering, Jamia Millia Islamia (A Central University), India
Research Interests: Structural Modeling, Damage, Extreme Loadings, Protective Structures, Finite Element Modeling, Computational Dynamics
Dr. Rayeh Nasr Al-Dala’ien
Email: Rayah.nasr1@bau.edu.jo
Affiliation: Civil Engineering Department, College of Engineering, Al-Balqa Applied University (BAU), Salt, 19117, Jordan
Research Interests: Structural Engineering, Damage, Computational Dynamics, Impact
Dr. Mohammed Benzerara
Email: mohammed.benzerara@univ-annaba.dz
Affiliation: Materials Geomaterials and Environment Laboratory (LMGE), Faculty of Technology, Department of Civil Engineering, Badji Mokhtar-Annaba University, P.O. Box 12, Annaba 23000, Algeria
Research Interests: Geotechnical Engineering, Structural Damage, Finite Element Modeling, Simulations
This special issue seeks to spotlight the latest advancements in computational modeling and simulation techniques specifically tailored to concrete, one of the most fundamental materials in civil engineering. With rapid progress in computational tools and methodologies, the simulation of concrete’s complex behavior under diverse conditions—such as extreme loads, dynamic environments, and long-term degradation—has never been more critical. This initiative aims to bring together cutting-edge research at the intersection of concrete mechanics, computational methods, and structural engineering to address key challenges in the design, analysis, and durability of concrete structures.
Scope and Topics:
1. Micromechanics and Mesoscale Modeling of Concrete: Delving into multiscale approaches that capture the heterogeneous nature of concrete at the microscale, connecting these models to large-scale structural performance under various loading conditions.
2. Numerical Simulation of Cracking and Fracture in Concrete: Investigating advanced computational methods for modeling the initiation and propagation of cracks in concrete, exploring techniques such as the extended finite element method (XFEM) and cohesive zone models to simulate fracture mechanisms.
3. Data-Driven Approaches in Concrete Simulation: Exploring the integration of data-driven techniques like machine learning to enhance concrete modeling, enabling faster and more accurate predictions of behavior under diverse stress states, temperature variations, and aging processes.
4. Computational Approaches for Durability Assessment: Addressing the simulation of long-term durability in concrete, including the effects of environmental exposure, chloride penetration, carbonation, and freeze-thaw cycles using computational models.
5. High-Performance Computing in Concrete Analysis: Highlighting the role of high-performance computing (HPC) in conducting large-scale simulations of concrete structures, enabling real-time analysis and optimization of complex systems such as bridges, dams, and high-rise buildings.
6. Nonlinear Finite Element Analysis of Concrete under Extreme Loads: Investigating the nonlinear behavior of concrete under extreme loading scenarios, such as blast, seismic events, and impact, through advanced finite element modeling techniques.
7. Stochastic Modeling of Concrete Properties: Examining stochastic methods to account for uncertainties in material properties, environmental conditions, and loadings in simulations, with the goal of enhancing the reliability of concrete structures.
8. Multiphysics Simulations of Concrete Behavior: Exploring coupled simulations that integrate thermal, mechanical, and chemical phenomena, such as hydration, shrinkage, and thermal cracking, to provide a holistic understanding of concrete’s response under diverse conditions.
9. Optimization Techniques for Sustainable Concrete Design: Investigating topology optimization and material distribution methods to design sustainable concrete structures with minimized environmental impact, leveraging computational tools for innovative, lightweight designs.
10. Validation of Computational Models for Concrete: Discussing methodologies for the validation of computational models through experimental data, focusing on techniques that ensure the accuracy and reliability of simulations in capturing real-world concrete behavior.
11. Concrete Response under Extreme Conditions: Investigating the material response of concrete, including deformation, fracture, and spalling under extreme loading conditions such as high-velocity impacts, blasts, and thermal shocks.
12. Advances in Simulation Algorithms for Concrete: Presenting state-of-the-art algorithms that enhance the accuracy and computational efficiency of models used in simulating concrete, focusing on solving large-scale problems under extreme loading and environmental conditions.
Submission Guidelines:
· Manuscripts should contribute groundbreaking insights, methodological innovations, or practical applications in the realm of computational modeling and simulation of concrete.
· Interdisciplinary contributions that integrate expertise from civil engineering, materials science, computer science, and applied mathematics are encouraged.
· Manuscripts should present not only theoretical advancements but also validate findings through experiments or real-world applications.
Benefits of the Special Issue:
· Positions the journal at the forefront of computational research in concrete and civil engineering.
· Fosters collaboration among researchers, creating a hub for the latest developments in the computational modeling of concrete.
· Provides a lasting contribution to the scientific community, shaping future research directions in computational concrete simulation.
This special issue will serve as a platform for groundbreaking research that pushes the frontiers of computational modeling in concrete, driving new innovations and applications in the design and analysis of concrete structures under dynamic and extreme conditions.
We welcome submissions of research articles, case studies, and reviews that explore the comprehensive use of computational methods to model, simulate, and optimize concrete structures.
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