Blast resistance of RC shear walls with engineered cementitious concrete: experimental and numerical insights for protective design

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Authors: Ömer Mercimek, Rahim Ghoroubi, Devrim Anıl, Özgür Anıl, Zafer Toral, İrfan Kocaman
Cited by: 1
References: 38

Abstract

Ensuring structural safety against accidental or intentional explosions is a key challenge for process and infrastructure protection. This study examines the blast resistance of reinforced concrete (RC) shear walls constructed with a specially engineered cementitious composite (ECC) compared to conventional C25 concrete. Half-scale wall specimens were tested under eight controlled blast scenarios using two TNT charge weights (1.5 and 3.0 kg) and two standoff distances (5 and 10 m). Measurements revealed that ECC walls exhibited markedly reduced maximum (≈59%) and residual (≈70%) displacements relative to conventional concrete walls, despite higher peak accelerations, confirming their superior energy absorption and reduced permanent damage. Numerical analyses with LS-DYNA reproduced experimental responses and clarified modelling constraints. The results demonstrate ECC’s potential as a protective material for critical facilities, contributing to safer infrastructure design against blast hazards and supporting risk mitigation strategies in process safety and environmental protection.

Fields of Study & Subjects

Structural Response to Dynamic Loads High-Velocity Impact and Material Behavior Structural Behavior of Reinforced Concrete

Publication details

Journal / source
European Journal of Environmental and Civil engineering
Publisher
Informa UK Limited
Volume
30
Issue
1
Publication date
8 June 2026
Language
EN