Period-based anti-explosion protective wall: From concept to reality

This paper focuses on the development of a period-based anti-explosion protective wall, from conceptual design to experimental demonstration. The solution is based on changing the period of the structure by attaching to it a steel plate supported on rollers and connected to the protected structure by means of a series of linear elastic springs. The study firstly presents a simplified analysis based on a single degree of freedom system to evaluate the response of the protective structure under blast loading. Then, a full-scale testing campaign, including up to 12 successive explosions on the same specimen, was conducted to verify the theoretical model and assess the performance of the proposed design. The system was tested with decreasing scaled distances ranging from 1.392 m/kg1/3 to 0.485 m/kg1/3, using up to 70 kg of TNT equivalent, without any significant damage to the protected structure. The pressure, acceleration, displacement and strain data of the system were recorded and analysed. The results demonstrate the effectiveness of the system in mitigating blast effects, offering a novel approach to enhancing infrastructure resilience. The findings highlight the potential application of this technology for the protection of critical infrastructures, contributing to the advancement of blast-resistant designs.

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UPM Digital Archive (Technical University of Madrid)
Published
2025-10-31
Primary Topic
Structural Response to Dynamic Loads
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article
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article

Period-based anti-explosion protective wall: From concept to reality

Luis Iglesias Martínez, María Chiquito Nieto, Lina María López Sánchez, Anastasio Pedro Santos Yanguas et al.
UPM Digital Archive (Technical University of Madrid)
Structural Response to Dynamic Loads
article

Period-based anti-explosion protective wall: From concept to reality

Luis Iglesias Martínez, María Chiquito Nieto, Lina María López Sánchez, Anastasio Pedro Santos Yanguas, Ricardo Castedo Ruiz, Alejandro Pérez Caldentey
article en

Abstract

This paper focuses on the development of a period-based anti-explosion protective wall, from conceptual design to experimental demonstration. The solution is based on changing the period of the structure by attaching to it a steel plate supported on rollers and connected to the protected structure by means of a series of linear elastic springs. The study firstly presents a simplified analysis based on a single degree of freedom system to evaluate the response of the protective structure under blast loading. Then, a full-scale testing campaign, including up to 12 successive explosions on the same specimen, was conducted to verify the theoretical model and assess the performance of the proposed design. The system was tested with decreasing scaled distances ranging from 1.392 m/kg1/3 to 0.485 m/kg1/3, using up to 70 kg of TNT equivalent, without any significant damage to the protected structure. The pressure, acceleration, displacement and strain data of the system were recorded and analysed. The results demonstrate the effectiveness of the system in mitigating blast effects, offering a novel approach to enhancing infrastructure resilience. The findings highlight the potential application of this technology for the protection of critical infrastructures, contributing to the advancement of blast-resistant designs.

UPM Digital Archive (Technical University of Madrid)
Industry, innovation and infrastructure
Openalex Percentile: Top 34%
Structural Response to Dynamic Loads
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