AN EXPERIMENTAL AND FEM BASED APPROACH TO ASSESS BASALT/KEVLAR HYBRID LAMINATES FOR BALLISTIC PROTECTION APPLICATIONS

This research investigates the ballistic performance of Basalt/Kevlar hybrid laminates against Fragment Simulating Projectile (FSP) impacts using both experimental testing and finite element modeling (FEM). The study compared various configurations of 12-layer laminates, including pure basalt fiber reinforced composites (BFRC), pure Kevlar fiber reinforced composites (KFRC), and hybrid combinations. The 6/6 basalt-Kevlar configuration, particularly with basalt as the strike face, demonstrated superior performance, achieving a 30- 40% reduction in projectile velocity and 40% increase in energy absorption compared to single-material laminates. The enhanced performance is attributed to the complementary properties of both materials: basalt's higher compressive strength for initial projectile deformation and Kevlar's superior energy absorption capabilities. FEM simulations were validated through experimental testing with less than 10% error margin, and damage patterns were analyzed using infrared thermography. The findings suggest that these hybrid laminates offer promising solutions for advanced ballistic protection applications.

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Publication Details

Published
2025-05-07
DOI
https://doi.org/10.12783/ballistics25/37235
Primary Topic
High-Velocity Impact and Material Behavior
Type
article
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article

AN EXPERIMENTAL AND FEM BASED APPROACH TO ASSESS BASALT/KEVLAR HYBRID LAMINATES FOR BALLISTIC PROTECTION APPLICATIONS

P. Rama Subba Reddy, Saiyam Dobhal, B. Venkata Ramudu, T. S. Reddy et al.
High-Velocity Impact and Material Behavior
article

AN EXPERIMENTAL AND FEM BASED APPROACH TO ASSESS BASALT/KEVLAR HYBRID LAMINATES FOR BALLISTIC PROTECTION APPLICATIONS

P. Rama Subba Reddy, Saiyam Dobhal, B. Venkata Ramudu, T. S. Reddy, Ch. Subrahmanyam
article en

Abstract

This research investigates the ballistic performance of Basalt/Kevlar hybrid laminates against Fragment Simulating Projectile (FSP) impacts using both experimental testing and finite element modeling (FEM). The study compared various configurations of 12-layer laminates, including pure basalt fiber reinforced composites (BFRC), pure Kevlar fiber reinforced composites (KFRC), and hybrid combinations. The 6/6 basalt-Kevlar configuration, particularly with basalt as the strike face, demonstrated superior performance, achieving a 30- 40% reduction in projectile velocity and 40% increase in energy absorption compared to single-material laminates. The enhanced performance is attributed to the complementary properties of both materials: basalt's higher compressive strength for initial projectile deformation and Kevlar's superior energy absorption capabilities. FEM simulations were validated through experimental testing with less than 10% error margin, and damage patterns were analyzed using infrared thermography. The findings suggest that these hybrid laminates offer promising solutions for advanced ballistic protection applications.

Openalex Percentile: Top 93%
High-Velocity Impact and Material Behavior
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AN EXPERIMENTAL AND FEM BASED APPROACH TO ASSESS BASALT/KEVLAR HYBRID LAMINATES FOR BALLISTIC PROTECTION APPLICATIONS — P. Rama Subba Reddy, Saiyam Dobhal, et al. · (2025) | TGRS Research Map | TGRS