Transient temperature measurements in a ballistic impact experiment on a thermoplastic composite material

Dynamic impact tests were conducted on thermoplastic composite laminates over an impact velocity range spanning the penetration velocity threshold, 88% of the penetration velocity, and 34% of the penetration velocity of the test panels. The primary objective was to record temperature increases that could affect the material properties of the composite during an impact event, and if so, provide guidance to predictive models which may account for such temperature rises. Observations from a combination of high-speed visible light photogrammetry coupled with high-speed infrared thermography indicate that it is highly unlikely that the composite reaches the glass transition temperature of 147°C during a non-penetrative impact event. From high-speed infrared imaging of the cross section, a maximum temperature of 106°C occurred due to a transverse wave generated at impact traveling through the composite panel rather than at the point of maximum deformation. • Maximum temperatures are observed in the cross section of the composite panel. • Peak temperatures in the internal layers are associated with passage of the transverse wave, not maximum displacement. • There is no evidence for the glass transition temperature being reached for this composite material for non-penetrative impacts.

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Publication Details

Journal
Composites Part B Engineering
Published
2025-01-27
DOI
https://doi.org/10.1016/j.compositesb.2025.112157
Citations
2
Primary Topic
Structural Response to Dynamic Loads
Type
article
Field-Weighted Citation Impact
1.91
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article

Transient temperature measurements in a ballistic impact experiment on a thermoplastic composite material

Bryan Eric Schmidt, J. Michael Pereira, Alexander I.G. Savadelis
2 citations
Composites Part B Engineering
Structural Response to Dynamic Loads
1.91
article

Transient temperature measurements in a ballistic impact experiment on a thermoplastic composite material

Bryan Eric Schmidt, J. Michael Pereira, Alexander I.G. Savadelis
article en
2 citations

Abstract

Dynamic impact tests were conducted on thermoplastic composite laminates over an impact velocity range spanning the penetration velocity threshold, 88% of the penetration velocity, and 34% of the penetration velocity of the test panels. The primary objective was to record temperature increases that could affect the material properties of the composite during an impact event, and if so, provide guidance to predictive models which may account for such temperature rises. Observations from a combination of high-speed visible light photogrammetry coupled with high-speed infrared thermography indicate that it is highly unlikely that the composite reaches the glass transition temperature of 147°C during a non-penetrative impact event. From high-speed infrared imaging of the cross section, a maximum temperature of 106°C occurred due to a transverse wave generated at impact traveling through the composite panel rather than at the point of maximum deformation. • Maximum temperatures are observed in the cross section of the composite panel. • Peak temperatures in the internal layers are associated with passage of the transverse wave, not maximum displacement. • There is no evidence for the glass transition temperature being reached for this composite material for non-penetrative impacts.

Composites Part B EngineeringVol. 295
Glenn Research Center (US), Case Western Reserve University (US)
Openalex Percentile: Top 18%
Structural Response to Dynamic Loads
1.91
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Transient temperature measurements in a ballistic impact experiment on a thermoplastic composite material — Bryan Eric Schmidt, J. Michael Pereira, et al. · Composites Part B Engineering (2025) | TGRS Research Map | TGRS