Título
Impact behaviour of bio-inspired sandwich panels integrally manufactured from 3D printed continuous carbon fibre reinforced polyamideOtras instituciones
IkerbasqueVersión
Postprint
Derechos
© 2024 ElsevierAcceso
Acceso embargadoVersión del editor
https://doi.org/10.1016/j.compscitech.2024.110515Publicado en
Composites Science and Technology Palabras clave
Impact behaviour (B)
3D printed composites (A)
Bioinspired sandwich
Functional graded structure ... [+]
3D printed composites (A)
Bioinspired sandwich
Functional graded structure ... [+]
Impact behaviour (B)
3D printed composites (A)
Bioinspired sandwich
Functional graded structure
Sandwich structures (C) [-]
3D printed composites (A)
Bioinspired sandwich
Functional graded structure
Sandwich structures (C) [-]
Campo (Clasificación UNESCO)
Ciencias TecnológicasDisciplina (Clasificación UNESCO)
Tecnología de materialesResumen
This paper studies the effect of several design parameters on the impact performance of fully 3D printed sandwich panels with a core cell unit inspired by the trabecular structure of the forewing of a ... [+]
This paper studies the effect of several design parameters on the impact performance of fully 3D printed sandwich panels with a core cell unit inspired by the trabecular structure of the forewing of a beetle. The key finding is that the asymmetric sandwich panel, which featured a thicker face sheet at the back and a core with a variating cell wall thickness of weak-to-strong, exhibited the highest impact energy dissipation. Specifically, 98.1 J was dissipated with 6970 N of peak load. This surpassed the performance of the sandwich panel with homogeneous cell wall thickness and asymmetric face sheets, which dissipated only 72.1 J and failed at 5406 N. In general, asymmetric configurations were found to dissipate greater energy than symmetric face sheets, and for sandwich plates with homogenous cores, the configuration with the thickest back face sheet proved more resistant to damage than the opposite asymmetric configuration. [-]
Financiador
Gobierno VascoPrograma
Elkartek 2021Número
KK-2021/00066URI de la ayuda
Sin informaciónProyecto
Materiales multifuncionales para transporte sostenible (MATFUN)Colecciones
- Artículos - Ingeniería [684]