Nalazite se na CroRIS probnoj okolini. Ovdje evidentirani podaci neće biti pohranjeni u Informacijskom sustavu znanosti RH. Ako je ovo greška, CroRIS produkcijskoj okolini moguće je pristupi putem poveznice www.croris.hr
izvor podataka: crosbi !

Explicit multi-scale modelling of intrinsic self- healing after low-velocity impact in GFRP composites (CROSBI ID 313757)

Prilog u časopisu | izvorni znanstveni rad | međunarodna recenzija

Smojver, Ivica ; Brezetić, Dominik ; Ivančević, Darko Explicit multi-scale modelling of intrinsic self- healing after low-velocity impact in GFRP composites // Composite structures, 302 (2022), 1-8. doi: 10.1016/j.compstruct.2022.116213

Podaci o odgovornosti

Smojver, Ivica ; Brezetić, Dominik ; Ivančević, Darko

engleski

Explicit multi-scale modelling of intrinsic self- healing after low-velocity impact in GFRP composites

In this work, a multi-scale framework is used for modelling of Low Velocity Impact (LVI) and post- impact healing of woven intrinsically self-healing FRP composite structures. The matrix constituent is modelled using the elastic-plastic micro-damage healing model. Furthermore, the reinforcing fibres are modelled as linear elastic with Hashin failure criterion and progressive damage model. The employed micromechanical model is the Rule of Mixtures (ROM). The developed model is implemented into Abaqus/Explicit user material subroutine VUMAT and validated using the LVI experimental results available in the literature. Tested specimens consisted of a self-healing epoxy resin and woven E-glass fabric as the matrix constituent and reinforcement, respectively. Validation results by comparing contact forces have shown that the model accurately predicts damaging mechanisms in the specimen. Additionally, prediction of fibre damage is in satisfactory agreement with experimental results. Finally, prediction of damaged and healed areas corresponds to experimental ultrasonic measurements.

polymer matrix ; woven glass fibre ; matrix micro-damage ; intrinsic self-healing ; fibre damage ; FRP composite ; low velocity impact ; multi-scale ; rule of mixtures

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

Podaci o izdanju

302

2022.

1-8

objavljeno

0263-8223

1879-1085

10.1016/j.compstruct.2022.116213

Povezanost rada

Zrakoplovstvo, raketna i svemirska tehnika

Poveznice
Indeksiranost