In this paper the PARC_CL 2.0 crack model, implemented in the ABAQUS Code user subroutine UMAT.for, is presented and applied to the non-linear finite element analyses (NLFEA) of reinforced concrete (RC) shear walls tested, by means of pseudo dynamic test (PSD), at the European Laboratory for Structural Assessment (ELSA, Joint Research Centre). The PARC_CL 2.0 crack model is an evolution of the previous PARC versions and, with re-spect to them, it allows to take into account plastic and irreversible deformations. For this reason, it seems to be suitable for modelling the hysteretic cycles of both concrete and steel and to reproduce the cyclic response of structural R members. Moreover, within the PARC_CL 2.0 crack model, is implemented a formulation able to account for stiffness proportional damping in dynamic analyses. The shear walls, tested by means of PSD test, at the ELSA laboratory have been used to vali-date the proposed PARC_CL 2.0 crack model; the shear walls have been modeled using multi-layered shell elements and NLFEA have been carried out considering several loading condition (static pushover, cyclic and dynamic). The static pushover analyses are used to evaluate the sensitivity of results to mesh discretization; several analyses have been carried out adopting different element size in order to see the effect on the structural response.Moreover, cyclic and dynamic analyses are used to evaluate the capability of PARC_CL 2.0 crack model to reproduce the hysteretic response of such RC structural members.

Simulation of monotonic, static and dynamic response of RC squat walls by means of PARC_CL 2.0 crack model / Belletti, Beatrice; Scolari, Matteo; Vecchi, Francesca. - ELETTRONICO. - 1:(2017), pp. 1711-1731. (Intervento presentato al convegno COMPDYN 2017 tenutosi a Rhodes Island, Greece nel 15-17 June).

Simulation of monotonic, static and dynamic response of RC squat walls by means of PARC_CL 2.0 crack model

BELLETTI, Beatrice;SCOLARI, Matteo;VECCHI, FRANCESCA
2017-01-01

Abstract

In this paper the PARC_CL 2.0 crack model, implemented in the ABAQUS Code user subroutine UMAT.for, is presented and applied to the non-linear finite element analyses (NLFEA) of reinforced concrete (RC) shear walls tested, by means of pseudo dynamic test (PSD), at the European Laboratory for Structural Assessment (ELSA, Joint Research Centre). The PARC_CL 2.0 crack model is an evolution of the previous PARC versions and, with re-spect to them, it allows to take into account plastic and irreversible deformations. For this reason, it seems to be suitable for modelling the hysteretic cycles of both concrete and steel and to reproduce the cyclic response of structural R members. Moreover, within the PARC_CL 2.0 crack model, is implemented a formulation able to account for stiffness proportional damping in dynamic analyses. The shear walls, tested by means of PSD test, at the ELSA laboratory have been used to vali-date the proposed PARC_CL 2.0 crack model; the shear walls have been modeled using multi-layered shell elements and NLFEA have been carried out considering several loading condition (static pushover, cyclic and dynamic). The static pushover analyses are used to evaluate the sensitivity of results to mesh discretization; several analyses have been carried out adopting different element size in order to see the effect on the structural response.Moreover, cyclic and dynamic analyses are used to evaluate the capability of PARC_CL 2.0 crack model to reproduce the hysteretic response of such RC structural members.
2017
978-618-82844-1-8
Simulation of monotonic, static and dynamic response of RC squat walls by means of PARC_CL 2.0 crack model / Belletti, Beatrice; Scolari, Matteo; Vecchi, Francesca. - ELETTRONICO. - 1:(2017), pp. 1711-1731. (Intervento presentato al convegno COMPDYN 2017 tenutosi a Rhodes Island, Greece nel 15-17 June).
File in questo prodotto:
Non ci sono file associati a questo prodotto.

I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.

Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11381/2831507
Citazioni
  • ???jsp.display-item.citation.pmc??? ND
  • Scopus 2
  • ???jsp.display-item.citation.isi??? ND
social impact