Modelling of dynamic damage and failure in aluminium alloys

A physically based damage and failure model, applicable to orthotropic metals is proposed in this paper. To account for the physical mechanisms of failure, the concept of thermally activated damage initially proposed by Klepaczko [1], has been adopted as the basis for the model. This assumption make...

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Vydané v:International journal of impact engineering Ročník 49; s. 61 - 76
Hlavní autori: Vignjevic, R., Djordjevic, N., Campbell, J., Panov, V.
Médium: Journal Article
Jazyk:English
Vydavateľské údaje: Kidlington Elsevier Ltd 01.11.2012
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ISSN:0734-743X, 1879-3509
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Abstract A physically based damage and failure model, applicable to orthotropic metals is proposed in this paper. To account for the physical mechanisms of failure, the concept of thermally activated damage initially proposed by Klepaczko [1], has been adopted as the basis for the model. This assumption makes the proposed damage/failure model compatible with the Mechanical Threshold Strength (MTS) model [2–6], which was used within the overall constitutive model to describe material behaviour in the plastic regime. A shock equation of state [7] was coupled with the rest of the constitutive model to allow for modelling of shock wave propagation in the material. The new model was implemented in DYNA3D [8] and coupled with our in-house non-linear transient SPH code, MCM (Meshless Continuum Mechanics). Parameters for the new constitutive model, i.e. parameters for the plasticity model and the damage model, were derived on the basis of the uniaxial tensile tests and Taylor anvil tests. The subject of investigation is a polycrystalline aluminium alloy AA7010, whose orthotropy is a consequence of meso-scale phase distribution, or grain morphology. Tensile tests were performed for the range of temperatures between 223.15K and 473.15K, and strain rates between 6.4×10−4s−1 and 6.4×102s−1. In order to validate the new damage model, a numerical simulation of Taylor anvil tests has been performed for AA7010, using a single stage gas gun at velocity of 200m/s. The numerical analysis clearly demonstrates the ability of this new model to predict experimentally observed damage and failure.
AbstractList A physically based damage and failure model, applicable to orthotropic metals is proposed in this paper. To account for the physical mechanisms of failure, the concept of thermally activated damage initially proposed by Klepaczko [1], has been adopted as the basis for the model. This assumption makes the proposed damage/failure model compatible with the Mechanical Threshold Strength (MTS) model [2–6], which was used within the overall constitutive model to describe material behaviour in the plastic regime. A shock equation of state [7] was coupled with the rest of the constitutive model to allow for modelling of shock wave propagation in the material. The new model was implemented in DYNA3D [8] and coupled with our in-house non-linear transient SPH code, MCM (Meshless Continuum Mechanics). Parameters for the new constitutive model, i.e. parameters for the plasticity model and the damage model, were derived on the basis of the uniaxial tensile tests and Taylor anvil tests. The subject of investigation is a polycrystalline aluminium alloy AA7010, whose orthotropy is a consequence of meso-scale phase distribution, or grain morphology. Tensile tests were performed for the range of temperatures between 223.15K and 473.15K, and strain rates between 6.4×10−4s−1 and 6.4×102s−1. In order to validate the new damage model, a numerical simulation of Taylor anvil tests has been performed for AA7010, using a single stage gas gun at velocity of 200m/s. The numerical analysis clearly demonstrates the ability of this new model to predict experimentally observed damage and failure.
A physically based damage and failure model, applicable to orthotropic metals is proposed in this paper. To account for the physical mechanisms of failure, the concept of thermally activated damage initially proposed by Klepaczko [1], has been adopted as the basis for the model. This assumption makes the proposed damage/failure model compatible with the Mechanical Threshold Strength (MTS) model [2-6], which was used within the overall constitutive model to describe material behaviour in the plastic regime. A shock equation of state [7] was coupled with the rest of the constitutive model to allow for modelling of shock wave propagation in the material. The new model was implemented in DYNA3D [8] and coupled with our in-house non-linear transient SPH code, MCM (Meshless Continuum Mechanics).
Author Vignjevic, R.
Campbell, J.
Djordjevic, N.
Panov, V.
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Keywords Finite elements
Aluminium alloys
Damage
Strain rate
Constitutive equation
Polycrystal
Ultimate limit
Modeling
Shock wave
Continuum
Finite element method
Inelasticity
Plasticity
Gas gun
Dynamic model
Damaging
Transient response
Rupture
Mechanical properties
Aluminium alloy
Tension test
Orthotropic material
Equations of state
Mesoscale
Thermal activation
Meshless method
Non linear effect
Effective medium model
Impact test
Strength
Language English
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Snippet A physically based damage and failure model, applicable to orthotropic metals is proposed in this paper. To account for the physical mechanisms of failure, the...
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SubjectTerms Aluminium alloys
Aluminum base alloys
Constitutive relationships
Damage
Exact sciences and technology
Failure
Finite elements
Fracture mechanics (crack, fatigue, damage...)
Fundamental areas of phenomenology (including applications)
Inelasticity (thermoplasticity, viscoplasticity...)
Mathematical models
Mathematics
Meshless methods
Methods of scientific computing (including symbolic computation, algebraic computation)
Modelling
Numerical analysis. Scientific computation
Physics
Sciences and techniques of general use
Solid mechanics
Strain rate
Structural and continuum mechanics
Title Modelling of dynamic damage and failure in aluminium alloys
URI https://dx.doi.org/10.1016/j.ijimpeng.2012.03.009
https://www.proquest.com/docview/1082214046
Volume 49
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