Auxetic structures exhibit negative Poissons ratios in one or more directions. When stretched, they will become fatter or thinner when compressed, in contrast to conventional materials (like rubber, glass, metals, etc.) in the direction normal to the applied loading direction. The present work intends to develop different density auxetic cellular structures, analyze their different mechanical properties and highlights the von-misses stresses develop during compression and tension of these auxetic cellular structures. DOI: 10.17762/ijritcc2321-8169.15010
Materials having a negative Poisson’s ratio (auxetic) get fatter rather than thinner when uniaxially...
This work proposes the experimental study of an auxetic polymeric structure manufactured by 3D print...
Auxetic metamaterials exhibit an unexpected behaviour of a negative Poisson's ratio, meaning they ex...
One of the important mechanical properties of materials is Poisson’s ratio, which is positive for mo...
Auxetic materials with negative Poisson\u27s ratios, display the unique behavior owing to their micr...
In recent years, the rapid development of digital fabrication technology has substantially boosted t...
The Poisson’s ratio, a property which quantifies the changes in thickness when a material is stretch...
Negative Poisson’s ratio materials, or auxetics, have drawn attention for the past 30 years. The aux...
We present in this work the manufacturing, modeling, and testing of dome-shaped cellular structures ...
Auxetic materials are endowed with a behavior that contradicts common sense, when subjected to an ax...
Recent frontiers in material development are represented by a class of so-called auxetic metamateri...
The paper investigates the potential of auxetics in architectural applications by means of computati...
An auxetic structure is an arrangement of unit cells that under a uniaxial load experiences expansio...
Abstract Auxetic materials are a special case of cellular materials, which exhibit a negative Poisso...
Auxetics are materials that exhibit a negative Poisson's ratio i.e. they expand when pulled apart. T...
Materials having a negative Poisson’s ratio (auxetic) get fatter rather than thinner when uniaxially...
This work proposes the experimental study of an auxetic polymeric structure manufactured by 3D print...
Auxetic metamaterials exhibit an unexpected behaviour of a negative Poisson's ratio, meaning they ex...
One of the important mechanical properties of materials is Poisson’s ratio, which is positive for mo...
Auxetic materials with negative Poisson\u27s ratios, display the unique behavior owing to their micr...
In recent years, the rapid development of digital fabrication technology has substantially boosted t...
The Poisson’s ratio, a property which quantifies the changes in thickness when a material is stretch...
Negative Poisson’s ratio materials, or auxetics, have drawn attention for the past 30 years. The aux...
We present in this work the manufacturing, modeling, and testing of dome-shaped cellular structures ...
Auxetic materials are endowed with a behavior that contradicts common sense, when subjected to an ax...
Recent frontiers in material development are represented by a class of so-called auxetic metamateri...
The paper investigates the potential of auxetics in architectural applications by means of computati...
An auxetic structure is an arrangement of unit cells that under a uniaxial load experiences expansio...
Abstract Auxetic materials are a special case of cellular materials, which exhibit a negative Poisso...
Auxetics are materials that exhibit a negative Poisson's ratio i.e. they expand when pulled apart. T...
Materials having a negative Poisson’s ratio (auxetic) get fatter rather than thinner when uniaxially...
This work proposes the experimental study of an auxetic polymeric structure manufactured by 3D print...
Auxetic metamaterials exhibit an unexpected behaviour of a negative Poisson's ratio, meaning they ex...