The deformation behavior of intersecting ligaments forming variants of the square and rectangular grids under mechanical compression was investigated. It was shown that such systems are able to exhibit a negative incremental Poisson’s ratio at relatively large axial compressive strains. Numerical simulations and experimental studies indicated that the extent of auxeticity depends on the relative offset of successive ligaments, the relative lengths of the ligaments as well as on their thickness. It was also shown that there are two distinct modes of deformation, one resembling that of the reentrant hexagonal honeycomb and the other that of the meta-tetrachiral system
Auxetic materials exhibiting a negative Poisson's ratio are of great research interest due to their ...
The work presents a novel polyhedral mechanical metamaterial based on rotating triangular prisms con...
Auxetic materials, characterised by a negative Poisson's ratio, have properties that are different f...
The deformation behavior of intersecting ligaments forming variants of the square and rectangular gr...
Auxetic materials are endowed with a behavior that contradicts common sense, when subjected to an ax...
Auxetic behavior (i.e., a negative value of Poisson's ratio) has been reported for a variety of cell...
Chiral systems may exhibit auxetic behavior, i.e. they may have a negative Poisson's ratio. This par...
This is the author accepted manuscript. The final version is available from Wiley via the DOI in thi...
The highly symmetric hexachiral honeycomb with an isotropic Poisson's ratio of -1 is one of the earl...
Perforated systems constitute one of the most important classes of mechanical metamaterials. In this...
Auxetics, i.e. systems with a negative Poisson's ratio, exhibit the unexpected property of becoming ...
Careful microstructural design can result in materials with counterintuitive effective (macroscale)...
This paper presents the numerical simulation of uniaxial tension and compression tests for negative ...
Auxeticity is the result of internal structural degrees of freedom that get in the way of affine def...
Poisson’s ratio is an important property defining the relationship between lateral and longitudinal ...
Auxetic materials exhibiting a negative Poisson's ratio are of great research interest due to their ...
The work presents a novel polyhedral mechanical metamaterial based on rotating triangular prisms con...
Auxetic materials, characterised by a negative Poisson's ratio, have properties that are different f...
The deformation behavior of intersecting ligaments forming variants of the square and rectangular gr...
Auxetic materials are endowed with a behavior that contradicts common sense, when subjected to an ax...
Auxetic behavior (i.e., a negative value of Poisson's ratio) has been reported for a variety of cell...
Chiral systems may exhibit auxetic behavior, i.e. they may have a negative Poisson's ratio. This par...
This is the author accepted manuscript. The final version is available from Wiley via the DOI in thi...
The highly symmetric hexachiral honeycomb with an isotropic Poisson's ratio of -1 is one of the earl...
Perforated systems constitute one of the most important classes of mechanical metamaterials. In this...
Auxetics, i.e. systems with a negative Poisson's ratio, exhibit the unexpected property of becoming ...
Careful microstructural design can result in materials with counterintuitive effective (macroscale)...
This paper presents the numerical simulation of uniaxial tension and compression tests for negative ...
Auxeticity is the result of internal structural degrees of freedom that get in the way of affine def...
Poisson’s ratio is an important property defining the relationship between lateral and longitudinal ...
Auxetic materials exhibiting a negative Poisson's ratio are of great research interest due to their ...
The work presents a novel polyhedral mechanical metamaterial based on rotating triangular prisms con...
Auxetic materials, characterised by a negative Poisson's ratio, have properties that are different f...