Mechanical characterization is based on tensile uni-axial tests under deformation control of rectangular-base prismatic specimens.
Mechanical characterization was based on compression, tensile and three-point bending tests.
However, this latter characterization is generally more difficult than characterization based on the s-domain functions.
The main novelty of the proposed simulations is based on the mechanical characterization of passive/active robotic devices based on double stranded DNA molecules.
Based on mechanical characterization of the TLP bonded layers, a plastic material model was used.
We present results on the premier attempt in computer-controlled fabrication, modulation, and mechanical characterization of tissue engineering scaffolds based on triply periodic minimal surfaces (TPMS).
This paper presents a hybrid procedure for mechanical characterization of hyper-elastic materials based on moiré, finite element analysis and global optimization.
The objective of this work is the mechanical characterization of materials produced by 3D printing based on fused filament fabrication (FFF, analogous to FDM®).
For example, roughness, porosity and cracks present in the coating will affect the mechanical characterization since the indentation data analysis is based on how a rigid indenter penetrates into the material.
Finally, AFM-based mechanical characterization of single GaN NW is presented.
