Samuel, S. P. et al. Mechanical properties of experimental dental composites containing a combination of mesoporous and nonporous spherical silica as fillers.
This paper investigates the ultimate tensile failure strength of laminated composites containing a central circular hole.
Both electrical conductivity and storage modulus improve in composites containing a 1 2 clay CB (wt/wt) ratio.
We present an analytical micromechanical model designed to simulate the tensile stress strain behaviour and failure of damaging composites containing a high volume fraction of reinforcing particles.
This paper describes the fabrication of high density (ρ ∼ 1.75 g/cc) composites containing a hybrid (carbon and boron nitride), or complete boron nitride matrix.
In the long-wave limit, the solutions of these integral equations for the composites containing a single inhomogeneous fiber are solved in close forms.
The model used allows to predict the elastic properties of carbon nanotube (CNT /polymer composites containing a random distribution of CNTs.
An approach in which a conductive coating is applied on the surface of the composite to improve the through-thickness thermal conductivity of composites containing a small percentage of conductive fibers in the thickness direction is explored.
The yield strength and the elastoplastic deformation of such composites containing a high volume fraction of glassy particles were accurately modeled using a shear lag model and a self-consistent effective medium approach.
