The proposed micromechanical model is able to capture peculiar aspects of the concrete stress strain curve of uniaxial compression: in most concrete materials, a higher compressive strength is associated with a higher initial tangent Young's modulus.
The directional freezing approach endows the graphene aerogel with a high compressive strength in the axial direction and good compressibility in both axial and radial directions.
This gives it a high compressive strength.
This up shift evidences that FLGs experience a high compressive stress.
Glare usually exhibits a high compressive strength and damage resistance, especially under impact loading.
Normally, concrete containing both OPC and BS has a higher compressive strength than concrete made with OPC only.
These blueshifts can actually be explained by a high compressive strain of the graphene lattice.
The blended scaffolds showed a higher compressive strength and modulus than the individual components.
The results showed a high compressive strength, a decrease in hydraulic conductivity and swelling as compared to natural clay samples.
This is rather unexpected since the literature indicates that a low NaOH/NasSiO3 ratio provides a higher compressive strength [36].
