Sentence examples for maximum compressive loads from inspiring English sources
"maximum compressive loads" is correct and usable in written English
It can be used to describe the maximum amount of weight or resistance a material can withstand while being compressed or held in close proximity. For example, "The results of our testing indicated that the beam was able to withstand maximum compressive loads of 75,000 pounds."
Test results indicate that three BRBs with sufficient flexural rigidity of the restraining member develop (1) stable hysteretic responses up to core axial strains of 2.1%2.6%%, (2) maximum compressive loads of 1724 1951 kN (1.4 1.6 times the actual yield load), and (3) a cumulative plastic ductility that is much higher than that specified in AISC seismic provisions (2005).
The compression tests showed that the maximum compressive load varied from 58 to 1425 N, and the energy requirement varied from 23 to 1809 mJ, depending on the variety, height section and diameter of stem, and compression direction.
A torsion force was added manually at ∼40% maximum compressive loading force during the pinch test.
This loading profile induces a maximum calculated shear force of 346 N and a maximum compressive load of 750 N.
The compressive strength was calculated from the maximum load by the following equation: S = F / A. where S is the compressive strength (in megapascals), F is the maximum compressive load (in newton), and A is the surface area of the β-TCP scaffold perpendicular to the load axis (in square millimeters).
Both numerical and experimental results show that the presence of hoop layers at inner and outer layers plus ±75° non-geodesic layers gives maximum compressive load to the composite tube, since the reinforcement is wound closer to the loading direction.
The maximum compressive load of the columns decreased modestly with increasing substitution level of RCA (up to 11.2%), and the structural effects of the recycled aggregate replacement on load capacity and initial stiffness are smaller than the corresponding changes in material properties.
In general, the maximum compressive load and the energy requirement were greater in the lower section and for larger diameters; higher loads and energy were observed for Petera than for Alyssa and for the axial compression direction than for the lateral direction.
Since experimental material testing of individual masonry components (e.g., masonry unit and mortar joints) often produces highly variable results, this paper presents a numerical modelling based approach to address the associated uncertainty for the prediction of the maximum compressive load of masonry prisms.
The maximum compressive load of 180 200 N was selected to represent the human body weight scaled for differences in cross-sectional area of the human and porcine intervertebral discs [ 17, 18].
The maximum applied compressive load is defined as preload.
